(en)A semiconductor-transistor-based system and device that are designed to, but are not limited to: electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. In addition to the foregoing, other method aspects are described in the claims, drawings, and text forming a part of the present disclosure.

1.ApplicationNumber: US-201414445824-A
1.PublishNumber: US-2015277397-A1
2.Date Publish: 20151001
3.Inventor: HYDE RODERICK A.
ISHIKAWA MURIEL Y.
KARE JORDIN T.
LEUTHARDT ERIC C.
LEVIEN ROYCE A.
LORD RICHARD T.
LORD ROBERT W.
MALAMUD MARK A.
MYHRVOLD NATHAN P.
SWEENEY ELIZABETH A.
TEGREENE CLARENCE T.
WHITMER CHARLES
WOOD, JR. LOWELL L.
WOOD VICTORIA Y. H.

4.Inventor Harmonized: HYDE RODERICK A(US)
ISHIKAWA MURIEL Y(US)
KARE JORDIN T(US)
LEUTHARDT ERIC C(US)
LEVIEN ROYCE A(US)
LORD RICHARD T(US)
LORD ROBERT W(US)
MALAMUD MARK A(US)
MYHRVOLD NATHAN P(US)
SWEENEY ELIZABETH A(US)
TEGREENE CLARENCE T(US)
WHITMER CHARLES(US)
WOOD JR LOWELL L(US)
WOOD VICTORIA Y H(US)

5.Country: US
6.Claims:
(en)A semiconductor-transistor-based system and device that are designed to, but are not limited to: electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. In addition to the foregoing, other method aspects are described in the claims, drawings, and text forming a part of the present disclosure.

7.Description:
(en)CROSS-REFERENCE TO RELATED APPLICATIONS
If an Application Data Sheet (ADS) has been filed on the filing date of this application, it is incorporated by reference herein. Any applications claimed on the ADS for priority under 35 U.S.C. §§119, 120, 121, or 365(c), and any and all parent, grandparent, great-grandparent, etc. applications of such applications, are also incorporated by reference, including any priority claims made in those applications and any material incorporated by reference, to the extent such subject matter is not inconsistent herewith.
The present application is related to and/or claims the benefit of the earliest available effective filing date(s) from the following listed application(s) (the “Priority Applications”), if any, listed below (e.g., claims earliest available priority dates for other than provisional patent applications or claims benefits under 35 USC §119(e) for provisional patent applications, for any and all parent, grandparent, great-grandparent, etc. applications of the Priority Application(s)). In addition, the present application is related to the “Related Applications,” if any, listed below.
PRIORITY APPLICATIONS
For purposes of the USPTO extra-statutory requirements, the present application constitutes a continuation-in-part of U.S. patent application Ser. No. 14/230,625, entitled Quantified-Self Machines and Circuits Reflexively Related to Food-and-Nutrition Machines and Circuits, naming Roderick A. Hyde, Muriel Y. Ishikawa, Jordin T. Kare, Eric C. Leuthardt, Royce A. Levien, Richard T. Lord, Robert W. Lord, Mark A. Malamud, Nathan P. Myhrvold, Elizabeth A. Sweeney, Clarence T. Tegreene, Chuck Whitmer, Lowell L. Wood, Jr., and Victoria Y. H. Wood as inventors, filed 31, Mar., 2014 with attorney docket no. 1213-003-001-000000, which is currently co-pending or is an application of which a currently co-pending application is entitled to the benefit of the filing date.
For purposes of the USPTO extra-statutory requirements, the present application constitutes a continuation-in-part of U.S. patent application Ser. No. 14/292,817, entitled Quantified-Self Machines and Circuits Reflexively Related to Kiosk Systems and Associated Food-and-Nutrition Machines and Circuits, naming Roderick A. Hyde, Muriel Y. Ishikawa, Jordin T. Kare, Eric C. Leuthardt, Royce A. Levien, Richard T. Lord, Robert W. Lord, Mark A. Malamud, Nathan P. Myhrvold, Elizabeth A. Sweeney, Clarence T. Tegreene, Chuck Whitmer, Lowell L. Wood, Jr., and Victoria Y. H. Wood as inventors, filed 30, May, 2014 with attorney docket no. 1213-003-002-000000, which is currently co-pending or is an application of which a currently co-pending application is entitled to the benefit of the filing date.
For purposes of the USPTO extra-statutory requirements, the present application constitutes a continuation-in-part of U.S. patent application Ser. No. 14/298,851, entitled Quantified-Self Machines and Circuits Reflexively Related to Big-Data Analytics Systems and Associated Food-and-Nutrition Machines and Circuits, naming Roderick A. Hyde, Muriel Y. Ishikawa, Jordin T. Kare, Eric C. Leuthardt, Royce A. Levien, Richard T. Lord, Robert W. Lord, Mark A. Malamud, Nathan P. Myhrvold, Elizabeth A. Sweeney, Clarence T. Tegreene, Chuck Whitmer, Lowell L. Wood, Jr., and Victoria Y. H. Wood as inventors, filed 6, Jun., 2014 with attorney docket no. 1213-003-033-000000, which is currently co-pending or is an application of which a currently co-pending application is entitled to the benefit of the filing date.
For purposes of the USPTO extra-statutory requirements, the present application constitutes a continuation-in-part of U.S. patent application Ser. No. 14/316,733, entitled Quantified-Self Machines and Circuits Reflexively Related to Kiosk Systems and Associated Food-and-Nutrition Machines and Circuits, naming Roderick A. Hyde, Muriel Y. Ishikawa, Jordin T. Kare, Eric C. Leuthardt, Royce A. Levien, Richard T. Lord, Robert W. Lord, Mark A. Malamud, Nathan P. Myhrvold, Elizabeth A. Sweeney, Clarence T. Tegreene, Chuck Whitmer, Lowell L. Wood, Jr., and Victoria Y. H. Wood as inventors, filed 26, Jun., 2014 with attorney docket no. 1213-003-003-000000, which is currently co-pending or is an application of which a currently co-pending application is entitled to the benefit of the filing date.
For purposes of the USPTO extra-statutory requirements, the present application constitutes a continuation-in-part of U.S. patent application Ser. No. 14/318,024, entitled Quantified-Self Machines and Circuits Reflexively Related to Big-Data Analytics Systems and Associated Food-and-Nutrition Machines and Circuits, naming Roderick A. Hyde, Muriel Y. Ishikawa, Jordin T. Kare, Eric C. Leuthardt, Royce A. Levien, Richard T. Lord, Robert W. Lord, Mark A. Malamud, Nathan P. Myhrvold, Elizabeth A. Sweeney, Clarence T. Tegreene, Chuck Whitmer, Lowell L. Wood, Jr., and Victoria Y. H. Wood as inventors, filed 27, Jun., 2014 with attorney docket no. 1213-003-005-000000, which is currently co-pending or is an application of which a currently co-pending application is entitled to the benefit of the filing date.
RELATED APPLICATIONS
None.
The United States Patent Office (USPTO) has published a notice to the effect that the USPTO's computer programs require that patent applicants reference both a serial number and indicate whether an application is a continuation, continuation-in-part, or divisional of a parent application. Stephen G. Kunin, Benefit of Prior-Filed Application, USPTO Official Gazette Mar. 18, 2003. The USPTO further has provided forms for the Application Data Sheet which allow automatic loading of bibliographic data but which require identification of each application as a continuation, continuation-in-part, or divisional of a parent application. The present Applicant Entity (hereinafter “Applicant”) has provided above a specific reference to the application(s) from which priority is being claimed as recited by statute. Applicant understands that the statute is unambiguous in its specific reference language and does not require either a serial number or any characterization, such as “continuation” or “continuation-in-part,” for claiming priority to U.S. patent applications. Notwithstanding the foregoing, Applicant understands that the USPTO's computer programs have certain data entry requirements, and hence Applicant has provided designation(s) of a relationship between the present application and its parent application(s) as set forth above and in any ADS filed in this application, but expressly points out that such designation(s) are not to be construed in any way as any type of commentary and/or admission as to whether or not the present application contains any new matter in addition to the matter of its parent application(s).
If the listings of applications provided above are inconsistent with the listings provided via an ADS, it is the intent of the Applicant to claim priority to each application that appears in the Priority Applications section of the ADS and to each application that appears in the Priority Applications section of this application.
All subject matter of the Priority Applications and the Related Applications and of any and all parent, grandparent, great-grandparent, etc. applications of the Priority Applications and the Related Applications, including any priority claims, is incorporated herein by reference to the extent such subject matter is not inconsistent herewith.
If an Application Data Sheet (ADS) has been filed on the filing date of this application, it is incorporated by reference herein. Any applications claimed on the ADS for priority under 35 U.S.C. §§119, 120, 121, or 365(c), and any and all parent, grandparent, great-grandparent, etc. applications of such applications, are also incorporated by reference, including any priority claims made in those applications and any material incorporated by reference, to the extent such subject matter is not inconsistent herewith.


BACKGROUND
This application is related to machines, machine states, etc. for data collection, communication, ingestible material fabrication or other dispensing, supply, etc., or analysis, etc.
SUMMARY
In one or more various aspects, one or more related systems may be implemented in circuitry, machines, compositions of matter, or manufactures of systems, limited to patentable subject matter under 35 U.S.C. 101.
In one aspect, a semiconductor-transistor-based system includes, but is not limited to means for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; means for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; and means for electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. In addition to the foregoing, other system aspects are described in the claims, drawings, and text forming a part of the disclosure set forth herein.
In one aspect, a system includes, but is not limited to semiconductor-transistor-based electrical circuitry arrangement for electronically-performing-electronic-semiconductor-transistor-based-device-assisted-monitoring-of-user-physiological-aspect-data-of-a-user-and-performing-monitoring-of-user-behavioral- aspect-data-of-a-user; electrical circuitry arrangement for electronically-performing-electronic-semiconductor-transistor-based-device-assisted-reception-of-food-based-ingredient-information-from-food-based-ingredient-information-resources; and electrical circuitry arrangement for electronically-transmission-of-food-based-fabricator-operational-indication-to-food-fabricator-machines-user-physiological-aspect-data-and-user-behavioral-aspect-data-and-based-on-food-based-fabricator-information. In addition to the foregoing, other system aspects are described in the claims, drawings, and text forming a part of the disclosure set forth herein.
In one aspect, a semiconductor-transistor-based system includes, but is not limited to electronically-performing-electronic-semiconductor-transistor-based-device-assisted-monitoring-of-user-physiological-aspect-data-of-a-user-and-performing-monitoring-of-user-behavioral-aspect-data-of-a-user module configured to operate in accordance with electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; electronically-performing-electronic-semiconductor-transistor-based-device-assisted-reception-of-food-based-ingredient-information-from-food-based-ingredient- information-resources module configured to operate in accordance with electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; electronically-transmission-of-food-based-fabricator-operational-indication-to-food-fabricator-machines-user-physiological-aspect-data-and-user-behavioral-aspect-data-and-based-on-food-based-fabricator-information module configured to operate in accordance with electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. In addition to the foregoing, other system aspects are described in the claims, drawings, and text forming a part of the disclosure set forth herein.
In one aspect, a computer program product may be expressed as an article of manufacture that bears instructions including, but not limited to one or more instructions for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; one or more instructions for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; and one or more instructions for electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. In addition to the foregoing, other computer program product aspects are described in the claims, drawings, and text forming a part of the disclosure set forth herein.
In one aspect, a semiconductor-transistor-based system includes, but is not limited to one or more computing devices; and one or more instructions when executed on the one or more computing devices cause the one or more computing devices to perform electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; and electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. In addition to the foregoing, other computer program product aspects are described in the claims, drawings, and text forming a part of the disclosure set forth herein.
In addition to the foregoing, various other method and/or system and/or program product aspects are set forth and described in the text (e.g., claims and/or detailed description) and/or drawings of the present disclosure.
The foregoing is a summary and thus may contain simplifications, generalizations, inclusions, and/or omissions of detail; consequently, those skilled in the art will appreciate that the summary is illustrative only and is NOT intended to be in any way limiting. Other aspects, features, and advantages of the devices and/or processes and/or other subject matter described herein will become apparent in the disclosures set forth herein.



BRIEF DESCRIPTION OF THE FIGURES
For a more complete understanding of embodiments, reference now is made to the following descriptions taken in connection with the accompanying drawings. The use of the same symbols in different drawings typically indicates similar or identical items, unless context dictates otherwise.
With reference now to the figures, shown are one or more examples of is an example of Quantified-Self Machines and Circuits Reflexively Related to Food Fabricator Machines and Circuits that may provide context, for instance, in introducing one or more processes and/or devices described herein.
In accordance with 37 C.F.R. §1.84(h)(2), FIG. 1 shows “a view of a large machine or device in its entirety . . . broken into partial views . . . extended over several sheets” labeled FIG. 1-A through FIG. 1-O (Sheets 2 - 16 ). The “views on two or more sheets form, in effect, a single complete view, [and] the views on the several sheets . . . [are] so arranged that the complete figure can be assembled” from “partial views drawn on separate sheets . . . linked edge to edge. Thus, in FIG. 1 , (i) a “smaller scale view” is “included, showing the whole formed by the partial views and indicating the positions of the parts shown,” e.g., as described in 37 C.F.R. §1.84(h)(2), and (ii) the partial view FIGS. 1-A through 1 -O are ordered alphabetically, by increasing in columns from left to right, and increasing in rows top to bottom, as shown in the following table [with further orientation as indicated by assembly legends on the partial view figures]:





TABLE 1



Table showing alignment of enclosed drawings to form

partial schematic of one or more environments.






Pos. (0, 0)
X-Position 1
X-Position 2
X-Position 3



Y-Pos. 1
(1, 1): FIG. 1-A
(1, 2): FIG. 1-B
(1, 3): FIG. 1-C

Y-Pos. 2
(2, 1): FIG. 1-D
(2, 2): FIG. 1-E
(2, 3): FIG. 1-F

Y-Pos. 3
(3, 1): FIG. 1-G
(3, 2): FIG. 1-H
(3, 3): FIG. 1-I

Y-Pos. 4
(4, 1): FIG. 1-J
(4, 2): FIG. 1-K
(4, 3): FIG. 1-L

Y-Pos. 5
(5, 1): FIG. 1-M
(5, 2): FIG. 1-N
(5, 3): FIG. 1-O


























In accordance with 37 C.F.R. §1.84(h)( 2 ), FIG. 1 is “ . . . a view of a large machine or device in its entirety . . . broken into partial views . . . extended over several sheets . . . [with] no loss in facility of understanding the view.” [Assembly legends have been provided on one or more sheets where appropriate to assist in assembling the figures into a single view.] The partial views drawn on the several sheets indicated in the above table are capable of being linked edge to edge, so that no partial view contains parts of another partial view. [In addition, a smaller scale view has been included, showing the whole formed by the partial views and indicating the positions of the individual sheets in forming the complete view.] As here, “where views on two or more sheets form, in effect, a single complete view, the views on the several sheets are so arranged that the complete figure can be assembled without concealing any part of any of the views appearing on the various sheets.” 37 C.F.R. §1.84(h)(2).
It is noted that one or more of the partial views of the drawings may be blank, or may not contain substantive elements (e.g., may show only lines, connectors, and the like). These drawings are included in order to assist readers of the application in assembling the single complete view from the partial sheet format required for submission by the USPTO, and, while their inclusion is not required and may be omitted in this or other applications, their inclusion is proper, and should be considered intentional.
FIG. 2 shows a schematic diagram of implementation(s) of environment(s) and/or implementations(s) of one or more technologies described herein including bio-info/data device implementation(s) in communication with bio-data analytics system implementation(s), with food supply implementation(s) and with food fabricator implementation(s).
FIG. 3 shows a schematic diagram of implementation(s) of environment(s) and/or implementations(s) of one or more technologies described herein including bio-info data communication system implementation(s).
FIG. 4 shows a schematic diagram of implementation(s) of environment(s) and/or implementations(s) of one or more technologies described herein including processing module implementation(s).
FIG. 5 through FIG. 20 (sheets 20 - 35 ) show partially schematic diagrams of implementations of electronically-performing-electronic-semiconductor-transistor-based-device-assisted-monitoring-of-user-physiological-aspect-data-of-a-user-and-performing-monitoring-of-user-behavioral-aspect-data-of-a- user modules.
FIG. 21 through FIG. 34 (sheets 36 - 49 ) show partially schematic diagrams of implementation(s) of electronically-performing-electronic-semiconductor-transistor-based-device-assisted-reception-of-food-based-ingredient-information-from-food-based-ingredient-information-resources modules.
FIG. 35 through FIG. 39 (sheets 50 - 54 ) show partially schematic diagrams of an implementations of electronically-transmission-of-food-based-fabricator-operational-indication-to-food-fabricator-machines-user-physiological-aspect-data-and-user-behavioral-aspect-data-and-based-on-food-based- fabricator-information modules.
FIG. 40 shows a high-level flowchart illustrating an operational flow o 10 representing exemplary operations related to operation o 11 , operation o 12 , and operation o 13 .
FIG. 41 through FIG. 68 (Sheets 56 - 83 ) show high-level flowcharts including exemplary implementations of operation o 11 .
FIG. 69 through FIG. 92 (Sheets 84 - 107 ) show high-level flowcharts including exemplary implementations of operation o 12 .
FIG. 93 through FIG. 101 (Sheets 108 - 116 ) show high-level flowcharts including exemplary implementations of operation o 13 .



DETAILED DESCRIPTION
In the following detailed description, reference is made to the accompanying drawings, which form a part hereof. In the drawings, similar symbols typically identify similar components, unless context dictates otherwise. The illustrative embodiments described in the detailed description, drawings, and claims are not meant to be limiting. Other embodiments may be utilized, and other changes may be made, without departing from the spirit or scope of the subject matter presented here.
The present application uses formal outline headings for clarity of presentation. However, it is to be understood that the outline headings are for presentation purposes, and that different types of subject matter may be discussed throughout the application (e.g., device(s)/structure(s) may be described under process(es)/operations heading(s) and/or process(es)/operations may be discussed under structure(s)/process(es) headings; and/or descriptions of single topics may span two or more topic headings). Hence, the use of the formal outline headings is not intended to be in any way limiting.
The claims, description, and drawings of this application may describe one or more of the instant technologies in operational/functional language, for example as a set of operations to be performed by a computer. Such operational/functional description in most instances would be understood by one skilled the art as specifically-configured hardware (e.g., because a general purpose computer in effect becomes a special purpose computer once it is programmed to perform particular functions pursuant to instructions from program software (e.g., a high-level computer program serving as a hardware specification)).
Importantly, although the operational/functional descriptions described herein are understandable by the human mind, they are not abstract ideas of the operations/functions divorced from computational implementation of those operations/functions. Rather, the operations/functions represent a specification for massively complex computational machines or other means. As discussed in detail below, the operational/functional language must be read in its proper technological context, i.e., as concrete specifications for physical implementations.
The logical operations/functions described herein are a distillation of machine specifications or other physical mechanisms specified by the operations/functions such that the otherwise inscrutable machine specifications may be comprehensible to a human reader. The distillation also allows one of skill in the art to adapt the operational/functional description of the technology across many different specific vendors' hardware configurations or platforms, without being limited to specific vendors' hardware configurations or platforms.
Some of the present technical description (e.g., detailed description, drawings, claims, etc.) may be set forth in terms of logical operations/functions. As described in more detail herein, these logical operations/functions are not representations of abstract ideas, but rather are representative of static or sequenced specifications of various hardware elements. Differently stated, unless context dictates otherwise, the logical operations/functions will be understood by those of skill in the art to be representative of static or sequenced specifications of various hardware elements. This is true because tools available to one of skill in the art to implement technical disclosures set forth in operational/functional formats—tools in the form of a high-level programming language (e.g., C, java, visual basic), etc.), or tools in the form of Very high speed Hardware Description Language (“VHDL,” which is a language that uses text to describe logic circuits)—are generators of static or sequenced specifications of various hardware configurations. This fact is sometimes obscured by the broad term “software,” but, as shown by the following explanation, those skilled in the art understand that what is termed “software” is a shorthand for a massively complex interchaining/specification of ordered-matter elements. The term “ordered-matter elements” may refer to physical components of computation, such as assemblies of electronic logic gates, molecular computing logic constituents, quantum computing mechanisms, etc.
For example, a high-level programming language is a programming language with strong abstraction, e.g., multiple levels of abstraction, from the details of the sequential organizations, states, inputs, outputs, etc., of the machines that a high-level programming language actually specifies. See, e.g., Wikipedia, High-level programming language, http://en.wikipedia.org/wiki/High-level_programming_language (as of Jun. 5, 2012, 21:00 GMT). In order to facilitate human comprehension, in many instances, high-level programming languages resemble or even share symbols with natural languages. See, e.g., Wikipedia, Natural language, http://en.wikipedia.org/wiki/Natural_language (as of Jun. 5, 2012, 21:00 GMT).
It has been argued that because high-level programming languages use strong abstraction (e.g., that they may resemble or share symbols with natural languages), they are therefore a “purely mental construct” (e.g., that “software”—a computer program or computer programming—is somehow an ineffable mental construct, because at a high level of abstraction, it can be conceived and understood by a human reader). This argument has been used to characterize technical description in the form of functions/operations as somehow “abstract ideas.” In fact, in technological arts (e.g., the information and communication technologies) this is not true.
The fact that high-level programming languages use strong abstraction to facilitate human understanding should not be taken as an indication that what is expressed is an abstract idea. In fact, those skilled in the art understand that just the opposite is true. If a high-level programming language is the tool used to implement a technical disclosure in the form of functions/operations, those skilled in the art will recognize that, far from being abstract, imprecise, “fuzzy,” or “mental” in any significant semantic sense, such a tool is instead a near incomprehensibly precise sequential specification of specific computational machines—the parts of which are built up by activating/selecting such parts from typically more general computational machines over time (e.g., clocked time). This fact is sometimes obscured by the superficial similarities between high-level programming languages and natural languages. These superficial similarities also may cause a glossing over of the fact that high-level programming language implementations ultimately perform valuable work by creating/controlling many different computational machines.
The many different computational machines that a high-level programming language specifies are almost unimaginably complex. At base, the hardware used in the computational machines typically consists of some type of ordered matter (e.g., traditional electronic devices (e.g., transistors), deoxyribonucleic acid (DNA), quantum devices, mechanical switches, optics, fluidics, pneumatics, optical devices (e.g., optical interference devices), molecules, etc.) that are arranged to form logic gates. Logic gates are typically physical devices that may be electrically, mechanically, chemically, or otherwise driven to change physical state in order to create a physical reality of logic, such as Boolean logic.
Logic gates may be arranged to form logic circuits, which are typically physical devices that may be electrically, mechanically, chemically, or otherwise driven to create a physical reality of certain logical functions. Types of logic circuits include such devices as multiplexers, registers, arithmetic logic units (ALUs), computer memory, etc., each type of which may be combined to form yet other types of physical devices, such as a central processing unit (CPU)—the best known of which is the microprocessor. A modern microprocessor will often contain more than one hundred million logic gates in its many logic circuits (and often more than a billion transistors). See, e.g., Wikipedia, Logic gates, http://en.wikipedia.org/wiki/Logic_gates (as of Jun. 5, 2012, 21:03 GMT).
The logic circuits forming the microprocessor are arranged to provide a microarchitecture that will carry out the instructions defined by that microprocessor's defined Instruction Set Architecture. The Instruction Set Architecture is the part of the microprocessor architecture related to programming, including the native data types, instructions, registers, addressing modes, memory architecture, interrupt and exception handling, and external Input/Output. See, e.g., Wikipedia, Computer architecture, http://en.wikipedia.org/wiki/Computer_architecture (as of Jun. 5, 2012, 21:03 GMT).
The Instruction Set Architecture includes a specification of the machine language that can be used by programmers to use/control the microprocessor. Since the machine language instructions are such that they may be executed directly by the microprocessor, typically they consist of strings of binary digits, or bits. For example, a typical machine language instruction might be many bits long (e.g., 32, 64, or 128 bit strings are currently common). A typical machine language instruction might take the form “11110000101011110000111100111111” (a 32 bit instruction).
It is significant here that, although the machine language instructions are written as sequences of binary digits, in actuality those binary digits specify physical reality. For example, if certain semiconductors are used to make the operations of Boolean logic a physical reality, the apparently mathematical bits “1” and “0” in a machine language instruction actually constitute a shorthand that specifies the application of specific voltages to specific wires. For example, in some semiconductor technologies, the binary number “1” (e.g., logical “1”) in a machine language instruction specifies around +5 volts applied to a specific “wire” (e.g., metallic traces on a printed circuit board) and the binary number “0” (e.g., logical “0”) in a machine language instruction specifies around −5 volts applied to a specific “wire.” In addition to specifying voltages of the machines' configurations, such machine language instructions also select out and activate specific groupings of logic gates from the millions of logic gates of the more general machine. Thus, far from abstract mathematical expressions, machine language instruction programs, even though written as a string of zeros and ones, specify many, many constructed physical machines or physical machine states.
Machine language is typically incomprehensible by most humans (e.g., the above example was just ONE instruction, and some personal computers execute more than two billion instructions every second). See, e.g., Wikipedia, Instructions per second, http://en.wikipedia.org/wiki/Instructionsper_second (as of Jun. 5, 2012, 21:04 GMT). Thus, programs written in machine language—which may be tens of millions of machine language instructions long—are incomprehensible to most humans. In view of this, early assembly languages were developed that used mnemonic codes to refer to machine language instructions, rather than using the machine language instructions' numeric values directly (e.g., for performing a multiplication operation, programmers coded the abbreviation “mult,” which represents the binary number “011000” in MIPS machine code). While assembly languages were initially a great aid to humans controlling the microprocessors to perform work, in time the complexity of the work that needed to be done by the humans outstripped the ability of humans to control the microprocessors using merely assembly languages.
At this point, it was noted that the same tasks needed to be done over and over, and the machine language necessary to do those repetitive tasks was the same. In view of this, compilers were created. A compiler is a device that takes a statement that is more comprehensible to a human than either machine or assembly language, such as “add 2+2 and output the result,” and translates that human understandable statement into a complicated, tedious, and immense machine language code (e.g., millions of 32, 64, or 128 bit length strings). Compilers thus translate high-level programming language into machine language.
This compiled machine language, as described above, is then used as the technical specification which sequentially constructs and causes the interoperation of many different computational machines such that useful, tangible, and concrete work is done. For example, as indicated above, such machine language—the compiled version of the higher-level language—functions as a technical specification which selects out hardware logic gates, specifies voltage levels, voltage transition timings, etc., such that the useful work is accomplished by the hardware.
Thus, a functional/operational technical description, when viewed by one of skill in the art, is far from an abstract idea. Rather, such a functional/operational technical description, when understood through the tools available in the art such as those just described, is instead understood to be a humanly understandable representation of a hardware specification, the complexity and specificity of which far exceeds the comprehension of most any one human. With this in mind, those skilled in the art will understand that any such operational/functional technical descriptions—in view of the disclosures herein and the knowledge of those skilled in the art—may be understood as operations made into physical reality by (a) one or more interchained physical machines, (b) interchained logic gates configured to create one or more physical machine(s) representative of sequential/combinatorial logic(s), (c) interchained ordered matter making up logic gates (e.g., interchained electronic devices (e.g., transistors), DNA, quantum devices, mechanical switches, optics, fluidics, pneumatics, molecules, etc.) that create physical reality of logic(s), or (d) virtually any combination of the foregoing. Indeed, any physical object which has a stable, measurable, and changeable state may be used to construct a machine based on the above technical description. Charles Babbage, for example, constructed the first mechanized computational apparatus out of wood, with the apparatus powered by cranking a handle.
Thus, far from being understood as an abstract idea, those skilled in the art will recognize a functional/operational technical description as a humanly-understandable representation of one or more almost unimaginably complex and time sequenced hardware instantiations. The fact that functional/operational technical descriptions might lend themselves readily to high-level computing languages (or high-level block diagrams for that matter) that share some words, structures, phrases, etc. with natural language should not be taken as an indication that such functional/operational technical descriptions are abstract ideas, or mere expressions of abstract ideas. In fact, as outlined herein, in the technological arts this is simply not true. When viewed through the tools available to those of skill in the art, such functional/operational technical descriptions are seen as specifying hardware configurations of almost unimaginable complexity.
As outlined above, the reason for the use of functional/operational technical descriptions is at least twofold. First, the use of functional/operational technical descriptions allows near-infinitely complex machines and machine operations arising from interchained hardware elements to be described in a manner that the human mind can process (e.g., by mimicking natural language and logical narrative flow). Second, the use of functional/operational technical descriptions assists the person of skill in the art in understanding the described subject matter by providing a description that is more or less independent of any specific vendor's piece(s) of hardware.
The use of functional/operational technical descriptions assists the person of skill in the art in understanding the described subject matter since, as is evident from the above discussion, one could easily, although not quickly, transcribe the technical descriptions set forth in this document as trillions of ones and zeroes, billions of single lines of assembly-level machine code, millions of logic gates, thousands of gate arrays, or any number of intermediate levels of abstractions. However, if any such low-level technical descriptions were to replace the present technical description, a person of skill in the art could encounter undue difficulty in implementing the disclosure, because such a low-level technical description would likely add complexity without a corresponding benefit (e.g., by describing the subject matter utilizing the conventions of one or more vendor-specific pieces of hardware). Thus, the use of functional/operational technical descriptions assists those of skill in the art by separating the technical descriptions from the conventions of any vendor-specific piece of hardware.
In view of the foregoing, the logical operations/functions set forth in the present technical description are representative of static or sequenced specifications of various ordered-matter elements, in order that such specifications may be comprehensible to the human mind and adaptable to create many various hardware configurations. The logical operations/functions disclosed herein should be treated as such, and should not be disparagingly characterized as abstract ideas merely because the specifications they represent are presented in a manner that one of skill in the art can readily understand and apply in a manner independent of a specific vendor's hardware implementation.
Those having skill in the art will recognize that the state of the art has progressed to the point where there is little distinction left between hardware, software (e.g., a high-level computer program serving as a hardware specification), and/or firmware implementations of aspects of systems; the use of hardware, software, and/or firmware is generally (but not always, in that in certain contexts the choice between hardware and software can become significant) a design choice representing cost vs. efficiency tradeoffs. Those having skill in the art will appreciate that there are various vehicles by which processes and/or systems and/or other technologies described herein can be effected (e.g., hardware, software (e.g., a high-level computer program serving as a hardware specification), and/or firmware), and that the preferred vehicle will vary with the context in which the processes and/or systems and/or other technologies are deployed. For example, if an implementer determines that speed and accuracy are paramount, the implementer may opt for a mainly hardware and/or firmware vehicle; alternatively, if flexibility is paramount, the implementer may opt for a mainly software (e.g., a high-level computer program serving as a hardware specification) implementation; or, yet again alternatively, the implementer may opt for some combination of hardware, software (e.g., a high-level computer program serving as a hardware specification), and/or firmware in one or more machines, compositions of matter, and articles of manufacture, limited to patentable subject matter under 35 U.S.C. §101. Hence, there are several possible vehicles by which the processes and/or devices and/or other technologies described herein may be effected, none of which is inherently superior to the other in that any vehicle to be utilized is a choice dependent upon the context in which the vehicle will be deployed and the specific concerns (e.g., speed, flexibility, or predictability) of the implementer, any of which may vary. Those skilled in the art will recognize that optical aspects of implementations will typically employ optically-oriented hardware, software (e.g., a high-level computer program serving as a hardware specification), and or firmware.
In some implementations described herein, logic and similar implementations may include computer programs or other control structures. Electronic circuitry, for example, may have one or more paths of electrical current constructed and arranged to implement various functions as described herein. In some implementations, one or more media may be configured to bear a device-detectable implementation when such media hold or transmit device detectable instructions operable to perform as described herein. In some variants, for example, implementations may include an update or modification of existing software (e.g., a high-level computer program serving as a hardware specification) or firmware, or of gate arrays or programmable hardware, such as by performing a reception of or a transmission of one or more instructions in relation to one or more operations described herein. Alternatively or additionally, in some variants, an implementation may include special-purpose hardware, software (e.g., a high-level computer program serving as a hardware specification), firmware components, and/or general-purpose components executing or otherwise invoking special-purpose components. Specifications or other implementations may be transmitted by one or more instances of tangible transmission media as described herein, optionally by packet transmission or otherwise by passing through distributed media at various times.
Alternatively or additionally, implementations may include executing a special-purpose instruction sequence or invoking circuitry for enabling, triggering, coordinating, requesting, or otherwise causing one or more occurrences of virtually any functional operation described herein. In some variants, operational or other logical descriptions herein may be expressed as source code and compiled or otherwise invoked as an executable instruction sequence. In some contexts, for example, implementations may be provided, in whole or in part, by source code, such as C++, or other code sequences. In other implementations, source or other code implementation, using commercially available and/or techniques in the art, may be compiled//implemented/translated/converted into a high-level descriptor language (e.g., initially implementing described technologies in C or C++ programming language and thereafter converting the programming language implementation into a logic-synthesizable language implementation, a hardware description language implementation, a hardware design simulation implementation, and/or other such similar mode(s) of expression). For example, some or all of a logical expression (e.g., computer programming language implementation) may be manifested as a Verilog-type hardware description (e.g., via Hardware Description Language (HDL) and/or Very High Speed Integrated Circuit Hardware Descriptor Language (VHDL)) or other circuitry model which may then be used to create a physical implementation having hardware (e.g., an Application Specific Integrated Circuit). Those skilled in the art will recognize how to obtain, configure, and optimize suitable transmission or computational elements, material supplies, actuators, or other structures in light of these teachings.
The foregoing detailed description has set forth various embodiments of the devices and/or processes via the use of block diagrams, flowcharts, and/or examples. Insofar as such block diagrams, flowcharts, and/or examples contain one or more functions and/or operations, it will be understood by those within the art that each function and/or operation within such block diagrams, flowcharts, or examples can be implemented, individually and/or collectively, by a wide range of hardware, software (e.g., a high-level computer program serving as a hardware specification), firmware, or virtually any combination thereof, limited to patentable subject matter under 35 U.S.C. 101. In an embodiment, several portions of the subject matter described herein may be implemented via Application Specific Integrated Circuits (ASICs), Field Programmable Gate Arrays (FPGAs), digital signal processors (DSPs), or other integrated formats. However, those skilled in the art will recognize that some aspects of the embodiments disclosed herein, in whole or in part, can be equivalently implemented in integrated circuits, as one or more computer programs running on one or more computers (e.g., as one or more programs running on one or more computer systems), as one or more programs running on one or more processors (e.g., as one or more programs running on one or more microprocessors), as firmware, or as virtually any combination thereof, limited to patentable subject matter under 35 U.S.C. 101, and that designing the circuitry and/or writing the code for the software (e.g., a high-level computer program serving as a hardware specification) and or firmware would be well within the skill of one of skill in the art in light of this disclosure. In addition, those skilled in the art will appreciate that the mechanisms of the subject matter described herein are capable of being distributed as a program product in a variety of forms, and that an illustrative embodiment of the subject matter described herein applies regardless of the particular type of signal bearing medium used to actually carry out the distribution. Examples of a signal bearing medium include, but are not limited to, the following: a recordable type medium such as a floppy disk, a hard disk drive, a Compact Disc (CD), a Digital Video Disk (DVD), a digital tape, a computer memory, etc.; and a transmission type medium such as a digital and/or an analog communication medium (e.g., a fiber optic cable, a waveguide, a wired communications link, a wireless communication link (e.g., transmitter, receiver, transmission logic, reception logic, etc.), etc.).
The term module, as used in the foregoing/following disclosure, may refer to a collection of one or more components that are arranged in a particular manner, or a collection of one or more general-purpose components that may be configured to operate in a particular manner at one or more particular points in time, and/or also configured to operate in one or more further manners at one or more further times. For example, the same hardware, or same portions of hardware, may be configured/reconfigured in sequential/parallel time(s) as a first type of module (e.g., at a first time), as a second type of module (e.g., at a second time, which may in some instances coincide with, overlap, or follow a first time), and/or as a third type of module (e.g., at a third time which may, in some instances, coincide with, overlap, or follow a first time and/or a second time), etc. Reconfigurable and/or controllable components (e.g., general purpose processors, digital signal processors, field programmable gate arrays, etc.) are capable of being configured as a first module that has a first purpose, then a second module that has a second purpose and then, a third module that has a third purpose, and so on. The transition of a reconfigurable and/or controllable component may occur in as little as a few nanoseconds, or may occur over a period of minutes, hours, or days.
In some such examples, at the time the component is configured to carry out the second purpose, the component may no longer be capable of carrying out that first purpose until it is reconfigured. A component may switch between configurations as different modules in as little as a few nanoseconds. A component may reconfigure on-the-fly, e.g., the reconfiguration of a component from a first module into a second module may occur just as the second module is needed. A component may reconfigure in stages, e.g., portions of a first module that are no longer needed may reconfigure into the second module even before the first module has finished its operation. Such reconfigurations may occur automatically, or may occur through prompting by an external source, whether that source is another component, an instruction, a signal, a condition, an external stimulus, or similar.
For example, a central processing unit of a personal computer may, at various times, operate as a module for displaying graphics on a screen, a module for writing data to a storage medium, a module for receiving user input, and a module for multiplying two large prime numbers, by configuring its logical gates in accordance with its instructions. Such reconfiguration may be invisible to the naked eye, and in some embodiments may include activation, deactivation, and/or re-routing of various portions of the component, e.g., switches, logic gates, inputs, and/or outputs. Thus, in the examples found in the foregoing/following disclosure, if an example includes or recites multiple modules, the example includes the possibility that the same hardware may implement more than one of the recited modules, either contemporaneously or at discrete times or timings. The implementation of multiple modules, whether using more components, fewer components, or the same number of components as the number of modules, is merely an implementation choice and does not generally affect the operation of the modules themselves. Accordingly, it should be understood that any recitation of multiple discrete modules in this disclosure includes implementations of those modules as any number of underlying components, including, but not limited to, a single component that reconfigures itself over time to carry out the functions of multiple modules, and/or multiple components that similarly reconfigure, and/or special purpose reconfigurable components.
In a general sense, those skilled in the art will recognize that the various embodiments described herein can be implemented, individually and/or collectively, by various types of electro-mechanical systems having a wide range of electrical components such as hardware, software (e.g., a high-level computer program serving as a hardware specification), firmware, and/or virtually any combination thereof, limited to patentable subject matter under 35 U.S.C. 101; and a wide range of components that may impart mechanical force or motion such as rigid bodies, spring or torsional bodies, hydraulics, electro-magnetically actuated devices, and/or virtually any combination thereof. Consequently, as used herein “electro-mechanical system” includes, but is not limited to, electrical circuitry operably coupled with a transducer (e.g., an actuator, a motor, a piezoelectric crystal, a Micro Electro Mechanical System (MEMS), etc.), electrical circuitry having at least one discrete electrical circuit, electrical circuitry having at least one integrated circuit, electrical circuitry having at least one application specific integrated circuit, electrical circuitry forming a general purpose computing device configured by a computer program (e.g., a general purpose computer configured by a computer program which at least partially carries out processes and/or devices described herein, or a microprocessor configured by a computer program which at least partially carries out processes and/or devices described herein), electrical circuitry forming a memory device (e.g., forms of memory (e.g., random access, flash, read only, etc.)), electrical circuitry forming a communications device (e.g., a modem, communications switch, optical-electrical equipment, etc.), and/or any non-electrical analog thereto, such as optical or other analogs (e.g., graphene based circuitry). Those skilled in the art will also appreciate that examples of electro-mechanical systems include but are not limited to a variety of consumer electronics systems, medical devices, as well as other systems such as motorized transport systems, factory automation systems, security systems, and/or communication/computing systems. Those skilled in the art will recognize that electro-mechanical as used herein is not necessarily limited to a system that has both electrical and mechanical actuation except as context may dictate otherwise. In a general sense, those skilled in the art will recognize that the various aspects described herein which can be implemented, individually and/or collectively, by a wide range of hardware, software (e.g., a high-level computer program serving as a hardware specification), firmware, and/or any combination thereof can be viewed as being composed of various types of “electrical circuitry.” Consequently, as used herein “electrical circuitry” includes, but is not limited to, electrical circuitry having at least one discrete electrical circuit, electrical circuitry having at least one integrated circuit, electrical circuitry having at least one application specific integrated circuit, electrical circuitry forming a general purpose computing device configured by a computer program (e.g., a general purpose computer configured by a computer program which at least partially carries out processes and/or devices described herein, or a microprocessor configured by a computer program which at least partially carries out processes and/or devices described herein), electrical circuitry forming a memory device (e.g., forms of memory (e.g., random access, flash, read only, etc.)), and/or electrical circuitry forming a communications device (e.g., a modem, communications switch, optical-electrical equipment, etc.). Those having skill in the art will recognize that the subject matter described herein may be implemented in an analog or digital fashion or some combination thereof.
Those skilled in the art will recognize that at least a portion of the devices and/or processes described herein can be integrated into an image processing system. Those having skill in the art will recognize that a typical image processing system generally includes one or more of a system unit housing, a video display device, memory such as volatile or non-volatile memory, processors such as microprocessors or digital signal processors, computational entities such as operating systems, drivers, applications programs, one or more interaction devices (e.g., a touch pad, a touch screen, an antenna, etc.), control systems including feedback loops and control motors (e.g., feedback for sensing lens position and/or velocity; control motors for moving/distorting lenses to give desired focuses). An image processing system may be implemented utilizing suitable commercially available components, such as those typically found in digital still systems and/or digital motion systems.
Those skilled in the art will recognize that at least a portion of the devices and/or processes described herein can be integrated into a data processing system. Those having skill in the art will recognize that a data processing system generally includes one or more of a system unit housing, a video display device, memory such as volatile or non-volatile memory, processors such as microprocessors or digital signal processors, computational entities such as operating systems, drivers, graphical user interfaces, and applications programs, one or more interaction devices (e.g., a touch pad, a touch screen, an antenna, etc.), and/or control systems including feedback loops and control motors (e.g., feedback for sensing position and/or velocity; control motors for moving and/or adjusting components and/or quantities). A data processing system may be implemented utilizing suitable commercially available components, such as those typically found in data computing/communication and/or network computing/communication systems.
Those skilled in the art will recognize that at least a portion of the devices and/or processes described herein can be integrated into a mote system. Those having skill in the art will recognize that a typical mote system generally includes one or more memories such as volatile or non-volatile memories, processors such as microprocessors or digital signal processors, computational entities such as operating systems, user interfaces, drivers, sensors, actuators, applications programs, one or more interaction devices (e.g., an antenna USB ports, acoustic ports, etc.), control systems including feedback loops and control motors (e.g., feedback for sensing or estimating position and/or velocity; control motors for moving and/or adjusting components and/or quantities). A mote system may be implemented utilizing suitable components, such as those found in mote computing/communication systems. Specific examples of such components entail such as Intel Corporation's and/or Crossbow Corporation's mote components and supporting hardware, software (e.g., a high-level computer program serving as a hardware specification), and/or firmware.
Those skilled in the art will recognize that it is common within the art to implement devices and/or processes and/or systems, and thereafter use engineering and/or other practices to integrate such implemented devices and/or processes and/or systems into more comprehensive devices and/or processes and/or systems. That is, at least a portion of the devices and/or processes and/or systems described herein can be integrated into other devices and/or processes and/or systems via a reasonable amount of experimentation. Those having skill in the art will recognize that examples of such other devices and/or processes and/or systems might include—as appropriate to context and application—all or part of devices and/or processes and/or systems of (a) an air conveyance (e.g., an airplane, rocket, helicopter, etc.), (b) a ground conveyance (e.g., a car, truck, locomotive, tank, armored personnel carrier, etc.), (c) a building (e.g., a home, warehouse, office, etc.), (d) an appliance (e.g., a refrigerator, a washing machine, a dryer, etc.), (e) a communications system (e.g., a networked system, a telephone system, a Voice over IP system, etc.), (f) a business entity (e.g., an Internet Service Provider (ISP) entity such as Comcast Cable, Qwest, Southwestern Bell, Verizon, AT&T, etc.), or (g) a wired/wireless services entity (e.g., Sprint, AT&T, Verizon, etc.), etc.
In certain cases, use of a system or method may occur in a territory even if components are located outside the territory. For example, in a distributed computing context, use of a distributed computing system may occur in a territory even though parts of the system may be located outside of the territory (e.g., relay, server, processor, signal-bearing medium, transmitting computer, receiving computer, etc. located outside the territory).
A sale of a system or method may likewise occur in a territory even if components of the system or method are located and/or used outside the territory. Further, implementation of at least part of a system for performing a method in one territory does not preclude use of the system in another territory.
All of the above U.S. patents, U.S. patent application publications, U.S. patent applications, foreign patents, foreign patent applications and non-patent publications referred to in this specification and/or listed in any Application Data Sheet, including but not limited to [insert list], are incorporated herein by reference, to the extent not inconsistent herewith.
One skilled in the art will recognize that the herein described components (e.g., operations), devices, objects, and the discussion accompanying them are used as examples for the sake of conceptual clarity and that various configuration modifications are contemplated. Consequently, as used herein, the specific exemplars set forth and the accompanying discussion are intended to be representative of their more general classes. In general, use of any specific exemplar is intended to be representative of its class, and the non-inclusion of specific components (e.g., operations), devices, and objects should not be taken limiting.
Although user XXX is shown/described herein as a single illustrated figure, those skilled in the art will appreciate that user XXX may be representative of a human user, a robotic user (e.g., computational entity), and/or substantially any combination thereof (e.g., a user may be assisted by one or more robotic agents) unless context dictates otherwise. Those skilled in the art will appreciate that, in general, the same may be said of “sender” and/or other entity-oriented terms as such terms are used herein unless context dictates otherwise.
With respect to the use of substantially any plural and/or singular terms herein, those having skill in the art can translate from the plural to the singular and/or from the singular to the plural as is appropriate to the context and/or application. The various singular/plural permutations are not expressly set forth herein for sake of clarity.
The herein described subject matter sometimes illustrates different components contained within, or connected with, different other components. It is to be understood that such depicted architectures are merely exemplary, and that in fact many other architectures may be implemented which achieve the same functionality. In a conceptual sense, any arrangement of components to achieve the same functionality is effectively “associated” such that the desired functionality is achieved. Hence, any two components herein combined to achieve a particular functionality can be seen as “associated with” each other such that the desired functionality is achieved, irrespective of architectures or intermedial components. Likewise, any two components so associated can also be viewed as being “operably connected”, or “operably coupled,” to each other to achieve the desired functionality, and any two components capable of being so associated can also be viewed as being “operably couplable,” to each other to achieve the desired functionality. Specific examples of operably couplable include but are not limited to physically mateable and/or physically interacting components, and/or wirelessly interactable, and/or wirelessly interacting components, and/or logically interacting, and/or logically interactable components.
In some instances, one or more components may be referred to herein as “configured to,” “configured by,” “configurable to,” “operable/operative to,” “adapted/adaptable,” “able to,” “conformable/conformed to,” etc. Those skilled in the art will recognize that such terms (e.g., “configured to”) generally encompass active-state components and/or inactive-state components and/or standby-state components, unless context requires otherwise.
For the purposes of this application, “cloud” computing may be understood as described in the cloud computing literature. For example, cloud computing may be methods and/or systems for the delivery of computational capacity and/or storage capacity as a service. The “cloud” may refer to one or more hardware and/or software (e.g., a high-level computer program serving as a hardware specification) components that deliver or assist in the delivery of computational and/or storage capacity, including, but not limited to, one or more of a client, an application, a platform, an infrastructure, and/or a server The cloud may refer to any of the hardware and/or software (e.g., a high-level computer program serving as a hardware specification) associated with a client, an application, a platform, an infrastructure, and/or a server. For example, cloud and cloud computing may refer to one or more of a computer, a processor, a storage medium, a router, a switch, a modem, a virtual machine (e.g., a virtual server), a data center, an operating system, a middleware, a firmware, a hardware back-end, an application back-end, and/or a programmed application. A cloud may refer to a private cloud, a public cloud, a hybrid cloud, and/or a community cloud. A cloud may be a shared pool of configurable computing resources, which may be public, private, semi-private, distributable, scaleable, flexible, temporary, virtual, and/or physical. A cloud or cloud service may be delivered over one or more types of network, e.g., a mobile communication network, and the Internet.
As used in this application, a cloud or a cloud service may include one or more of infrastructure-as-a-service (“IaaS”), platform-as-a-service (“PaaS”), software-as-a-service (“SaaS”), and/or desktop-as-a-service (“DaaS”). As a non-exclusive example, IaaS may include, e.g., one or more virtual server instantiations that may start, stop, access, and/or configure virtual servers and/or storage centers (e.g., providing one or more processors, storage space, and/or network resources on-demand, e.g., EMC and Rackspace). PaaS may include, e.g., one or more program, module, and/or development tools hosted on an infrastructure (e.g., a computing platform and/or a solution stack from which the client can create software-based interfaces and applications, e.g., Microsoft Azure). SaaS may include, e.g., software hosted by a service provider and accessible over a network (e.g., the software for the application and/or the data associated with that software application may be kept on the network, e.g., Google Apps, SalesForce). DaaS may include, e.g., providing desktop, applications, data, and/or services for the user over a network (e.g., providing a multi-application framework, the applications in the framework, the data associated with the applications, and/or services related to the applications and/or the data over the network, e.g., Citrix). The foregoing is intended to be exemplary of the types of systems and/or methods referred to in this application as “cloud” or “cloud computing” and should not be considered complete or exhaustive.
This application may make reference to one or more trademarks, e.g., a word, letter, symbol, or device adopted by one manufacturer or merchant and used to identify and/or distinguish his or her product from those of others. Trademark names used herein are set forth in such language that makes clear their identity, that distinguishes them from common descriptive nouns, that have fixed and definite meanings, or, in many if not all cases, are accompanied by other specific identification using terms not covered by trademark. In addition, trademark names used herein have meanings that are well-known and defined in the literature, or do not refer to products or compounds for which knowledge of one or more trade secrets is required in order to divine their meaning. All trademarks referenced in this application are the property of their respective owners, and the appearance of one or more trademarks in this application does not diminish or otherwise adversely affect the validity of the one or more trademarks. All trademarks, registered or unregistered, that appear in this application are assumed to include a proper trademark symbol, e.g., the circle R or bracketed capitalization (e.g., [trademark name]), even when such trademark symbol does not explicitly appear next to the trademark. To the extent a trademark is used in a descriptive manner to refer to a product or process, that trademark should be interpreted to represent the corresponding product or process as of the date of the filing of this patent application.
While particular aspects of the present subject matter described herein have been shown and described, it will be apparent to those skilled in the art that, based upon the teachings herein, changes and modifications may be made without departing from the subject matter described herein and its broader aspects and, therefore, the appended claims are to encompass within their scope all such changes and modifications as are within the true spirit and scope of the subject matter described herein. It will be understood by those within the art that, in general, terms used herein, and especially in the appended claims (e.g., bodies of the appended claims) are generally intended as “open” terms (e.g., the term “including” should be interpreted as “including but not limited to,” the term “having” should be interpreted as “having at least,” the term “includes” should be interpreted as “includes but is not limited to,” etc.). It will be further understood by those within the art that if a specific number of an introduced claim recitation is intended, such an intent will be explicitly recited in the claim, and in the absence of such recitation no such intent is present. For example, as an aid to understanding, the following appended claims may contain usage of the introductory phrases “at least one” and “one or more” to introduce claim recitations. However, the use of such phrases should not be construed to imply that the introduction of a claim recitation by the indefinite articles “a” or “an” limits any particular claim containing such introduced claim recitation to claims containing only one such recitation, even when the same claim includes the introductory phrases “one or more” or “at least one” and indefinite articles such as “a” or “an” (e.g., “a” and/or “an” should typically be interpreted to mean “at least one” or “one or more”); the same holds true for the use of definite articles used to introduce claim recitations. In addition, even if a specific number of an introduced claim recitation is explicitly recited, those skilled in the art will recognize that such recitation should typically be interpreted to mean at least the recited number (e.g., the bare recitation of “two recitations,” without other modifiers, typically means at least two recitations, or two or more recitations). Furthermore, in those instances where a convention analogous to “at least one of A, B, and C, etc.” is used, in general such a construction is intended in the sense one having skill in the art would understand the convention (e.g., “a system having at least one of A, B, and C” would include but not be limited to systems that have A alone, B alone, C alone, A and B together, A and C together, B and C together, and/or A, B, and C together, etc.). In those instances where a convention analogous to “at least one of A, B, or C, etc.” is used, in general such a construction is intended in the sense one having skill in the art would understand the convention (e.g., “a system having at least one of A, B, or C” would include but not be limited to systems that have A alone, B alone, C alone, A and B together, A and C together, B and C together, and/or A, B, and C together, etc.). It will be further understood by those within the art that typically a disjunctive word and/or phrase presenting two or more alternative terms, whether in the description, claims, or drawings, should be understood to contemplate the possibilities of including one of the terms, either of the terms, or both terms unless context dictates otherwise. For example, the phrase “A or B” will be typically understood to include the possibilities of “A” or “B” or “A and B.”
With respect to the appended claims, those skilled in the art will appreciate that recited operations therein may generally be performed in any order. Also, although various operational flows are presented in a sequence(s), it should be understood that the various operations may be performed in other orders than those which are illustrated, or may be performed concurrently. Examples of such alternate orderings may include overlapping, interleaved, interrupted, reordered, incremental, preparatory, supplemental, simultaneous, reverse, or other variant orderings, unless context dictates otherwise. Furthermore, terms like “responsive to,” “related to,” or other past-tense adjectives are generally not intended to exclude such variants, unless context dictates otherwise.
As depicted in FIG. 1 , a quantified-self information system regarding quantified-self information and data such as human bio-info/data and animal bio-info/data includes human bio-info/data devices (wearable) 112 , human bio-info/data devices (non-wearable) 116 , animal bio-info/data devices (wearable) 120 , animal bio-info/data (non-wearable) 124 , human food fabricators 128 , animal feed fabricators 132 , big-info/data analytics system 136 , human food ingredient supplier systems 142 , and animal feed ingredient supplier systems 146 electronically communicatively linked together for information and data collection, analysis and operational guidance thereby, and other interrelated functionality therebetween.
The human bio-info/data device (wearable) 112 can include the following. The human bio-info/data device (wearable) 112 can collect biological and other data non-invasively, invasively, other sample collection, etc. regarding human device wearer such as regarding physiological status involving molecular, chemical, analytes, electrolytes, cellular, tissue, organ, systems (e.g., skeletal, muscular, immune, lymphatic, cardiovascular, urinary, digestive, respiratory, nervous, endocrine, reproductive, integumentary, etc.), functional (e.g., sleeping, walking, running, sitting, posture, standing, squatting, lifting, speaking, listening, seeing, driving, eliminating, reacting, ambulating, thinking, location, etc.), electrical, disease (e.g., past, present, potential, etc.), mechanical (structural, movement, sports, recreation, etc.), and other related status.
The human bio-info/data device (wearable) 112 can be worn on wrist (e.g., band, wristwatch), hand (e.g., glove), finger (e.g., ring), arm (e.g., band), leg (e.g., strap), foot (e.g., sock, shoe, boot), waist (e.g., band, belt), neck (e.g., necklace), head (e.g., band), ear (e.g., ring), eye (e.g., eyewear), on elsewhere on body (e.g., clothing), etc. The human bio-info/data device (wearable) 112 can communicate with human wearer, other human bio-info/data devices (e.g., wearable or non-wearable), food fabricator, big-data analytics system, food ingredient supplier, etc.
The human bio-info/data device (wearable) 112 can include for example subscription services (health, food, cooking, etc.) sell device and applications thru home or kiosk food fabricator networks, device and applications sold by manufacturers of food fabricator or medical-health-sports providers-manufacturers (e.g., 3 D Systems, Natural Machines, Whirlpool, KitchenAid, Miele, medical and health clinics, General Electric, Polar, Nintendo, Samsung, etc.).
The human bio-info/data device (non-wearable) 116 can include the following. The human bio-info/data device (non-wearable) 116 can collect biological and other data non-invasively, invasively, other sample collection, etc. regarding one or more associated humans such as regarding physiological status involving molecular, chemical, analytes, electrolytes, cellular, tissue, organ, systems (e.g., skeletal, muscular, immune, lymphatic, cardiovascular, urinary, digestive, respiratory, nervous, endocrine, reproductive, integumentary, etc.), functional (e.g., sleeping, eating, walking, running, sitting, posture, standing, squatting, lifting, speaking, listening, seeing, driving, eliminating, reacting, ambulating, thinking, location, etc.), electrical, disease (e.g., past, present, potential, etc.), mechanical (structural, movement, sports, recreation, etc.), and other related status.
The human bio-info/data device (non-wearable) 116 can be part of a room located in proximity of human (e.g., structural room member, room fixture, room accessory, door component, etc.), or adjacent or occasionally in contact (e.g., sink, toilet, chair, table, desk, exercise equipment, computer, keyboard, mouse, monitor, pen, steering wheel, tableware, personal care items, luggage, phone, cameras, notebooks, tablets, robot, drone, etc.). The human bio-info/data device (non-wearable) 116 can communicate with human, other human bio-info/data devices (e.g., wearable or non-wearable), food fabricator, big-data analytics system, food ingredient supplier, etc.
The human bio-info/data device (non-wearable) 116 for example subscription services (health, food, cooking, etc.) sell device and applications thru home or kiosk food fabricator networks, device and applications sold by manufacturers of food fabricator, or medical-health-sports providers-manufacturers (e.g., 3 D Systems, Natural Machines, Whirlpool, KitchenAid, Miele, medical or health clinics, General Electric, Polar, Nintendo, Samsung, etc.).
Further aspects regarding the wearable and non-wearable human bio-info/data devices can include collecting information or data related to food preferences such as texture, color, or taste such as sweet, sour, salty, or other taste sensations. Such collected information or data can in a sense profile a particular individual as far as how the individual reacts to various foods and other indigestible materials from a psychological, physiological, sensory, or other aspects. This type of profiling can then be used in order to tailor the various food and other indigestible materials for the individual. For instance, the profiling information can be used to tune macronutrient, micronutrient, bacterial or other content of food in real time regarding various activity levels of the individual. These activity levels can be related to environmental conditions such as weather conditions, location in various architectures or other locations, or various activity goals. Such activities can involve educational pursuits, vocational activities, sports events, or other varied activities.
The human bio-info/data can also include other aspects besides that which is physiologically related such as location data. Location data can be matched with location of other humans or location of various occurrences of activity in which performance or habit patterns of an individual can be assessed. For instance, performance or habit patterns related to parenting can be determined such as how much time is spent with a child regarding certain activities. These activities can include eating, educational events, sports or entertainment events, etc. This human-bio info/data can then be analyzed statistically or otherwise to determine rankings or other assessments related to parenting.
Other human bio-info/data can include recorded observations by one or more individual humans regarding preferences or dislikes associated with activities, habits, food choices, associations, better aspects associated with one or more individual humans etc. For instance, an individual may express a desire to be like another individual in terms of physical fitness, general overall appearance, mental acuity, or other such admirable traits. The human bio-info/data as recorded observations can be used real-time or later on to assist in food selection for the individual. These recorded observations can be also incorporated into other goals such as having diet constraints, physiological requirements, etc. These observations can also be directed to other humans such as a parent desiring their child to eat in a certain manner or to have certain food items or to avoid other food items. These observations can then be used for determining what food to provide to the child in certain instances such as at school or a sporting event. Observations obtained from the child as to likes and dislikes and observations obtained from the parent as to health, physiological, illness management, and other parental goals can then be combined to determine or optimize various choices available. This approach can allow for implementation of desires and goals of both parent and child in a peaceable manner.
Other human bio-info/data can include activity parameters involving measurement of quality or quality of various activities performed. For instance, these activities could include instructional activities at school having to do with concentration levels, amount of involvement, degree of insight and expression, work capacity, interest level, level a distraction, ingenuity, leadership, and other factors related to a learning environment. These sorts of factors can also be measured or otherwise observed as human bio-info/data in other environments such as a workplace, a home environment, an entertainment environment, or other such environments or locations. For instance in a home environment, bio-info/data could be related to communication levels, cooperation levels, interest levels, selfishness levels, etc. of one or more household members either individually or collectively. Information or data content can be extracted from visual, audio, location, or other data to various recognition schemes, statistical analysis, etc. Behavioral profiles can be then establish their individual members or collection of members and compared with normative standards. These sorts of determinations can also be applicable to other environments such as workplace, entertainment, etc.
Various human bio-info/data devices can be set up in a local or wide area network anywhere within a particular architectural structure or across the Internet. By networking the human bio-info/data devices together they can be working in a synergistic approach in which human bio-info/data collected by one device can be shared with other devices so that complementary human bio-info/data can be collected by the various device members of the networked team of devices. This arrangement can be conducive for such desires is testing hypotheses in which human bio-info/data collected by a set of one or more first devices can then be fed and with other bio-info/data collected by us set of one or more second devices. For instance, human bio-info/data devices could be located in refrigerators, food fabricators or printers, stoves, microwave ovens, conventional ovens, convection ovens, cook tops, sinks, dishwashers, wearable devices, food utensils, eating area furniture, kitchen sinks, bathroom equipment including sinks, showers, bathtubs, and toilets, and other structures, equipment, etc. related to an individual's living environments such as office furniture, bedroom furniture, etc.
Human bio-info/data devices can include Google glasses, smart watches, mobile devices such as iPhone, smart phones, handsets, Android phones, tablets, phablets, laptops, personal devices, smart earpieces, electronically enabled clothing, made by Apple, Samsung, Google, etc. Human-info/data devices can be formed as non-reconfigurable hardware devices or can be programmable devices to receive programming related to human bio-info/data functionality. Functionality can also be incorporated into operating systems such as Android OS or the Apple OS. Other form factors can include sports equipment and other such athletic gear. For instance, skis with various sensors to determine quantity and quality of athletic output by a skier over a course of a day or season could be used as another sort of bio-info/data device. Another example could include sensors integrated with bicycles, hiking gear, sports balls, and other athletic equipment. What are more of these human bio-info/databases can be branded under various corporate marketing or other programs which furnish one or more portions of generic or hardware specific programming or other instruction sets related to functionality in collecting or analyzing bio-info/data such as through food suppliers, big-data analytics, food fabricator system providers, or device makers. Branding can include subscription services to information such as updated recipes, life-style adjustment, or other aspects related to quantified life interests, etc.
Human bio-info/data devices can include sophisticated data collection instruments such as nuclear magnetic resonance equipment including NMR rings to determine such as molecular markers. Human bio-info/data devices can be used to collect other quantified-self information and data to be used in turn by human food fabricators, big-data analytics, and human food supply systems. For instance, human bio-info/data can be collected regarding home life including dialogue between spouses, parents and children, siblings, other relatives, visitors, guests, etc. Dialogue can be analyzed for emotional, intellectual, psychological, physiological, behavioral, normative, aberrant, and other content, etc., assessing performance relative to peers, normative behavior, outside of normative behavior, spouse, other norms, children relative to other children, relative to other parents, etc. Scenarios can include percentage of emotionally heated dialogue to train parents and children relative to norms or other statistical patterns, whether homework atmosphere is conducive for substantive production, accounting and other financial data associated with household expenditures, stress levels, health levels, etc., driving habits as recorded by vehicle instrumentation, quantity, quality, scheduling, etc. of exercise regimens, etc. Quantified-self or human bio-info/data measurements and information can also be used to identify interests, desires, or dislikes regarding activities, environments are other aspects mentioned herein using quantified scoring or other reporting techniques. Other scenarios can include assessing reading level and suggesting appropriate materials to be read. Other reading data could include number of words read to children on a daily, weekly, monthly, annual, etc. basis.
Human bio-info/data or quantified-self data can tie performance levels with ingestion of food and other materials. For instance, ingestion of various sugars such as fructose, dextrose, sucrose, or other combinations thereof can affect ability to lose adipose tissue, maintain energy and endurance levels, and other factors of performance including intellectual performance and work-product production. Types of fats included in the diet such as amount of omega-three, omega-six, and the ratios thereof and also including DHA, EPA, trans-fats, or arachadonic acid, saturated fats, polyunsaturated fats, monounsaturated fats, or other fats can also affect performance levels including intellectual ability. Various contaminants such as lectins, and phytic acid as found in grains, beans, seeds, nuts, tubers, etc. can detrimentally affect mineral absorption along with other biochemical activities further impacting performance and health levels. Protein quality including issues related to denaturation of amino acids can affect absorbability and digestion efficacy. These and other factors can be tracked as bio-info/data and integrated into systems using bio-info/data devices, food fabricators, egg-data analytics, and food supplier systems to assist users with optimizing goals and performance levels.
Human bio-info/data regarding educational environments can include how many times did a child speak to a teacher, activity levels for various endeavors such as athletics, classroom participation, extracurricular activities, study hall, etc. Bio-info/data regarding educational environments can include other quantified-self info/data such as amount of bullying experienced, amount of positive social interaction with other students during a school week, amount and type of food eaten during lunchtime, and comparisons of this and other data with statistical groupings such as averages, means, etc. such as locally, regionally, nationally, etc.
Quantified-self info/data as human bio-info/data can include that involving self-improvement, efficiency, or other measurements in various environments requiring performance such as workplace, home, athletics, education, etc. Quantity and quality of work-product through use of text-based, speech-based, pattern recognition, brainwave pattern tracking, measurement sensors attached to equipment, and other instruments such as musical instruments, etc. or other sorts of analysis can be implemented. Efficiency measures can be used to track duration, time on task, output level profiles, rest break profiles, etc. For instance, measures such as time using twitter, typing, talking on phone, etc. can be compared with other activities. These efficiency measures and other data can be related to degree of difficulty of the task at hand. Other bio-info/data can include measurements related to habits or traits targeted for acquisition, improvement, decrease, or elimination. Such habits or traits can relate to diet, physical exercise, skill practice sessions including intellectual, physical, musical, artistic, athletic, social, communication, educational, governmental, and other skills. Objective measures related to work and include time spent consuming recreational media, time spent on social networks, time spent on personal phone, etc. and can be compared to coworkers or expectation by company managers and graphical display of comparisons or issues flagged about level of engagement with work compared with thresholds. Other quantified-self or bio-info/data can include other objective measures of activities related to life including trips outside the home, meal and snack patterns, social contacts, activity patterns, etc. as compared to specified others or standardized norms. Results can be displayed changes can be recommended based on goals, therapies, norms, etc., such as for instance, recommendations of more trips for depressed individuals, less eating for the abuse, more social contacts for those with few social contacts, alerts regarding activity levels indicating possible individual addiction, etc.
Quantified-self info/data or otherwise human bio-info/data can be linked with systems such as big-data analytics or personal analytics in various user interfaces including visual, audio, tactile, and other such user interfaces to provide feedback, incentives, and further encouragement in behavioral modification on an individual, group, corporate, or other basis. Users or others can identify which types of information or data should be tracked, assessed, or otherwise processed. For instance, users may specify desires to be more effective in interacting with others, gaining experiences, skills, production goals, etc. Such systems can be directed for manipulation of behavior associated with diet such as increasing or decreasing intake of various foods, adopting habit patterns involving exercise duration, quantity, quality, type, etc., associating with other individuals or groups with common goals or desires, etc. adopting or shunning various mannerisms and expression such as volume level, word choice, content of speech, signals of irritation, abrasive content, or other methods of expression. Computer use can be tracked as well regarding type of use, duration, rest breaks, etc. Quality of family life such as time spent together in various activities. Personality traits of individuals and groups can also be identified through statistical and other analysis of such data to be used for planning and other purposes.
Human bio-info/data or otherwise quantified-self info/data can include shopping activities related to food acquisition, exposure to toxins, dietary goals such as amount of desired food items to be ingested over a period of time, recording itinerary or other travel routes taken between or within stores such as grocery stores, department stores, discount stores, etc., or shopping through other means such as Internet-based purchasing on various websites. Collection of such information can also be further encouraged through discounting cost of various items or other incentives.
Human bio-info/data or quantified-self info/data can be used to acquire objective measurements and other assessments related to the various activities of parenting. For instance, regarding tummy time, theories include that infants should be spending a certain amount of time every day on their stomach for instance 30 minutes a day or as recommended by a physician. A system integrated with such human bio-info data could provide three user interfaces various alerts and other parenting information for instance, if tummy time is below recommended thresholds. Measurements regarding the spoken word from parents can be used to alert, train, or otherwise inform parents of their performance levels. Infants or small children could be assigned target words that parents are to speak to a child at certain times or throughout the day. Such performance can be them monitored such as through daily, local, national averages are other statistical measures to assess relative performance levels.
Quantified-self bio-info/data for parenting and other activities can also include measurements related to book reading such as particular types, subject areas, quantity, quality, amount of time spent on a daily, weekly, monthly, etc. basis, reading level for grade or age with comparisons regarding such measures statistically or otherwise on various local to national, etc. levels. Another measurement can include amount of eye contact through neurotypical metrics or neurotypical eye contacts. Such human bio-info/databases as Google glasses, or other glasses that can measure eye contact can be used, or other devices such as facial analyzers can be used as human bio-info/data devices. Feedback can be provided to users with a variety of intelligence levels to increase cooperation among themselves or for other training purposes.
Other parenting applications for quantified-self info/data or otherwise human bio-info/data can involve monitor, screen, television, movie, or other media displays. For instance, parental goals could include limiting amounts at which their children spend such time. Various parental controls can also involve content monitoring, encrypted logging of activity, content ratings for objectionable material including levels, degrees, intensity, etc. of violence, pornography, vulgarity, wantonness, shock effect, social aberration, instilling of fear, etc. Other factors can include viewing location in relation to proximity of display, etc.
Human bio-info/data can also include metrics related to sleep quantity, quality, etc. These measurements can be compared with various norms to ascertain, classify, etc. sleep patterns for children. For instance, a child starts to get sleepy at 7 PM and has a period of light sleep around 11 PM. Through use of a system integrated such as with big-data analytics and human bio-info data this and other behavior can be compared or classified to inform parents of any concerns to be noted. Insights derived from this analysis can also be used to tailor calendars or otherwise schedule activities of the children based on their particular sleep-wake patterns occur throughout the day and night rather than merely relying on expected norms of behavior. This tailoring approach could also be applied directly with educational institutions such as advanced or progressive grade school or higher levels schools.
Parental use of human bio-info data can also include potty training where parents can track toileting successes of their children over a period of time. Such success training can be used for motivational purposes for the children or to provide feedback to the parents regarding their skills in training their children. Objective measures of success can include amount of accidents over a period of time with a trend toward gradual reduction indicating success. Comparison with training profiles of other children can help parents determine if there are concerns to be had.
Analysis of parenting performance can further include comparison of objective measures involving other parents similarly situated regarding location such as city, state, nation, etc., parental life-style including whether both spouses work outside the home, amount and type of social network friends, rankings regarding top ten percent or top quartile, etc. Further comparisons include objective measurements those of others same school, citywide, statewide, nationwide, worldwide, social network-wide with analysis or other outcomes reported to parents, teachers, others in authority, etc. and can include such as recommendations for suitable responses.
The animal bio-info/data device (wearable) 120 can include the following. The animal bio-info/data device (wearable) 120 can collect biological and other data non-invasively, invasively, other sample collection, etc. regarding animal device wearer such as regarding physiological status involving molecular, chemical, analytes, electrolytes, cellular, tissue, organ, systems (e.g., skeletal, muscular, immune, lymphatic, cardiovascular, urinary, digestive, respiratory, nervous, endocrine, reproductive, integumentary, etc.), functional (e.g., sleeping, eating, ambulating, non-ambulatory postures, emitting sounds, listening, seeing, eliminating, reacting, location, etc.), electrical, disease (e.g., past, present, potential, etc.), mechanical (structural, movement, etc.), and other related status.
The animal bio-info/data device (wearable) 120 can be worn on animal by collar, vest, strap, mask, blinder, blanket, harness, piercing, branding, hood, shoeing, tagging, clothing, band, belt, etc. The animal bio-info/data device (wearable) 120 can communicate with human owner, manager, attendant, other animal bio-info/data devices (e.g., wearable or non-wearable), feed fabricator, big-data analytics system, food ingredient supplier, etc.
The animal bio-info/data device (wearable) 120 can include for example subscription services (health, food, cooking, etc.) sell device and applications thru home or kiosk food fabricator networks, device and applications sold by manufacturers of food fabricator or medical-health-sports providers-equipment manufacturers (e.g., 3 D Systems, Natural Machines, Cargill, Massey Ferguson, John Deere, livestock or pet veterinary clinics or pet feed stores, General Electric, Polar, Nintendo, Samsung, etc.).
The animal bio-info/data device (non-wearable) 124 can include the following. The animal bio-info/data device (non-wearable) 124 can collect biological and other data non-invasively, invasively, other sample collection, etc. regarding one or more associated animals such as regarding physiological status involving molecular, chemical, analytes, electrolytes, cellular, tissue, organ, systems (e.g., skeletal, muscular, immune, lymphatic, cardiovascular, urinary, digestive, respiratory, nervous, endocrine, reproductive, integumentary, etc.), functional (e.g., sleeping, eating, ambulating, non-ambulatory postures, emitting sounds, listening, seeing, eliminating, reacting, location, etc.), electrical, disease (e.g., past, present, potential, etc.), mechanical (structural, movement, etc.), and other related status.
The animal bio-info/data device (non-wearable) 124 can be part of an enclosure, fence, barn, pen, etc. located in proximity of animal (e.g., structural member, fixture, accessory, gate component, etc.), or adjacent or occasionally in contact (e.g., stall, trough, chute, floor, trailer, cage, water container, sewage system, etc.). The animal bio-info/data device (non-wearable) 124 can communicate with human owner, manager, attendant, other human bio-info/data devices (e.g., wearable or non-wearable), food fabricator, big-data analytics system, food ingredient supplier, etc.
The animal bio-info/data device (non-wearable) 124 can for example subscription services (livestock management, pet care, etc.) sell device and applications thru farm, home, or kiosk feed fabricator networks, device and applications sold by manufacturers of feed fabricator, or veterinary-health-production management providers-manufacturers (e.g., 3 D Systems, Natural Machines, Cargill, Massey Ferguson, John Deere, livestock or pet veterinary clinics or pet feed stores, General Electric, Polar, Nintendo, Samsung, etc.).
Further aspects regarding the wearable and non-wearable animal bio-info/data devices can include collecting information or data related to feed preferences of the animals such as texture, color, or taste such as sweet, sour, salty, or other taste sensations. Such collected information or data can in a sense profile a particular individual animal as far as how the individual animal reacts to various foods and other indigestible materials from a psychological, physiological, sensory, or other aspects. This type of profiling can then be used in order to tailor the various food and other indigestible materials for the individual animal. For instance, the profiling information can be used to tune macronutrient, micronutrient, bacterial or other content of feed in real time regarding various activity levels of the individual animal. These activity levels can be related to environmental conditions such as weather conditions, location in various architectures, such as barns or pens, or other locations, or various activity goals. Such activities can involve grazing in pasture, being controlled in pens, involving slaughter time regarding the fat or protein content, or other activities requiring more or less energy levels of the individual animal.
The bio-info/data can also include other aspects besides that which is physiologically related such as location data. Location data can be matched with location of other humans or location of various occurrences of activity in which performance or habit patterns of an individual can be assessed. For instance, performance or habit patterns related to parenting can be determined such as how much time is spent with a child regarding certain activities. These activities can include eating, educational events, sports or entertainment events, etc.
The human food fabricator 128 can include the following. The human food fabricator 128 can produce food and other edible materials such as bacteria through such as assembly, printing, sputtering, ablation, deposition, spraying, injection, mixing, combining, hydrating, dehydrating, applying energy, removing energy, etc. and other functional aspects from instructions pertaining to bio-info/data collected, big-data analytics, instructions received, exemplars referenced.
The human food fabricator 128 can send instructions and other information to human bio-info/data devices to collect bio-info/data based on testing protocols, hypothesis testing, user, service-provider, or organization inquiry or direction. The human food fabricator 128 can receive instructions from user, service-provider, organization, big-data/info analytics system with reference to past, present, and/or anticipated requirements for edible materials as related to expressed desires and/or bio-info/data received from bio-info/data devices. The human food fabricator 128 can be incorporated into such as kitchen, break room, vending area, restaurant, mobile platform, etc. as small counter-top unit or large kiosk unit.
The human food fabricator 128 can communicate with human, bio-info/data devices (e.g., wearable or non-wearable), food fabricator, big-data analytics system, food ingredient supplier, etc. The human food fabricator 128 can include for example subscription services (health, food, cooking, etc.) sell fabricator and applications thereof thru consumer and commercial markets, fabricator manufacturers, or medical-health-sports providers-manufacturers (e.g., 3 D Systems, Natural Machines, Whirlpool, KitchenAid, Miele, medical or health clinics, General Electric, Polar, Nintendo, Samsung, etc.).
Human food fabricator can be used independently or in combination with communicating with human bio-info/data devices, big-data analytics, or human food supply systems to test hypotheses regarding combination of ingredients that may solve a problem, induce a condition, relieve a symptom, or otherwise achieve an expressed or unexpressed goal. Hypotheses testing can be achieved through adjustment of various ingredient levels of food or other ingested materials over a period of time sufficient to produce a variety of samples having different combinations of the varying ingredients.
Human food fabricator can be used to determine what food or other ingested material to provide to the user based upon received human bio-info/data, direction or information from big-data analytics, or information or data from human food supply system. By doing so, it may be possible for the human food fabricator to provide desired materials to the user without the user having to input much or any explicit information to the human food fabricator. Human food fabricator can be formed to include non-reconfigurable hardware or can be programmable to receive programming related to human food fabrication functionality. Such functionality can also be incorporated into operating systems such as Android OS or Apple OS.
Human food fabricators can be communicatively linked to human bio-info/data devices to collect status from humans before they human food fabricators are used for instance as utilized in pre-production staging. As an example, as a user approaches a human food fabricator, one or more human bio-info/data devices worn by the user can communicate to the human food fabricator various bio-info/data status such as blood sugar levels, last time food or beverage was consumed, past or planned activity levels, hormone levels, etc. to provide additional context in determining optimal production of food and other ingested materials to provide to the user.
Kiosk-style dispensing machines having relatively small footprint ranging in size such as countertop units to larger floor model vending machines can incorporate human food fabricators and other communication systems linked to human bio-info/data devices, big-data analytics, and human food supply systems. Kiosk-style dispensing machines can include aspects of the human food fabricators as well as further communication and bio-info/data functionality to provide fuller service regarding selection and purchasing options for users. Kiosk-style dispensing machines as network together can provide overall bio-info/data collection for a user or group of users for such functions as tracking participation in various activities and events. For instance, as further described below kiosk-style dispensing machines can be located at educational, business, entertainment, shopping, institutional, and other locations for activities in advance such that use of the kiosk-dispensing machines will indicate participation by the users in certain activities and events related to these locations. Food chains such as McDonald's or Burger King, or other food distribution chains, or vending chains such as Red Box or Coinstar could locate kiosk-style dispensing machines in numerous varied locations some of which are depicted in FIG. 1-K to include location such as marketplaces, sports arenas, theaters, schools, office buildings, and hospitals. Other locations are depicted in FIG. 1-N to include sidewalks, public parks, restaurants, public buildings, air-travel facilities, and food courts. These locations are exemplary so or not limiting as far as other possibilities for positioning kiosk-style dispensing machines.
For instance, on aircraft of an airline, passengers may send quantified-self bio-info/data to communication system located on the plane integrated with one or more kiosk-style dispensing machines containing food fabricators. Such quantified-self bio-info/data can then be used by the fabricators on the aircraft to be incorporated in production or otherwise dispensing of food and other ingested materials as tailored to the passenger requirements and desires. For instance, passengers would particular health requirements such as levels of salt, sugar, mineral, fat, protein, carbohydrate, micronutrients, macronutrients, etc. can receive tailored food and other ingested materials accordingly. Status of other passengers such as stress levels, hunger levels, past, present, or future activities, etc. can also be used to formulate tailored food and other ingested materials for the passengers. In certain circumstances enough information and data can be collected by fabricator systems on the plane so that it may be possible for the passengers to receive food or other ingested materials without having to directly communicate with airline attendants yet the passengers can receive what they require or desire.
Travel facilities could include airports, train stations, bus stations, ocean liner ports, transit stations, and other facilities. Kiosk-style dispensing machines could also be located on the vehicles themselves including airplanes, trains, buses, ocean liners, transit vehicles, and other vehicles, etc.
Kiosk-style dispensing machines can combine fabricator aspects with being a waypoint for big-data analytics, food supplier systems, and bio-info/data quantified-self data acquisition in order to receive quantified-self bio-info/data, analytics, and supply information to assist in determining various food and other ingested materials to produce, arrange or otherwise furnish. Kiosk-style dispensing machines can also provide production or other use data to human bio-info/data devices, big-data analytics, or food supply systems for their use and analysis. For instance, kiosk-style dispensing machines having received bio-info/data indicating that the user has a certain health condition may note in the user's record that the kiosk-style dispensing machine provided food or other ingested materials in compliance with were not in compliance with recommendations for such health condition.
For instance, large food chains such as McDonald's or Burger King could use kiosk-style dispensing machines to collect quantified-self bio-info/data in the process of fabricating or otherwise providing food and ingested materials through the branded kiosk-style dispensing machines. The quantified-self bio-info/data could involve health, physiology, life-style, family life, occupational data, educational data, etc. of the one or more users. Such information and data can then be fed into the food chain network, big-data analytics, supply chain systems, information vendors, health systems, etc. Analytics could be analyzing such information and data, for instance, such as frequency of visits, amount of time spent with others such as children and parents in locations of kiosk-style dispensing machines, participation in activities and events such as sports, movies, recreational parks, educational center such as libraries, etc. Kiosk-style dispensing machines in this and other approaches can then be viewed as related to family life-style, occupational pursuits, entertainment and recreational interests, and other areas. Kiosk-style dispensing machines located in educational institutions such as schools could afford students a wide variety of selection of food and other ingested materials as provided with constraints and other factors related to interests of the students and those related such as parents, health providers, educators, school board members, etc. Kiosk-style dispensing machines could be integrated with other facilities, locations, event centers, activity areas, etc. to help track user or customer activity. For instance, kiosk-style dispensing machines could be tied in with social networks or other social networking systems as related to comments of others such as friends, relatives, observers, and others accessing the social networks or other social networking systems. With this and other approaches kiosk-style dispensing machines and their networks thereof and other systems and networks can be used in a universe of overlapping functionality and collection of data and information through word analysis, comment recognition. For instance comments from friends can be quantified as quantified-self bio-info/data, for instance, on how well a person is doing in a particular area of pursuit such as improvement in health, sociability, educational pursuits, social presence, occupational goals, etc. including positive improvement or setbacks.
The animal feed fabricator 132 can include the following. The animal feed fabricator 132 can produce feed and other edible materials such as bacteria through such as assembly, printing, sputtering, ablation, deposition, spraying, injection, mixing, combining, hydrating, dehydrating, applying energy, removing energy, etc. and other functional aspects from instructions pertaining to bio-info/data collected, big-data analytics, instructions received, exemplars referenced.
The animal feed fabricator 132 can send instructions and other information to animal bio-info/data devices to collect bio-info/data based on testing protocols, hypothesis testing, user, service-provider, or organization inquiry or direction. The animal feed fabricator 132 can receive and generate instructions for edible material production from user, service-provider, organization, big-data/info analytics system with reference to past, present, and/or anticipated requirements for edible materials as related to expressed desires and/or bio-info/data received from bio-info/data devices.
The animal feed fabricator 132 can be incorporated into such as feed areas, pens, troughs, barns, stalls, feed assemblies, home units sized for requirement of small or large animals. The animal feed fabricator 132 can communicate with human, bio-info/data devices (e.g., wearable or non-wearable), big-info/data analytics system, feed ingredient supplier, etc.
The animal feed fabricator 132 can include for example subscription services (livestock management, pet care, etc.) sell fabricator and applications thru farm, home, or kiosk feed fabricator networks, device and applications sold by manufacturers of feed fabricator, or veterinary-health-production management providers-manufacturers (e.g., 3 D Systems, Natural Machines, Cargill, Massey Ferguson, John Deere, livestock or pet veterinary clinics or pet feed stores, General Electric, Polar, Nintendo, Samsung, etc.).
Animal feed fabricator can be used independently or in combination with communicating with animal bio-info/data devices, big-data analytics, or animal feed supply systems to test hypotheses regarding combination of ingredients that may solve a problem, induce a condition, relieve a symptom, or otherwise achieve an expressed or unexpressed goal. Hypotheses testing can be achieved through adjustment of various ingredient levels of feed or other ingested materials over a period of time sufficient to produce a variety of samples having different combinations of the varying ingredients.
Animal feed fabricator can be used to determine what feed or other ingested material to provide to an animal based upon received animal bio-info/data, direction or information from big-data analytics, or information or data from animal food supply system. By doing so, it may be possible for the animal food fabricator to provide desired materials to the animal with little or no intervention required by human. Animal feed fabricators can take the form of feed printers or can take other forms such as assemblers, combiners, mixers, etc. Feed furnished by animal feed fabricators can be tailored toward either pet markets such as PetSmart or livestock involved with agribusiness industries such as ConAgra. In either case, the feed can be tailored by the animal feed fabricator regarding micronutrients, macronutrients, bacterial content, and other ingredients for goals such as activity levels in which the animal is to his stay in a stationary position for lengthy periods of time, or is to be fully animated, for instance, in order to transport itself from one location to another.
The big-info/data analytics system 136 can include the following. The big-info/data analytics system 136 can receive analysis instructions from user, service-provider, organization, bio-data/info devices, fabricators with reference to past, present, and/or anticipated requirements for edible materials as related to expressed desires and/or bio-info/data received from bio-info/data devices.
The big-info/data analytics system 136 can run statistical, probabilistic, or other models on bio-info/data collected by bio-info/data device(s) and expressed desires with reference to past, present, and/or anticipated edible materials requirements to determine patterns, options, or other desirable outcomes for instructing production of material by fabricator(s) or further collection of bio-info/data by device(s). The big-info/data analytics system 136 can send instructions and other information to human or animal bio-info/data devices to collect bio-info/data based on testing protocols, hypothesis testing, user, service-provider, or organization inquiry or direction, and results of analytics system analysis.
The big-info/data analytics system 136 can communicate with humans, bio-info/data devices, fabricators, food ingredient suppliers, feed ingredient suppliers, etc. The big-info/data analytics system 136 can include for example subscription services (per human or animal interests) sell cloud-based analysis time, application downloads, etc. thru consumer and commercial markets, device and/or fabricator manufacturers, or medical-health-sports-veterinary-pet providers or equipment manufacturers (e.g., 3 D Systems, Natural Machines, Whirlpool, KitchenAid, Miele, medical or health clinics, General Electric, Polar, Nintendo, Samsung, Cargill, Massey Ferguson, John Deere, livestock or pet veterinary clinics or pet feed stores, etc.).
Big-data analytics such as for special-purpose as provided by such companies as IBM, Microsoft, Amazon, SAP, Oracle, cloud services, Apple, Google, Accenture, Twitter, Facebook, etc. can be used to drive communication with human or animal bio-info/data devices, human or animal food or feed fabricators, human or animal food or feed supply systems, etc. to test hypotheses regarding combination of ingredients that may solve a problem, induce a condition, relieve a symptom, or otherwise achieve an expressed or unexpressed goal. Hypotheses testing can be achieved through adjustment of various ingredient levels of food, feed or other ingested materials over a period of time sufficient to produce a variety of samples having different combinations of the varying ingredients.
Big-data analytics can be used to conduct experiments to see the effects of various food or other ingested materials or combinations thereof upon users. For instance, direction can be sent from big-data analytics to a human food fabricator or an animal food fabricator to dispense particular kinds of food or feed materials based upon a subjects behavioral profile such as including the extent of exercise, sleep quality, plan performance levels, etc. Parameters regarding materials to be dispensed can be varied in order for big-data analytics to assess statistically significant correlations, spikes in probability distributions, etc. Studies on various populations can also be performed to identify similarities or differences related to life-style factors found with impacts on health, workplace performance, education levels, economic output, social integrity, and other outcomes. Big-data analytics can be tied in with social networks for further analysis and distribution of outcomes.
Statistical and other analysis can be performed on other aspects including parenting such as duration of time spent with children in relation to eating, teaching, playing, overseeing, chauffeuring, taking trips, etc. Proximity data based on location can be used for some of this analysis. Big-data analytics can also be directly tied through communication links to human food supply systems or animal feed supply systems to send information and data backup the supply chain. For instance, big-data analytics through various analysis could determine trends in health or sickness and possibly identify sources for such. This analysis could then be fed back up through the various supply chains to alert those in positions of responsibility.
Human food ingredient supplier system 142 can include the following. Human food ingredient supplier system 142 can receive ordering instructions, bio-info/data, ingredient use information, etc. from user, service-provider, organization, bio-data/info devices, fabricators, big-info/data analytics, etc. with reference to past, present, and/or anticipated requirements for edible materials as related to expressed desires and/or bio-info/data received from bio-info/data devices. Human food ingredient supplier system 142 can perform supply or other analysis models on bio-info/data collected by bio-info/data device(s) and expressed desires with reference to past, present, and/or anticipated edible materials requirements to determine patterns of consumption, projected demand, for instructing stocking, shipment, or other supply chain functions.
Human food ingredient supplier system 142 can send instructions and other information to bio-info/data devices to collect bio-info/data based on testing protocols, hypothesis testing, user, service-provider, or organization inquiry or direction, and results of supply chain model analysis. Human food ingredient supplier system 142 can be incorporated either by separate or common structures with bio-info/data devices, fabricators, or more central, separate entities such as server-based or cloud-based implementations.
Human food ingredient supplier system 142 can communicate with humans, bio-info/data devices, fabricators, big-info/data analytics, etc. Human food ingredient supplier system 142 can include for example subscription services (per human interests) sell cloud-based analysis time, application downloads, etc. thru commercial markets, device and/or fabricator manufacturers, or medical-health-sports-veterinary-pet providers or equipment manufacturers (e.g., 3 D Systems, Natural Machines, Whirlpool, KitchenAid, Miele, medical or health clinics, General Electric, Polar, Nintendo, Samsung, etc.).
Human food supply systems can be communicatively linked to big-data analytics to receive information and instruction related to analysis performed on human food and other materials thereby supplied. Sending information and instruction based upon this analysis up the supply chain can be beneficial to those in positions of responsibility for instance, in cases where outbreaks of illness have occurred. Other sorts of analysis can include information related to improvement in health in various subjects using food or other ingested materials. Trends in shopping or preferences in selection can also be identified and supplied to the human food supply systems. The human food supply systems cannot only provide food ingredients and other materials to the human food fabricators but can also furnish ready-made food items to be delivered through commercial channels such as UPS, FedEx, U.S. Postal Service, etc. Such human food supply systems could include Amazon, Amazon Fresh, Walmart outlets, Costco outlets, or other such conglomerates with various other distribution channels such as Nestlé, Unilever, General Mills, McDonald's, Coca-Cola, PepsiCo, or other big-food conglomerates, etc. see having broad families of food and other ingested materials, etc. such as possibly to institutions as hospitals, schools, prisons, etc.
Human bio-info/data, fabricator information, big-data analytics, and human food supply system information can be used by human food supply systems for delivery analysis, planning, execution, etc., providing recommendation to users, assessing information to collect from customers, determination of advertising targeting, etc.
Animal feed ingredient supplier system 146 can include the following. Animal feed ingredient supplier system 146 can receive ordering instructions, bio-info/data, ingredient use information, etc. from user, service-provider, organization, bio-data/info devices, fabricators, big-info/data analytics, etc. with reference to past, present, and/or anticipated requirements for edible materials as related to expressed desires and/or bio-info/data received from bio-info/data devices.
Animal feed ingredient supplier system 146 can perform supply or other analysis models on bio-info/data collected by bio-info/data device(s) and expressed desires with reference to past, present, and/or anticipated edible materials requirements to determine patterns of consumption, projected demand, for instructing stocking, shipment, or other supply chain functions. Animal feed ingredient supplier system 146 can send instructions and other information to bio-info/data devices to collect bio-info/data based on testing protocols, hypothesis testing, user, service-provider, or organization inquiry or direction, and results of supply chain model analysis.
Animal feed ingredient supplier system 146 can be incorporated either by separate or common structures with bio-info/data devices, fabricators, or more central, separate entities such as server-based or cloud-based implementations. Animal feed ingredient supplier system 146 can communicate with humans, bio-info/data devices, fabricators, big-info/data analytics, etc. Animal feed ingredient supplier system 146 can include for example subscription services (per animal interests) sell cloud-based analysis time, application downloads, etc. thru commercial markets, device and/or fabricator manufacturers, or veterinary-pet providers or equipment manufacturers (e.g., 3 D Systems, Natural Machines, General Electric, Polar, Nintendo, Samsung, Cargill, Massey Ferguson, John Deere, ConAgra, livestock or pet veterinary clinics or animal/pet feed stores, etc.).
Turning now to FIG. 2 , FIG. 2 depicts some aspects also depicted in FIGS. 1 -A- 1 -O and discussed above and also below regarding communication between human bio-info/data device (wearable) (HBD (w)) 112 (depicted as having bio-info data communication system 150 ), human bio-info/data device (non-wearable) (HBD (nw)) 116 (depicted as having bio-info data communication system 150 ), animal bio-info/data device (wearable) (ABD (w)) 120 , animal bio-info/data device (non-wearable) (ABD (nw)) 124 , human food fabricator (HFF) 128 , animal feed fabricator (AFF) 132 , big-info/data analytics system (BAS) 136 , human food ingredient supplier system (HFS) 142 , and animal feed ingredient supplier system (AFS) 146 .
Turning now to FIG. 3 , bio-info/data communication system 150 is depicted to include processor 150 a , memory 150 b , operating system 150 c , and device interface 150 e . Processor 150 a may include one or more microprocessors, central processing units (“cpu”), a graphics processing units (“gpu”), physics processing units, digital signal processors, network processors, floating point processors, and the other processors. In implementation(s), processor 150 a may be a server. In implementation(s), processor 150 a may be a distributed-core processor. Although processor 150 a can be understood in one sense as depicted as a single processor that is part of a bio-info/data communication system 150 , processor 150 a may be multiple processors distributed over one or many bio-info/data communication systems 150 , which may or may not be configured to operate together. Processor 150 a is illustrated as being configured to execute computer readable instructions in order to execute one or more operations described above.
Further shown in FIG. 3 , bio-info/data communication system 150 includes memory 150 b , which may include memory, cache memory such as random access memory (RAM), flash memory, synchronous random access memory (SRAM), dynamic random access memory (DRAM), or other types of memory such as read only memory (“ROM”), programmable read only memory (“PROM”), flash memory, hard drives, erasable programmable read-only memory (EPROM), disk-based media, disc-based media, magnetic storage, optical storage, volatile memory, nonvolatile memory, mass storage devices, and any combination thereof. In implementation(s), memory 150 b may be at single network site(s) or separated from the bio-info/data communication system 150 , e.g., available on different system(s) on a network, wired or wirelessly. For example, in a networked system, there may be many bio-info/data communication systems 150 having memory 150 b as located at central server(s) that may be a few feet away or located across an ocean. In implementation(s) memory 150 b may be located at multiple network sites, including sites that are distant from each other.
Referring again to FIG. 3 , bio-info/data communication system 150 includes operating system 150 c , some versions thereof being mobile or otherwise, and may include processing module m 10 , which may further include modules (some of which are described below), and may further include virtual machines 150 d (such as process virtual machines, virtual machines of hardware, virtual machines of virtual machines, Java virtual machines, Dalvik virtual machines, virtual machines for use with Android operating systems such as Samsung or Google mobile devices or for use with other mobile operating systems such as Apple iOS on Microsoft Windows based mobile operating systems, etc.).
As shown also in FIG. 3 , bio-info/data communication system 150 can include device interface 150 e , which can include user interface 150 f , device input 150 g , and device output 150 h . In implementation(s), device interface 150 e can include any component that allows interaction with its environment. For example, in implementation(s) device interface 150 e can include one or more sensors, e.g., a camera, a microphone, an accelerometer, a thermometer, a satellite positioning system (SPS) sensor, a barometer, a humidity sensor, a compass, a gyroscope, a magnetometer, a pressure sensor, an oscillation detector, a light sensor, an inertial measurement unit (IMU), a tactile sensor, a touch sensor, a flexibility sensor, a microelectromechanical system (MEMS), a radio, including a wireless radio, a transmitter, a receiver, an emitter, a broadcaster, etc.
In implementation(s), device interface 150 e also may include one or more user interface components, e.g., user interface 150 f (e.g., although they are drawn separately, in implementation(s), user interface 150 f is a type of device interface 150 e )), and in implementation(s) including one or more device inputs 150 g and one or more device outputs 150 h . User interface 150 f may include any hardware, software, firmware, and combination thereof that allows one or more users to interact with bio-info/data communication system 150 , and for vice versa. In implementation(s), user interface 150 f may include a monitor, screen, touchscreen, liquid crystal display (“LCD”) screen, light emitting diode (“LED”) screen, speaker, handset, earpiece, keyboard, keypad, touchpad, mouse, trackball, remote control, button set, microphone, video camera, still camera, a charge-coupled device (“CCD”) element, a photovoltaic element, etc.
Referring again to FIG. 3 , implementation(s) of device interface 150 e may include one or more components in addition to or integrated with user interface 150 f to provide ways that bio-info/data communication system 150 can input and output information with its environment(s) and/or user(s). These components of device interface 150 e for user interface 150 f , device input 150 g , and/or device output 150 h may include one or more sensors, e.g., a camera, a microphone, an accelerometer, a thermometer, a satellite positioning system (SPS) sensor, a barometer, a humidity sensor, a compass, a gyroscope, a magnetometer, a pressure sensor, an oscillation detector, a light sensor, an inertial measurement unit (IMU), a tactile sensor, a touch sensor, a flexibility sensor, a microelectromechanical system (MEMS), a radio, including a wireless radio, a transmitter, a receiver, an emitter, a broadcaster, etc., and other components as well to serve user interface, input and/or output function(s) for device interface 150 e such as for user interface 150 f , device input 150 g and device output 150 h.
Further examples of user interface 150 f , device input 150 g , and/or device output 150 h may include any hardware, software, firmware, and combination thereof, to provide capability for a user thereof to interact with bio-info/data communication system 150 . Implementation(s) of user interface 150 f , device input 150 g , and/or device output 150 h can include monitor(s), screen(s), touchscreen(s), liquid crystal display (“LCD”) screen(s), light emitting diode (“LED”) screen(s), speaker(s), handset(s), earpiece(s), keyboard(s), keypad(s), touchpad(s), mouse(s), trackball(s), remote control(s), button set(s), microphone(s), video camera(s), still camera(s), a charge-coupled device (“CCD”) element(s), a photovoltaic element(s), etc.
As other examples, implementation(s) of device interface 150 e can include including portions for outputting information, inputting information, and/or controlling aspects thereof. Various arrangements such as display window(s), audio emitter(s), tactile interface(s), button(s), slider(s), gesture interface(s), articulation(s), knob(s), icon(s), desktop(s), ribbon(s), bar(s), tool(s), stylus area(s), keypad(s), keyboard(s), and other audio, video, graphic, tactile, etc. input, output, or control aspects can be used. For instance, graphical user interface presentations can be presented upon display surfaces while other input and/or output aspects can be utilized.
Implementations of modules can involve different combinations (limited to patentable subject matter under 35 U.S.C. 101) of one or more aspects from one or more electrical circuitry arrangements and/or one or more aspects from one or more instructions.
In one or more implementations, as shown in FIG. 4 , the processing module m 10 may include electronically-performing-electronic-semiconductor-transistor-based-device-assisted-monitoring-of-user-physiological-aspect-data-of-a-user-and-performing-monitoring-of-user-behavioral-aspect-data-of-a-user module m 11 .
In one or more implementations, as shown in FIG. 4 , the processing module m 10 may include electronically-performing-electronic-semiconductor-transistor-based-device-assisted-reception-of-food-based-ingredient-information-from-food-based-ingredient-information-resources module m 12 .
In one or more implementations, as shown in FIG. 4 , the processing module m 10 may include electronically-transmission-of-food-based-fabricator-operational-indication-to-food-fabricator-machines-user-physiological-aspect-data-and-user-behavioral-aspect-data-and-based-on-food-based-fabricator- information module m 13 .
In one or more implementations, as shown in FIG. 5 , module m 11 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-portable-electronically-involved-monitoring module m 102 .
In one or more implementations, as shown in FIG. 6 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-wrist-couplable-electronically-involved-monitoring module m 103 .
In one or more implementations, as shown in FIG. 6 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-ear-couplable-electronically-involved-monitoring module m 104 .
In one or more implementations, as shown in FIG. 6 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-appendage-couplable-electronically-involved-monitoring module m 105 .
In one or more implementations, as shown in FIG. 6 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-human-trunk-couplable-electronically-involved-monitoring module m 106 .
In one or more implementations, as shown in FIG. 6 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-human-hand-couplable-electronically-involved-monitoring module m 107 .
In one or more implementations, as shown in FIG. 6 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-human-foot-couplable-electronically-involved-monitoring module m 108 .
In one or more implementations, as shown in FIG. 7 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-eyewear-related-electronically-involved-monitoring module m 109 .
In one or more implementations, as shown in FIG. 7 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-and-user-behavioral-aspect-data-of-the-user-as-human-head-couplable-electronically-involved-monitoring module m 110 .
In one or more implementations, as shown in FIG. 7 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-and-user-behavioral-aspect-data-of-the-user-as-clothing-integrated-electronically-involved-monitoring module m 111 .
In one or more implementations, as shown in FIG. 7 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-and-user-behavioral-aspect-data-of-the-user-as-handheld-electronically-involved-monitoring module m 112 .
In one or more implementations, as shown in FIG. 7 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-mobile-device-electronically-involved-monitoring module m 113 .
In one or more implementations, as shown in FIG. 7 , module m 102 may include electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-laptop-electronically-involved-monitoring module m 114 .
In one or more implementations, as shown in FIG. 5 , module m 11 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-functional-status-monitoring module m 115 .
In one or more implementations, as shown in FIG. 8 , module m 115 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-sleep-pattern-monitoring module m 116 .
In one or more implementations, as shown in FIG. 8 , module m 115 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-ambulatory-status-monitoring module m 117 .
In one or more implementations, as shown in FIG. 9 , module m 117 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-walking-performance-monitoring module m 118 .
In one or more implementations, as shown in FIG. 9 , module m 117 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-motor-skills-monitoring module m 119 .
In one or more implementations, as shown in FIG. 9 , module m 117 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-monitoring-of-user-medical-equipment-use module m 120 .
In one or more implementations, as shown in FIG. 8 , module m 115 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-performance-status-monitoring module m 121 .
In one or more implementations, as shown in FIG. 10 , module m 121 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-vocationally-related-user-performance-status-monitoring module m 122 .
In one or more implementations, as shown in FIG. 10 , module m 121 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-recreationally-related-user-performance-status-monitoring module m 123 .
In one or more implementations, as shown in FIG. 10 , module m 121 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-athletic-performance-status-monitoring module m 124 .
In one or more implementations, as shown in FIG. 10 , module m 121 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-musical-performance-status-monitoring module m 125 .
In one or more implementations, as shown in FIG. 10 , module m 121 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-education-performance-status-monitoring module m 126 .
In one or more implementations, as shown in FIG. 10 , module m 121 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-domestically-related-performance-status-monitoring module m 127 .
In one or more implementations, as shown in FIG. 8 , module m 115 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-postural-status-monitoring module m 128 .
In one or more implementations, as shown in FIG. 8 , module m 115 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-sensory-status-monitoring module m 129 .
In one or more implementations, as shown in FIG. 11 , module m 129 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-visual-related-user-sensory-status-monitoring module m 130 .
In one or more implementations, as shown in FIG. 11 , module m 129 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-gustatory-related-user-sensory-status-monitoring module m 131 .
In one or more implementations, as shown in FIG. 11 , module m 129 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-auditory-related-user-sensory-status-monitoring module m 132 .
In one or more implementations, as shown in FIG. 5 , module m 11 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-behavioral-life-data-monitoring module m 133 .
In one or more implementations, as shown in FIG. 12 , module m 133 may include electronically-monitoring-user-behavioral-aspect-data-and-user-behavioral-life-data-as-electronically-involved-vocation-related-user-behavioral-life-data module m 134 .
In one or more implementations, as shown in FIG. 12 , module m 133 may include electronically-monitoring-user-behavioral-aspect-data-and-user-behavioral-life-data-as-electronically-involved-recreation-related-user-behavioral-life-data module m 135 .
In one or more implementations, as shown in FIG. 12 , module m 133 may include electronically-monitoring-user-behavioral-aspect-data-and-user-behavioral-life-data-electronically-involved-athletic-related-user-behavioral-life-data module m 136 .
In one or more implementations, as shown in FIG. 12 , module m 133 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-music-related-user-behavioral-life-data-monitoring module m 137 .
In one or more implementations, as shown in FIG. 12 , module m 133 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-education-related-user-behavioral-life-data-monitoring module m 138 .
In one or more implementations, as shown in FIG. 12 , module m 133 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-domestic-related-user-behavioral-life-data-monitoring module m 139 .
In one or more implementations, as shown in FIG. 5 , module m 11 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-quantified-self-information-monitoring module m 140 .
In one or more implementations, as shown in FIG. 13 , module m 140 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-quantified-self-data-monitoring module m 141 .
In one or more implementations, as shown in FIG. 14 , module m 141 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-vocation-related-user-quantified-self-data-monitoring module m 142 .
In one or more implementations, as shown in FIG. 14 , module m 141 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-recreation-related-user-quantified-self-data-monitoring module m 143 .
In one or more implementations, as shown in FIG. 14 , module m 141 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-athletic-related-user-quantified-self-data-monitoring module m 144 .
In one or more implementations, as shown in FIG. 14 , module m 141 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-music-related-user-quantified-self-data-monitoring module m 145 .
In one or more implementations, as shown in FIG. 14 , module m 141 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-education-related-user-quantified-self-data-monitoring module m 146 .
In one or more implementations, as shown in FIG. 14 , module m 141 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-domestic-related-user-quantified-self-data-monitoring module m 147 .
In one or more implementations, as shown in FIG. 13 , module m 140 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-organizationally-collected-quantified-self-data-monitoring module m 148 .
In one or more implementations, as shown in FIG. 13 , module m 140 may include electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-social-network-collected-quantified-self-data-monitoring module m 149 .
In one or more implementations, as shown in FIG. 5 , module m 11 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-invasive-or-noninvasive-user-physiological-aspect-data module m 150 .
In one or more implementations, as shown in FIG. 15 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-molecular-markers module m 151 .
In one or more implementations, as shown in FIG. 15 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-chemical-analysis module m 152 .
In one or more implementations, as shown in FIG. 15 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-analytes module m 153 .
In one or more implementations, as shown in FIG. 15 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-electrolytes module m 154 .
In one or more implementations, as shown in FIG. 15 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-cellular-sampling module m 155 .
In one or more implementations, as shown in FIG. 15 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-tissue-sampling module m 156 .
In one or more implementations, as shown in FIG. 16 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-fluid-sampling module m 157 .
In one or more implementations, as shown in FIG. 16 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-implantation module m 158 .
In one or more implementations, as shown in FIG. 16 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-user-positional-information-of-user-body-portions module m 159 .
In one or more implementations, as shown in FIG. 16 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-audio-data module m 160 .
In one or more implementations, as shown in FIG. 16 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-video-data module m 161 .
In one or more implementations, as shown in FIG. 16 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-user-controlled-input module m 162 .
In one or more implementations, as shown in FIG. 17 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-dermal-sampling module m 163 .
In one or more implementations, as shown in FIG. 17 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-thermal-data-collection module m 164 .
In one or more implementations, as shown in FIG. 17 , module m 150 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-electromagnetic-data-collection module m 165 .
In one or more implementations, as shown in FIG. 5 , module m 11 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-disease module m 166 .
In one or more implementations, as shown in FIG. 18 , module m 166 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-chronic-disease module m 167 .
In one or more implementations, as shown in FIG. 18 , module m 166 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-acute-disease module m 168 .
In one or more implementations, as shown in FIG. 18 , module m 166 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-symptomatic-disease module m 169 .
In one or more implementations, as shown in FIG. 18 , module m 166 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-diagnosed-disease module m 170 .
In one or more implementations, as shown in FIG. 18 , module m 166 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-epidemic-related-disease module m 171 .
In one or more implementations, as shown in FIG. 18 , module m 166 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-life-style-induced-disease module m 172 .
In one or more implementations, as shown in FIG. 19 , module m 11 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-health module m 173 .
In one or more implementations, as shown in FIG. 20 , module m 173 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-enhancement-of-a-health-related-condition module m 174 .
In one or more implementations, as shown in FIG. 20 , module m 173 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-reduction-of-a-health-related-condition module m 175 .
In one or more implementations, as shown in FIG. 20 , module m 173 may include electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-augmentation-of-a-health-related-condition module m 176 .
In one or more implementations, as shown in FIG. 21 , module m 12 may include electronically-receiving-food-based-ingredient-information-regarding-food-fabrication-factors-from-food-fabricator-machines module m 177 .
In one or more implementations, as shown in FIG. 22 , module m 177 may include electronically-receiving-food-ingredient-historical-application-data-from-food-fabricator-machines module m 178 .
In one or more implementations, as shown in FIG. 22 , module m 177 may include electronically-receiving-food-fabricator-machine-specification-data-for-food-preparation-applied-energy-data module m 179 .
In one or more implementations, as shown in FIG. 22 , module m 177 may include electronically-receiving-food-fabricator-machine-specification-data-for-food-preparation-timing-data module m 180 .
In one or more implementations, as shown in FIG. 22 , module m 177 may include electronically-receiving-food-fabricator-machine-specification-data-for-ingredient-quantity-processing-capacities module m 181 .
In one or more implementations, as shown in FIG. 22 , module m 177 may include electronically-receiving-food-fabricator-machine-specification-data-for-ingredient-quality-factors module m 182 .
In one or more implementations, as shown in FIG. 22 , module m 177 may include electronically-receiving-food-fabricator-machine-specification-data-for-restocking-factors module m 183 .
In one or more implementations, as shown in FIG. 21 , module m 12 may include electronically-receiving-food-based-ingredient-information-regarding-electronically-involved-food-dispensing-aspects-from-food-fabricator-machines module m 184 .
In one or more implementations, as shown in FIG. 23 , module m 184 may include electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-combining-procedures module m 185 .
In one or more implementations, as shown in FIG. 23 , module m 184 may include electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-processing-aspects module m 186 .
In one or more implementations, as shown in FIG. 23 , module m 184 may include electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-packaging-aspects module m 187 .
In one or more implementations, as shown in FIG. 23 , module m 184 may include electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-assembling-procedures module m 188 .
In one or more implementations, as shown in FIG. 23 , module m 184 may include electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-manufacturing-procedures module m 189 .
In one or more implementations, as shown in FIG. 23 , module m 184 may include electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-delivery-aspects module m 190 .
In one or more implementations, as shown in FIG. 21 , module m 12 may include electronically-receiving-food-based-ingredient-information-regarding-food-component-aspects-from-food-fabricator-machines module m 191 .
In one or more implementations, as shown in FIG. 24 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-carbohydrate-related-food-ingredient-availability module m 192 .
In one or more implementations, as shown in FIG. 24 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-protein-related-food-ingredient-availability module m 193 .
In one or more implementations, as shown in FIG. 24 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-fat-related-food-ingredient-availability module m 194 .
In one or more implementations, as shown in FIG. 24 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-micronutrient-related-food-ingredient-availability module m 195 .
In one or more implementations, as shown in FIG. 24 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-stocking-of-gustatory-components module m 196 .
In one or more implementations, as shown in FIG. 24 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-availability-of-food-ingredients-associated-with-snack-related-categories module m 197 .
In one or more implementations, as shown in FIG. 25 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-information-involved-with-full-course-meals module m 198 .
In one or more implementations, as shown in FIG. 25 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-availability-of-nutritional-supplementation module m 199 .
In one or more implementations, as shown in FIG. 25 , module m 191 may include electronically-receiving-food-based-ingredient-information-including-information-regarding-beverages module m 200 .
In one or more implementations, as shown in FIG. 21 , module m 12 may include electronically-receiving-food-based-ingredient-recipe-information-regarding-food-recipe-factors-from-food-recipe-information-services module m 201 .
In one or more implementations, as shown in FIG. 26 , module m 201 may include electronically-receiving-food-ingredient-application-data-from-food-recipe-information-services module m 202 .
In one or more implementations, as shown in FIG. 26 , module m 201 may include electronically-receiving-food-recipe-data-for-food-preparation-applied-energies module m 203 .
In one or more implementations, as shown in FIG. 26 , module m 201 may include electronically-receiving-food-recipe-data-for-food-preparation-timing module m 204 .
In one or more implementations, as shown in FIG. 26 , module m 201 may include electronically-receiving-food-recipe-data-for-ingredient-quantities module m 205 .
In one or more implementations, as shown in FIG. 26 , module m 201 may include electronically-receiving-food-recipe-data-for-ingredient-quality-factors module m 206 .
In one or more implementations, as shown in FIG. 26 , module m 201 may include electronically-receiving-food-recipe-data-for-restocking-factors module m 207 .
In one or more implementations, as shown in FIG. 21 , module m 12 may include electronically-receiving-recipe-information-regarding-electronically-involved-food-dispensing-aspects-from-food-recipe-information-services module m 208 .
In one or more implementations, as shown in FIG. 27 , module m 208 may include electronically-receiving-food-recipe-data-regarding-food-ingredient-combining-procedures module m 209 .
In one or more implementations, as shown in FIG. 27 , module m 208 may include electronically-receiving-food-recipe-data-regarding-food-ingredient-processing-aspects module m 210 .
In one or more implementations, as shown in FIG. 27 , module m 208 may include electronically-receiving-food-recipe-data-regarding-food-ingredient-packaging module m 211 .
In one or more implementations, as shown in FIG. 27 , module m 208 may include electronically-receiving-food-recipe-data-regarding-food-ingredient-assembling-procedures module m 212 .
In one or more implementations, as shown in FIG. 27 , module m 208 may include electronically-receiving-food-recipe-data-regarding-food-ingredient-manufacturing-procedures module m 213 .
In one or more implementations, as shown in FIG. 27 , module m 208 may include electronically-receiving-food-recipe-data-regarding-food-ingredient-delivery-aspects module m 214 .
In one or more implementations, as shown in FIG. 21 , module m 12 may include electronically-receiving-food-based-ingredient-recipe-information-regarding-food-component-aspects-from-food-recipe-information-services module m 215 .
In one or more implementations, as shown in FIG. 28 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-carbohydrate-related-food-ingredient-recipe-aspects module m 216 .
In one or more implementations, as shown in FIG. 28 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-protein-related-food-ingredient-recipe-aspects module m 217 .
In one or more implementations, as shown in FIG. 28 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-fat-related-food-ingredient-recipe-aspects module m 218 .
In one or more implementations, as shown in FIG. 28 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-micronutrient-related-food-ingredient-recipe-aspects module m 219 .
In one or more implementations, as shown in FIG. 28 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-gustatory-component-information module m 220 .
In one or more implementations, as shown in FIG. 28 , module m 215 may include electronically-receiving-recipe-information-including-food-ingredient-recipe-aspects-associated-with-snack-related-categories module m 221 .
In one or more implementations, as shown in FIG. 29 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-information-involved-with-full-course-meals module m 222 .
In one or more implementations, as shown in FIG. 29 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-information-regarding-nutritional-supplementation module m 223 .
In one or more implementations, as shown in FIG. 29 , module m 215 may include electronically-receiving-food-based-ingredient-recipe-information-including-beverage-recipe-information module m 224 .
In one or more implementations, as shown in FIG. 30 , module m 12 may include electronically-receiving-food-based-ingredient-nutrition-information-regarding-food-nutrition-factors-from-food-nutrition-information-services module m 225 .
In one or more implementations, as shown in FIG. 31 , module m 225 may include electronically-receiving-food-ingredient-application-data-from-food-nutrition-information-services module m 226 .
In one or more implementations, as shown in FIG. 31 , module m 225 may include electronically-receiving-food-nutrition-data-for-food-preparation-applied-energies module m 227 .
In one or more implementations, as shown in FIG. 31 , module m 225 may include electronically-receiving-food-nutrition-data-for-food-preparation-timing module m 228 .
In one or more implementations, as shown in FIG. 31 , module m 225 may include electronically-receiving-food-nutrition-data-for-ingredient-quantities module m 229 .
In one or more implementations, as shown in FIG. 31 , module m 225 may include electronically-receiving-food-nutrition-data-for-ingredient-quality-factors module m 230 .
In one or more implementations, as shown in FIG. 31 , module m 225 may include electronically-receiving-food-nutrition-data-for-restocking-factors module m 231 .
In one or more implementations, as shown in FIG. 30 , module m 12 may include electronically-receiving-nutrition-information-regarding-electronically-involved-food-dispensing-aspects-from-food-nutrition-information-services module m 232 .
In one or more implementations, as shown in FIG. 32 , module m 232 may include electronically-receiving-food-nutrition-data-regarding-food-ingredient-combining-procedures module m 233 .
In one or more implementations, as shown in FIG. 32 , module m 232 may include electronically-receiving-food-nutrition-data-regarding-food-ingredient-processing-aspects module m 234 .
In one or more implementations, as shown in FIG. 32 , module m 232 may include electronically-receiving-food-nutrition-data-regarding-food-ingredient-packaging-aspects module m 235 .
In one or more implementations, as shown in FIG. 32 , module m 232 may include electronically-receiving-food-nutrition-data-regarding-food-ingredient-assembling-procedures module m 236 .
In one or more implementations, as shown in FIG. 32 , module m 232 may include electronically-receiving-food-nutrition-data-regarding-food-ingredient-manufacturing-procedures module m 237 .
In one or more implementations, as shown in FIG. 32 , module m 232 may include electronically-receiving-food-nutrition-data-regarding-food-ingredient-delivery-aspects module m 238 .
In one or more implementations, as shown in FIG. 30 , module m 12 may include electronically-receiving-food-based-ingredient-nutrition-information-regarding-food-component-aspects-from-food-nutrition-information-services module m 239 .
In one or more implementations, as shown in FIG. 33 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-carbohydrate-related-food-ingredient-nutrition-aspects module m 240 .
In one or more implementations, as shown in FIG. 33 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-protein-related-food-ingredient-nutrition-aspects module m 241 .
In one or more implementations, as shown in FIG. 33 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-fat-related-food-ingredient-nutrition-aspects module m 242 .
In one or more implementations, as shown in FIG. 33 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-micronutrient-related-food-ingredient-nutrition-aspects module m 243 .
In one or more implementations, as shown in FIG. 33 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-gustatory-component-information module m 244 .
In one or more implementations, as shown in FIG. 33 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-food-ingredient-nutrition-aspects-associated-with-snack-related-categories module m 245 .
In one or more implementations, as shown in FIG. 34 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-information-involved-with-full-course-meals module m 246 .
In one or more implementations, as shown in FIG. 34 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-information-regarding-nutritional-supplementation module m 247 .
In one or more implementations, as shown in FIG. 34 , module m 239 may include electronically-receiving-food-based-ingredient-nutrition-information-including-beverage-nutrition-information module m 248 .
In one or more implementations, as shown in FIG. 35 , module m 13 may include electronically-transmitting-operational-indication-to-food-fabricator-machines-regarding-food-based-ingredient-fabrication-factors module m 249 .
In one or more implementations, as shown in FIG. 36 , module m 249 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-ratios module m 250 .
In one or more implementations, as shown in FIG. 36 , module m 249 may include electronically-transmitting-operational-indication-regarding-energy-levels-to-be-applied-during-food-based-ingredient-fabrication module m 251 .
In one or more implementations, as shown in FIG. 36 , module m 249 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-fabrication-timing-factors module m 252 .
In one or more implementations, as shown in FIG. 36 , module m 249 may include electronically-transmitting-operational-indication-regarding-quantity-levels-for-food-based-ingredient-fabrication-quality-levels module m 253 .
In one or more implementations, as shown in FIG. 36 , module m 249 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-fabrication-maintenance-thresholds module m 254 .
In one or more implementations, as shown in FIG. 36 , module m 249 may include electronically-transmitting-operational-indication-regarding-restocking-factors-to-be-implemented-in-conjunction-with-food-based-ingredient-fabrication module m 255 .
In one or more implementations, as shown in FIG. 35 , module m 13 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-dispensing-procedures module m 256 .
In one or more implementations, as shown in FIG. 37 , module m 256 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-combining-procedures module m 257 .
In one or more implementations, as shown in FIG. 37 , module m 256 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-processing-procedures module m 258 .
In one or more implementations, as shown in FIG. 37 , module m 256 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-packaging-procedures module m 259 .
In one or more implementations, as shown in FIG. 37 , module m 256 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-assembling-procedures module m 260 .
In one or more implementations, as shown in FIG. 37 , module m 256 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-manufacturing-procedures module m 261 .
In one or more implementations, as shown in FIG. 37 , module m 256 may include electronically-transmitting-operational-indication-regarding-electronically-controlled-item-delivery-procedures module m 262 .
In one or more implementations, as shown in FIG. 35 , module m 13 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-categories module m 263 .
In one or more implementations, as shown in FIG. 38 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-carbohydrates module m 264 .
In one or more implementations, as shown in FIG. 38 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-proteins module m 265 .
In one or more implementations, as shown in FIG. 38 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-fats module m 266 .
In one or more implementations, as shown in FIG. 38 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-micronutrients module m 267 .
In one or more implementations, as shown in FIG. 38 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-gustatory-components module m 268 .
In one or more implementations, as shown in FIG. 38 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-snack-categories module m 269 .
In one or more implementations, as shown in FIG. 39 , module m 263 may include electronically-transmitting-operational-indication-regarding-full-course-meals module m 270 .
In one or more implementations, as shown in FIG. 39 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-nutritional-supplement-components module m 271 .
In one or more implementations, as shown in FIG. 39 , module m 263 may include electronically-transmitting-operational-indication-regarding-food-based-ingredient-beverage-components module m 272 .
An operational flow o 10 as shown in FIG. 40 represents example operations related to electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels; and electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels.
FIG. 40 and those figures that follow may have various examples of operational flows, and explanation may be provided with respect to the above-described examples and/or with respect to other examples and contexts. Nonetheless, it should be understood that the operational flows may be executed in a number of other environments and contexts, and/or in modified versions. Furthermore, although the various operational flows are presented in the sequence(s) illustrated, it should be understood that the various operations may be performed in other orders than those which are illustrated, or may be performed concurrently.
In FIG. 40 and those figures that follow, various operations may be depicted in a box-within-a-box manner. Such depictions may indicate that an operation in an internal box may comprise an optional exemplary implementation of the operational step illustrated in one or more external boxes. However, it should be understood that internal box operations may be viewed as independent operations separate from any associated external boxes and may be performed in any sequence with respect to all other illustrated operations, or may be performed concurrently.
Following are a series of flowcharts depicting implementations. For ease of understanding, the flowcharts are organized such that the initial flowcharts present implementations via an example implementation and thereafter the following flowcharts present alternate implementations and/or expansions of the initial flowchart(s) as either sub-component operations or additional component operations building on one or more earlier-presented flowcharts. Those having skill in the art will appreciate that the style of presentation utilized herein (e.g., e.g., beginning with a presentation of a flowchart(s) presenting an example implementation and thereafter providing additions to and/or further details in subsequent flowcharts) generally allows for a rapid and easy understanding of the various process implementations. In addition, those skilled in the art will further appreciate that the style of presentation used herein also lends itself well to modular and/or object-oriented program design paradigms.
In one or more implementations, as shown in FIG. 40 , the operational flow o 10 proceeds to operation o 11 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. Origination of an electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 11 . One or more non-transitory signal bearing physical media can bear the one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 11 . Furthermore, electronically-performing-electronic-semiconductor-transistor-based-device-assisted-monitoring-of-user-physiological-aspect-data-of-a-user-and-performing-monitoring-of-user-behavioral-aspect-data-of-a-user module m 11 depicted in FIG. 4 as being included in the processing module m 10 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 11 . Illustratively, in one or more implementations, the operation o 11 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.).
In one or more implementations, as shown in FIG. 40 , the operational flow o 10 proceeds to operation o 12 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. Origination of an electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 12 . One or more non-transitory signal bearing physical media can bear the one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 12 . Furthermore, electronically-performing-electronic-semiconductor-transistor-based-device-assisted-reception-of-food-based-ingredient-information-from-food-based-ingredient-information-resources module m 12 depicted in FIG. 4 as being included in the processing module m 10 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 12 . Illustratively, in one or more implementations, the operation o 12 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.).
In one or more implementations, as shown in FIG. 40 , the operational flow o 10 proceeds to operation o 13 for electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels. Origination of an electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 13 . One or more non-transitory signal bearing physical media can bear the one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 13 . Furthermore, electronically-transmission-of-food-based-fabricator-operational-indication-to-food-fabricator-machines-user-physiological-aspect-data-and-user-behavioral-aspect-data-and-based-on-food-based-fabricator-information module m 13 depicted in FIG. 4 as being included in the processing module m 10 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 13 . Illustratively, in one or more implementations, the operation o 13 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted transmission (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator information (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.).
In one or more implementations, as shown in FIG. 41 , the operation o 11 can include operation o 102 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 102 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 102 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-portable-electronically-involved-monitoring module m 102 depicted in FIG. 5 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 102 . Illustratively, in one or more implementations, the operation o 102 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.).
In one or more implementations, as shown in FIG. 43 , the operation o 102 can include operation o 103 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part wrist-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 103 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 103 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-wrist-couplable-electronically-involved-monitoring module m 103 depicted in FIG. 6 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 103 . Illustratively, in one or more implementations, the operation o 103 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part wrist-couplable-electronically-involved monitoring (e.g., monitoring integrated with bracelet, wristwatch, wristband, jewelry regarding invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing, etc.).
In one or more implementations, as shown in FIG. 43 , the operation o 102 can include operation o 104 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part ear-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 104 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 104 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-ear-couplable-electronically-involved-monitoring module m 104 depicted in FIG. 6 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 104 . Illustratively, in one or more implementations, the operation o 104 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part ear-couplable-electronically-involved monitoring (e.g., ear couplable detection such as earrings, headphones, ear clips, ear plugs, ear buds, ear muffs clothing, apparel accessories, luggage, handbags, wallets, etc.).
In one or more implementations, as shown in FIG. 43 , the operation o 102 can include operation o 105 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part appendage-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 105 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 105 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-appendage-couplable-electronically-involved-monitoring module m 105 depicted in FIG. 6 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 105 . Illustratively, in one or more implementations, the operation o 105 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part appendage-couplable-electronically-involved monitoring (e.g., monitoring integrated with arm, leg, neck attachments, etc. brace, leggings, socks, sleeves, strapped, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing, etc.).
In one or more implementations, as shown in FIG. 44 , the operation o 102 can include operation o 106 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part human-trunk-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 106 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 106 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-human-trunk-couplable-electronically-involved-monitoring module m 106 depicted in FIG. 6 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 106 . Illustratively, in one or more implementations, the operation o 106 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part human-trunk-couplable-electronically-involved monitoring (e.g., human trunk couplable monitoring such as belts, fanny packs, vests, straps, backpacks, electrode pads, etc.).
In one or more implementations, as shown in FIG. 44 , the operation o 102 can include operation o 107 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part human-hand-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 107 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 107 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-human-hand-couplable-electronically-involved-monitoring module m 107 depicted in FIG. 6 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 107 . Illustratively, in one or more implementations, the operation o 107 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part human-hand-couplable-electronically-involved monitoring (e.g., monitoring integrated with gloves, rings, pads, straps, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing, etc.).
In one or more implementations, as shown in FIG. 44 , the operation o 102 can include operation o 108 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part human-foot-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 108 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 108 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-human-foot-couplable-electronically-involved-monitoring module m 108 depicted in FIG. 6 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 108 . Illustratively, in one or more implementations, the operation o 108 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part human-foot-couplable-electronically-involved monitoring (e.g., foot couplable monitoring such as shoes, socks, sandals, toe-rings, ankle bracelets, electrode pads, etc.).
In one or more implementations, as shown in FIG. 45 , the operation o 102 can include operation o 109 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part eyewear-related-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 109 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 109 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-eyewear-related-electronically-involved-monitoring module m 109 depicted in FIG. 7 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 109 . Illustratively, in one or more implementations, the operation o 109 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part eyewear-related-electronically-involved monitoring (e.g., monitoring integrated with glasses, contacts, lens, frames, monocle, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing, etc.).
In one or more implementations, as shown in FIG. 45 , the operation o 102 can include operation o 110 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part human-head-couplable-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 110 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 110 . Furthermore, electronically-monitoring-of-physiological-aspect-data-and-user-behavioral-aspect-data-of-the-user-as-human-head-couplable-electronically-involved-monitoring module m 110 depicted in FIG. 7 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 110 . Illustratively, in one or more implementations, the operation o 110 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part human-head-couplable-electronically-involved monitoring (e.g., head couplable monitoring such as hats, head bands, face masks, hair combs or other accessories, necklaces, nanosensor impregnated make-up, etc.).
In one or more implementations, as shown in FIG. 45 , the operation o 102 can include operation o 111 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part clothing-integrated-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 111 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 111 . Furthermore, electronically-monitoring-of-physiological-aspect-data-and-user-behavioral-aspect-data-of-the-user-as-clothing-integrated-electronically-involved-monitoring module m 111 depicted in FIG. 7 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 111 . Illustratively, in one or more implementations, the operation o 111 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part clothing-integrated-electronically-involved monitoring (e.g., monitoring integrated with shirts, pants, underwear, jackets, natural fabrics, synthetics, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing, etc.).
In one or more implementations, as shown in FIG. 46 , the operation o 102 can include operation o 112 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part handheld-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 112 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 112 . Furthermore, electronically-monitoring-of-physiological-aspect-data-and-user-behavioral-aspect-data-of-the-user-as-handheld-electronically-involved-monitoring module m 112 depicted in FIG. 7 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 112 . Illustratively, in one or more implementations, the operation o 112 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part handheld-electronically-involved monitoring (e.g., monitoring integrated with tablets, pads, Android enabled devices, mobile touch-screen computers, gaming devices, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing, etc.).
In one or more implementations, as shown in FIG. 46 , the operation o 102 can include operation o 113 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part mobile-device-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 113 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 113 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-mobile-device-electronically-involved-monitoring module m 113 depicted in FIG. 7 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 113 . Illustratively, in one or more implementations, the operation o 113 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part mobile-device-electronically-involved monitoring (e.g., monitoring integrated with cellular phones, tablets, Android enabled mobile devices, location-enabled digital cameras, iPods, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing).
In one or more implementations, as shown in FIG. 46 , the operation o 102 can include operation o 114 for electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part portable-electronically-involved monitoring including electronically monitoring of physiological aspect data and monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part laptop-electronically-involved monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 114 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 114 . Furthermore, electronically-monitoring-of-physiological-aspect-data-of-user-behavioral-aspect-data-of-the-user-as-laptop-electronically-involved-monitoring module m 114 depicted in FIG. 7 as being included in the module m 102 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 114 . Illustratively, in one or more implementations, the operation o 114 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part portable-electronically-involved monitoring (e.g., wearable detection such as clothing, apparel accessories, luggage, handbags, wallets, etc. etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) and monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part laptop-electronically-involved monitoring (e.g., monitoring coupled with MacBook Pro, Sony, Dell, etc. invasive, non-invasive, device, sensor, nanosensor, eletromechanical, chemical, electrical, biological, surgical, other sensing).
In one or more implementations, as shown in FIG. 41 , the operation o 11 can include operation o 115 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user functional status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 115 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 115 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-functional-status-monitoring module m 115 depicted in FIG. 5 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 115 . Illustratively, in one or more implementations, the operation o 115 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user functional status monitoring (e.g., receiving historical or current functional status information such as ambulatory functional status records of walking, running, climbing, sleeping, housework, educational, musical, athletic, recreational, vocational, etc. functional performance, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 47 , the operation o 115 can include operation o 116 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user functional status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user sleep pattern monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 116 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 116 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-sleep-pattern-monitoring module m 116 depicted in FIG. 8 as being included in the module m 115 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 116 . Illustratively, in one or more implementations, the operation o 116 can be fulfilled, for example, by electronically monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user functional status monitoring (e.g., receiving historical or current functional status information such as ambulatory functional status records of walking, running, climbing, sleeping, housework, educational, musical, athletic, recreational, vocational, etc. functional performance, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user sleep pattern monitoring (e.g., receiving sleep status information such as amount of sleep, amount of movement during sleep, times of sleep, times of doziness while awake, amount of stimulants ingested, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 47 , the operation o 115 can include operation o 117 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user functional status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user ambulatory status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 117 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 117 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-ambulatory-status-monitoring module m 117 depicted in FIG. 8 as being included in the module m 115 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 117 . Illustratively, in one or more implementations, the operation o 117 can be fulfilled, for example, by electronically monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user functional status monitoring (e.g., receiving historical or current functional status information such as ambulatory functional status records of walking, running, climbing, sleeping, housework, educational, musical, athletic, recreational, vocational, etc. functional performance, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user ambulatory status monitoring (e.g., receiving historical or current ambulatory status information such as ambulatory functional status records of walking, running, climbing, using a wheelchair, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 48 , the operation o 117 can include operation o 118 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user ambulatory status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user walking performance monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 118 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 118 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-walking-performance-monitoring module m 118 depicted in FIG. 9 as being included in the module m 117 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 118 . Illustratively, in one or more implementations, the operation o 118 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user ambulatory status monitoring (e.g., receiving historical or current ambulatory status information such as ambulatory functional status records of walking, running, climbing, using a wheelchair, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user walking performance monitoring (e.g., receiving historical or current walking status information such as distance, duration, timing, elevation change, gate length, geographical region, environmental, climate, gaps between, use of mechanical assistant devices, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 48 , the operation o 117 can include operation o 119 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user ambulatory status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user motor skills monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 119 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 119 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-motor-skills-monitoring module m 119 depicted in FIG. 9 as being included in the module m 117 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 119 . Illustratively, in one or more implementations, the operation o 119 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user ambulatory status monitoring (e.g., receiving historical or current ambulatory status information such as ambulatory functional status records of walking, running, climbing, using a wheelchair, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user motor skills monitoring (e.g., receiving historical or current motor skills status information such as data regarding eye-hand coordination, distribution of weight in standing, walking, sitting, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 48 , the operation o 117 can include operation o 120 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user ambulatory status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved monitoring of user-medical-equipment use. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 120 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 120 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-monitoring-of-user-medical-equipment-use module m 120 depicted in FIG. 9 as being included in the module m 117 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 120 . Illustratively, in one or more implementations, the operation o 120 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user ambulatory status monitoring (e.g., receiving historical or current ambulatory status information such as ambulatory functional status records of walking, running, climbing, using a wheelchair, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved monitoring of user-medical-equipment use (e.g., wheel-chair skill level, walker-dependency, dental-care equipment use, electronic-pain-relieving device use, etc.).
In one or more implementations, as shown in FIG. 47 , the operation o 115 can include operation o 121 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user functional status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 121 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 121 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-performance-status-monitoring module m 121 depicted in FIG. 8 as being included in the module m 115 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 121 . Illustratively, in one or more implementations, the operation o 121 can be fulfilled, for example, by electronically monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user functional status monitoring (e.g., receiving historical or current functional status information such as ambulatory functional status records of walking, running, climbing, sleeping, housework, educational, musical, athletic, recreational, vocational, etc. functional performance, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 49 , the operation o 121 can include operation o 122 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved vocationally-related user performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 122 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 122 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-vocationally-related-user-performance-status-monitoring module m 122 depicted in FIG. 10 as being included in the module m 121 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 122 . Illustratively, in one or more implementations, the operation o 122 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved vocationally-related user performance status monitoring (e.g., such as number of hours worked per week or other time period, amount of defined type of work produced, amount of income brought into company such as through sales, number of customers served, changes in income levels, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 49 , the operation o 121 can include operation o 123 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved recreationally related user performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 123 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 123 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-recreationally-related-user-performance-status-monitoring module m 123 depicted in FIG. 10 as being included in the module m 121 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 123 . Illustratively, in one or more implementations, the operation o 123 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved recreationally related user performance status monitoring (e.g., receiving historical or current recreationally related user performance status information such as hours spent on family outings, number of vacation trips taken, amount of time spent with particular individuals such as family members, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 49 , the operation o 121 can include operation o 124 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user athletic performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 124 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 124 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-athletic-performance-status-monitoring module m 124 depicted in FIG. 10 as being included in the module m 121 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 124 . Illustratively, in one or more implementations, the operation o 124 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user athletic performance status monitoring (e.g., such as number of hours worked per week or other time period, amount of defined type of work produced, amount of income brought into company such as through sales, number of customers served, changes in income levels, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 50 , the operation o 121 can include operation o 125 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user musical performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 125 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 125 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-musical-performance-status-monitoring module m 125 depicted in FIG. 10 as being included in the module m 121 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 125 . Illustratively, in one or more implementations, the operation o 125 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user musical performance status monitoring (e.g., receiving historical or current musically related user performance status information such as data regarding amount of time spent practicing particular sections of a song, data regarding note accuracy, adherence to goals regarding tempo, articulation, phrasing, dynamics, etc. for instrumental or vocal performance of one or more portions of music, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 50 , the operation o 121 can include operation o 126 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user education performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 126 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 126 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-education-performance-status-monitoring module m 126 depicted in FIG. 10 as being included in the module m 121 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 126 . Illustratively, in one or more implementations, the operation o 126 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user education performance status monitoring (e.g., such as grades achieved, degrees earned, number of courses taken per period, degree of difficulty of classes, weekly class, load, number of tests or papers scheduled in a period, number of outbursts in classroom, number of truancies per period, amount of extracurricular activity, progress rate in learning, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 50 , the operation o 121 can include operation o 127 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user performance status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user domestically related performance status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 127 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 127 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-domestically-related-performance-status-monitoring module m 127 depicted in FIG. 10 as being included in the module m 121 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 127 . Illustratively, in one or more implementations, the operation o 127 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user performance status monitoring (e.g., receiving historical or current user performance status information such as data regarding amount of sales made on job, school grades, number of trips taken, hours spent practicing a skill, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user domestically related performance status monitoring (e.g., receiving historical or current domestically related user performance status information regarding decibel levels of conversation, amount of time household occupants converse with each other, amount of time family members spend time with each other, activities that family members spend time with each other, positional data regarding various family members locations through the day, week, or longer, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 51 , the operation o 115 can include operation o 128 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user functional status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user postural status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 128 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 128 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-postural-status-monitoring module m 128 depicted in FIG. 8 as being included in the module m 115 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 128 . Illustratively, in one or more implementations, the operation o 128 can be fulfilled, for example, by electronically monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user functional status monitoring (e.g., receiving historical or current functional status information such as ambulatory functional status records of walking, running, climbing, sleeping, housework, educational, musical, athletic, recreational, vocational, etc. functional performance, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user postural status monitoring (e.g., such as amount of time spent sitting between periods of movement out of chair, posture expressed in sitting, walking, standing, lying, driving, office work, manual labor, recreating, athletics, in relation to furniture, equipment, fixtures, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 51 , the operation o 115 can include operation o 129 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user functional status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user sensory status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 129 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 129 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-sensory-status-monitoring module m 129 depicted in FIG. 8 as being included in the module m 115 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 129 . Illustratively, in one or more implementations, the operation o 129 can be fulfilled, for example, by electronically monitoring of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user functional status monitoring (e.g., receiving historical or current functional status information such as ambulatory functional status records of walking, running, climbing, sleeping, housework, educational, musical, athletic, recreational, vocational, etc. functional performance, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user sensory status monitoring (e.g., receiving historical or current sensory status information such as data regarding acuity, sensitivity, or other parameters in hearing or eyesight, touch, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 52 , the operation o 129 can include operation o 130 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user sensory status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved visual related user sensory status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 130 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 130 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-visual-related-user-sensory-status-monitoring module m 130 depicted in FIG. 11 as being included in the module m 129 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 130 . Illustratively, in one or more implementations, the operation o 130 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user sensory status monitoring (e.g., receiving historical or current sensory status information such as data regarding acuity, sensitivity, or other parameters in hearing or eyesight, touch, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved visual related user sensory status monitoring (e.g., such as time spent with various visual environments such as monitors or other displays, reading books, driving, relaxing, outdoor activities, concentration, eyewear used at various times, corrective surgery or other surgical procedures performed or anticipated, infections involved, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 52 , the operation o 129 can include operation o 131 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user sensory status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved gustatory related user sensory status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 131 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 131 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-gustatory-related-user-sensory-status-monitoring module m 131 depicted in FIG. 11 as being included in the module m 129 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 131 . Illustratively, in one or more implementations, the operation o 131 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user sensory status monitoring (e.g., receiving historical or current sensory status information such as data regarding acuity, sensitivity, or other parameters in hearing or eyesight, touch, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved gustatory related user sensory status monitoring (e.g., receiving historical or current gustatory status information such as data regarding amount of salt, sugar, or taste modifiers, etc. typically used, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 52 , the operation o 129 can include operation o 132 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user sensory status monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved auditory related user sensory status monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 132 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 132 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-auditory-related-user-sensory-status-monitoring module m 132 depicted in FIG. 11 as being included in the module m 129 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 132 . Illustratively, in one or more implementations, the operation o 132 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user sensory status monitoring (e.g., receiving historical or current sensory status information such as data regarding acuity, sensitivity, or other parameters in hearing or eyesight, touch, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved auditory related user sensory status monitoring (e.g., such as decibel level exposure in various audio environments, accustomed audio levels in hearing speech, audio devices such as computer, phone, radio, etc. infections involved, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 42 , the operation o 11 can include operation o 133 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 133 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 133 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-behavioral-life-data-monitoring module m 133 depicted in FIG. 5 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 133 . Illustratively, in one or more implementations, the operation o 133 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.).
In one or more implementations, as shown in FIG. 53 , the operation o 133 can include operation o 134 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved vocation related user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 134 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 134 . Furthermore, electronically-monitoring-user-behavioral-aspect-data-and-user-behavioral-life-data-as-electronically-involved-vocation-related-user-behavioral-life-data module m 134 depicted in FIG. 12 as being included in the module m 133 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 134 . Illustratively, in one or more implementations, the operation o 134 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved vocation related user behavioral life data monitoring (e.g., such as attendance periods at vocation, vocational stress levels, vocational advancement levels, number of business trips taken, duration of business trips, commuting hours expended, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 53 , the operation o 133 can include operation o 135 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved recreation related user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 135 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 135 . Furthermore, electronically-monitoring-user-behavioral-aspect-data-and-user-behavioral-life-data-as-electronically-involved-recreation-related-user-behavioral-life-data module m 135 depicted in FIG. 12 as being included in the module m 133 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 135 . Illustratively, in one or more implementations, the operation o 135 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved recreation related user behavioral life data monitoring (e.g., receiving historical or current recreation related user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, employee recreation activities such as vacation, hobbies, etc. regarding such as words, phrases, verbalization, body language, written products, etc.).
In one or more implementations, as shown in FIG. 53 , the operation o 133 can include operation o 136 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved athletic related user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 136 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 136 . Furthermore, electronically-monitoring-user-behavioral-aspect-data-and-user-behavioral-life-data-electronically-involved-athletic-related-user-behavioral-life-data module m 136 depicted in FIG. 12 as being included in the module m 133 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 136 . Illustratively, in one or more implementations, the operation o 136 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved athletic related user behavioral life data monitoring (e.g., such as number of points scored, number of assists executed, duration or scheduling of training or games, accomplishments, recovery ability, days of rest, type of sport(s), current part of season, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 54 , the operation o 133 can include operation o 137 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved music related user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 137 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 137 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-music-related-user-behavioral-life-data-monitoring module m 137 depicted in FIG. 12 as being included in the module m 133 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 137 . Illustratively, in one or more implementations, the operation o 137 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved music related user behavioral life data monitoring (e.g., receiving historical or current music related user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, groups in music lessons, performances, such as words, phrases, verbalization, body language, practicing habits, instrumental or vocal technique, etc.).
In one or more implementations, as shown in FIG. 54 , the operation o 133 can include operation o 138 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved education related user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 138 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 138 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-education-related-user-behavioral-life-data-monitoring module m 138 depicted in FIG. 12 as being included in the module m 133 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 138 . Illustratively, in one or more implementations, the operation o 138 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved education related user behavioral life data monitoring (e.g., such as time spent or degree of involvement in class—studying, doing homework, extra-curricular activity, encouraged activities, discouraged activities, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 54 , the operation o 133 can include operation o 139 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user behavioral life data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved domestic related user behavioral life data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 139 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 139 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-domestic-related-user-behavioral-life-data-monitoring module m 139 depicted in FIG. 12 as being included in the module m 133 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 139 . Illustratively, in one or more implementations, the operation o 139 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user behavioral life data monitoring (e.g., receiving historical or current user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, organizational member, company employee in groups, family, work setting, school, such as words, phrases, verbalization, body language, written products, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved domestic related user behavioral life data monitoring (e.g., receiving historical or current domestic related user behavioral life data such as data regarding desired or undesirable behavior of individual, family member, child, parent, etc. in home, family setting, such as words, phrases, verbalization, body language, written products, etc.).
In one or more implementations, as shown in FIG. 55 , the operation o 11 can include operation o 140 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self information monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 140 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 140 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-quantified-self-information-monitoring module m 140 depicted in FIG. 5 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 140 . Illustratively, in one or more implementations, the operation o 140 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self information monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 57 , the operation o 140 can include operation o 141 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self information monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 141 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 141 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-user-quantified-self-data-monitoring module m 141 depicted in FIG. 13 as being included in the module m 140 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 141 . Illustratively, in one or more implementations, the operation o 141 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self information monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 58 , the operation o 141 can include operation o 142 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved vocation related user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 142 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 142 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-vocation-related-user-quantified-self-data-monitoring module m 142 depicted in FIG. 14 as being included in the module m 141 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 142 . Illustratively, in one or more implementations, the operation o 142 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved vocation related user quantified-self data monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an vocational activity or measurement of an individual such as related to a tasks of a job, interaction with workers, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 58 , the operation o 141 can include operation o 143 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved recreation related user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 143 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 143 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-recreation-related-user-quantified-self-data-monitoring module m 143 depicted in FIG. 14 as being included in the module m 141 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 143 . Illustratively, in one or more implementations, the operation o 143 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved recreation related user quantified-self data monitoring (e.g., receiving historical or current recreation related user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences such as personal maintenance habits such as eating, social interaction habits, etc. regarding the individual's recreational activities regarding such as hobbies, sports events, vacation, trips, clubs, family outings, family reunions, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 58 , the operation o 141 can include operation o 144 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved athletic related user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 144 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 144 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-athletic-related-user-quantified-self-data-monitoring module m 144 depicted in FIG. 14 as being included in the module m 141 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 144 . Illustratively, in one or more implementations, the operation o 144 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved athletic related user quantified-self data monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual such as involving training, playing a game, practicing, interaction with team mates or opponents, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 59 , the operation o 141 can include operation o 145 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved music related user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 145 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 145 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-music-related-user-quantified-self-data-monitoring module m 145 depicted in FIG. 14 as being included in the module m 141 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 145 . Illustratively, in one or more implementations, the operation o 145 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved music related user quantified-self data monitoring (e.g., receiving historical or current recreation related user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences such as personal practicing, listening, performing, etc. habits such as instrumental playing, singing, composing, listening, social interaction habits, etc. regarding the individual's music activities of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 59 , the operation o 141 can include operation o 146 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved education related user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 146 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 146 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-education-related-user-quantified-self-data-monitoring module m 146 depicted in FIG. 14 as being included in the module m 141 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 146 . Illustratively, in one or more implementations, the operation o 146 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved education related user quantified-self data monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual such as test performance, class, room involvement, interaction with peers, interaction with teachers, extra-curricular activity involvement, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 59 , the operation o 141 can include operation o 147 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self data monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved domestic related user quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 147 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 147 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-domestic-related-user-quantified-self-data-monitoring module m 147 depicted in FIG. 14 as being included in the module m 141 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 147 . Illustratively, in one or more implementations, the operation o 147 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self data monitoring (e.g., receiving historical or current user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences regarding the individual such as eating habits, movement habits, interaction with others, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved domestic related user quantified-self data monitoring (e.g., receiving historical or current domestic related user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences such as personal maintenance habits such as eating, social interaction habits, etc. regarding the individual's domestic activities regarding such as housework, family activities such as dining, leisure, dialog, spectator activity, yard work, vacations, outings, gatherings, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 57 , the operation o 140 can include operation o 148 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self information monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved organizationally collected quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 148 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 148 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-organizationally-collected-quantified-self-data-monitoring module m 148 depicted in FIG. 13 as being included in the module m 140 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 148 . Illustratively, in one or more implementations, the operation o 148 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self information monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved organizationally collected quantified-self data monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual such as involving business group, military company, athletic team, regarding amount of work collectively done, amount of sales collectively achieved, number of games collectively won, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 57 , the operation o 140 can include operation o 149 for electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved user quantified-self information monitoring including electronically monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user as at least in part electronically-involved social-network collected quantified-self data monitoring. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 149 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 149 . Furthermore, electronically-monitoring-of-user-behavioral-aspect-data-of-the-user-as-electronically-involved-social-network-collected-quantified-self-data-monitoring module m 149 depicted in FIG. 13 as being included in the module m 140 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 149 . Illustratively, in one or more implementations, the operation o 149 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved user quantified-self information monitoring (e.g., such as amount, intensity, duration, frequency, etc. involving an activity or measurement of an individual, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part electronically-involved social-network collected quantified-self data monitoring (e.g., receiving historical or current social network collected user quantified-self data as personal data of an individual collected through wearable or non-wearable sensors as directed or managed by the individual regarding life-style influences as reported to a social network group such as personal maintenance habits such as eating, social interaction habits, etc. or other activities regarding such as hobbies, sports events, vacation, trips, clubs, family outings, family reunions, etc. of medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc.).
In one or more implementations, as shown in FIG. 55 , the operation o 11 can include operation o 150 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 150 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 150 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-invasive-or-noninvasive-user-physiological-aspect-data module m 150 depicted in FIG. 5 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 150 . Illustratively, in one or more implementations, the operation o 150 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.).
In one or more implementations, as shown in FIG. 60 , the operation o 150 can include operation o 151 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving molecular markers. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 151 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 151 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-molecular-markers module m 151 depicted in FIG. 15 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 151 . Illustratively, in one or more implementations, the operation o 151 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving molecular markers (e.g., monitoring regarding proteins, antibodies, hormonal, etc.).
In one or more implementations, as shown in FIG. 60 , the operation o 150 can include operation o 152 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving chemical analysis. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 152 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 152 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-chemical-analysis module m 152 depicted in FIG. 15 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 152 . Illustratively, in one or more implementations, the operation o 152 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving chemical analysis (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) involving chemical analysis (e.g., from chemical analysis monitoring such as blood lipids, toxin levels, glucose concentration, steroid concentration, uric acid concentration, etc.).
In one or more implementations, as shown in FIG. 60 , the operation o 150 can include operation o 153 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving analytes. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 153 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 153 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-analytes module m 153 depicted in FIG. 15 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 153 . Illustratively, in one or more implementations, the operation o 153 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving analytes (e.g., analyte monitoring such as glucose concentration, steroid concentration, uric acid concentration, etc.).
In one or more implementations, as shown in FIG. 61 , the operation o 150 can include operation o 154 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving electrolytes. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 154 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 154 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-electrolytes module m 154 depicted in FIG. 15 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 154 . Illustratively, in one or more implementations, the operation o 154 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving electrolytes (e.g., electrolyte monitoring of potassium, sodium, magnesium, or other blood mineral levels, etc.).
In one or more implementations, as shown in FIG. 61 , the operation o 150 can include operation o 155 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving cellular sampling. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 155 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 155 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-cellular-sampling module m 155 depicted in FIG. 15 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 155 . Illustratively, in one or more implementations, the operation o 155 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving cellular sampling (e.g., cellular sampling such as DNA sampling, mitochondrial sampling, etc.).
In one or more implementations, as shown in FIG. 61 , the operation o 150 can include operation o 156 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving tissue sampling. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 156 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 156 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-tissue-sampling module m 156 depicted in FIG. 15 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 156 . Illustratively, in one or more implementations, the operation o 156 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving tissue sampling (e.g., tissue sampling such as mineral hair analysis, biopsies, etc.).
In one or more implementations, as shown in FIG. 62 , the operation o 150 can include operation o 157 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving fluid sampling. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 157 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 157 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-fluid-sampling module m 157 depicted in FIG. 16 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 157 . Illustratively, in one or more implementations, the operation o 157 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving fluid sampling (e.g., fluid sampling monitoring such as blood, saliva, urine, etc. sampling, etc.).
In one or more implementations, as shown in FIG. 62 , the operation o 150 can include operation o 158 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving implantation. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 158 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 158 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-implantation module m 158 depicted in FIG. 16 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 158 . Illustratively, in one or more implementations, the operation o 158 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving implantation (e.g., blood pressure and flow rate data from implantation of sensor containing stents, etc.).
In one or more implementations, as shown in FIG. 62 , the operation o 150 can include operation o 159 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving user positional information of one or more user body portions. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 159 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 159 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-user-positional-information-of-user-body-portions module m 159 depicted in FIG. 16 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 159 . Illustratively, in one or more implementations, the operation o 159 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving user positional information of one or more user body portions (e.g., monitoring of user positional information such as from global position satellite (GPS) system data, fixed positional marker data such as through communication interaction with a fixed food dispensing station, communication interaction with others at known locations, communication interaction with an electronic personal device containing position data, etc.).
In one or more implementations, as shown in FIG. 63 , the operation o 150 can include operation o 160 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving audio data. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 160 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 160 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-audio-data module m 160 depicted in FIG. 16 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 160 . Illustratively, in one or more implementations, the operation o 160 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving audio data (e.g., verbal comments by users, observers, etc. regarding health or disease status, etc.).
In one or more implementations, as shown in FIG. 63 , the operation o 150 can include operation o 161 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving video data. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 161 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 161 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-video-data module m 161 depicted in FIG. 16 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 161 . Illustratively, in one or more implementations, the operation o 161 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving video data (e.g., monitoring through pattern recognition of video images, etc.).
In one or more implementations, as shown in FIG. 63 , the operation o 150 can include operation o 162 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving user controlled input. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 162 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 162 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-user-controlled-input module m 162 depicted in FIG. 16 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 162 . Illustratively, in one or more implementations, the operation o 162 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving user controlled input (e.g., user input through computer input devices such as keyboard, voice recognition, touch screen, mouse, etc. regarding health or disease status, etc.).
In one or more implementations, as shown in FIG. 64 , the operation o 150 can include operation o 163 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving dermal sampling. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 163 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 163 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-dermal-sampling module m 163 depicted in FIG. 17 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 163 . Illustratively, in one or more implementations, the operation o 163 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving dermal sampling (e.g., monitoring of user skin debris samples, etc.).
In one or more implementations, as shown in FIG. 64 , the operation o 150 can include operation o 164 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving thermal data collection. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 164 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 164 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-thermal-data-collection module m 164 depicted in FIG. 17 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 164 . Illustratively, in one or more implementations, the operation o 164 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving thermal data collection (e.g., forehead thermal scan, oral temperature, basal temperature, etc. collection regarding health or disease status, etc.).
In one or more implementations, as shown in FIG. 64 , the operation o 150 can include operation o 165 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part invasive or noninvasive user physiological aspect data including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data involving electromagnetic data collection. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 165 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 165 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-involving-electromagnetic-data-collection module m 165 depicted in FIG. 17 as being included in the module m 150 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 165 . Illustratively, in one or more implementations, the operation o 165 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part invasive or noninvasive user physiological aspect data (e.g., insertion of instrument, object, etc. into body, cavity, etc. such as needles, probes, tubes, sensors, devices, nanosensors such as biological, chemical, surgical, mechanical, electronic or other, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data involving electromagnetic data collection (e.g., monitoring with thermal infrared scans, x-ray scans, etc.).
In one or more implementations, as shown in FIG. 56 , the operation o 11 can include operation o 166 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 166 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 166 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-disease module m 166 depicted in FIG. 5 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 166 . Illustratively, in one or more implementations, the operation o 166 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.).
In one or more implementations, as shown in FIG. 65 , the operation o 166 can include operation o 167 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part chronic disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 167 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 167 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-chronic-disease module m 167 depicted in FIG. 18 as being included in the module m 166 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 167 . Illustratively, in one or more implementations, the operation o 167 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part chronic disease (e.g., data regarding cancer, cardiovascular disease, chronic obstructive pulmonary disorder, asthma, allergies, etc.).
In one or more implementations, as shown in FIG. 65 , the operation o 166 can include operation o 168 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part acute disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 168 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 168 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-acute-disease module m 168 depicted in FIG. 18 as being included in the module m 166 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 168 . Illustratively, in one or more implementations, the operation o 168 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part acute disease (e.g., psychologically associated activity level regarding stages of denial, anger, bargaining, depression, acceptance, apathy, indifference, etc.).
In one or more implementations, as shown in FIG. 65 , the operation o 166 can include operation o 169 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part symptomatic disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 169 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 169 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-symptomatic-disease module m 169 depicted in FIG. 18 as being included in the module m 166 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 169 . Illustratively, in one or more implementations, the operation o 169 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part symptomatic disease (e.g., data regarding migraine headaches, joint pains, shortness of breath, etc.).
In one or more implementations, as shown in FIG. 66 , the operation o 166 can include operation o 170 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part diagnosed disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 170 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 170 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-diagnosed-disease module m 170 depicted in FIG. 18 as being included in the module m 166 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 170 . Illustratively, in one or more implementations, the operation o 170 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part diagnosed disease (e.g., monitoring of diagnosed disease such as cancer, heart disease, diabetes, hypothyroidism, chronic fatigue, influenza, etc.).
In one or more implementations, as shown in FIG. 66 , the operation o 166 can include operation o 171 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part epidemic related disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 171 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 171 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-epidemic-related-disease module m 171 depicted in FIG. 18 as being included in the module m 166 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 171 . Illustratively, in one or more implementations, the operation o 171 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part epidemic related disease (e.g., data regarding influenza, strep throat, polio, common cold, etc.).
In one or more implementations, as shown in FIG. 66 , the operation o 166 can include operation o 172 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part disease including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part life-style induced disease. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 172 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 172 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-life-style-induced-disease module m 172 depicted in FIG. 18 as being included in the module m 166 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 172 . Illustratively, in one or more implementations, the operation o 172 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part disease (e.g., monitoring of disease such as cancer, cardiovascular, chronic, acute, temporary, intermittent, contagious, epidemic, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part life-style induced disease (e.g., from monitoring of alcohol or drug induced intoxication, work induced enervation, immobility induced disease, etc.).
In one or more implementations, as shown in FIG. 67 , the operation o 11 can include operation o 173 for electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part health. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 173 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 173 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-health module m 173 depicted in FIG. 19 as being included in the module m 11 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 173 . Illustratively, in one or more implementations, the operation o 173 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., continuous, intermittent data flow involving at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) of user physiological aspect data of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part health (e.g., data regarding body weight management records, physical exercise records, fitness measurements such as waist measurement records, resting pulse, recovery rate data, etc.).
In one or more implementations, as shown in FIG. 68 , the operation o 173 can include operation o 174 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part health including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part enhancement of a health related condition. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 174 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 174 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-enhancement-of-a-health-related-condition module m 174 depicted in FIG. 20 as being included in the module m 173 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 174 . Illustratively, in one or more implementations, the operation o 174 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part health (e.g., data regarding body weight management records, physical exercise records, fitness measurements such as waist measurement records, resting pulse, recovery rate data, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part enhancement of a health related condition (e.g., monitoring of user body weight, VO2 max, waist measurement, weight lifting ability, etc.).
In one or more implementations, as shown in FIG. 68 , the operation o 173 can include operation o 175 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part health including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part reduction of a health related condition. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 175 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 175 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-reduction-of-a-health-related-condition module m 175 depicted in FIG. 20 as being included in the module m 173 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 175 . Illustratively, in one or more implementations, the operation o 175 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part health (e.g., data regarding body weight management records, physical exercise records, fitness measurements such as waist measurement records, resting pulse, recovery rate data, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part reduction of a health related condition (e.g., data regarding reduction of swelling, joint pain, headaches, shortness of breath, etc.).
In one or more implementations, as shown in FIG. 68 , the operation o 173 can include operation o 176 for electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part health including electronically monitoring of user physiological aspect data of the electronic-semiconductor-transistor-based-device user as at least in part user physiological aspect data regarding at least in part augmentation of a health related condition. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 176 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 176 . Furthermore, electronically-monitoring-of-user-physiological-aspect-data-of-the-user-as-user-physiological-aspect-data-regarding-augmentation-of-a-health-related-condition module m 176 depicted in FIG. 20 as being included in the module m 173 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 176 . Illustratively, in one or more implementations, the operation o 176 can be fulfilled, for example, by electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part health (e.g., data regarding body weight management records, physical exercise records, fitness measurements such as waist measurement records, resting pulse, recovery rate data, etc.) including electronically monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, data, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of the electronic-semiconductor-transistor-based-device (e.g., electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) user as at least in part user physiological aspect data regarding at least in part augmentation of a health related condition (e.g., monitoring of progressive gains strength training, endurance exercise activity, etc.).
In one or more implementations, as shown in FIG. 69 , the operation o 12 can include operation o 177 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 177 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 177 . Furthermore, electronically-receiving-food-based-ingredient-information-regarding-food-fabrication-factors-from-food-fabricator-machines module m 177 depicted in FIG. 21 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 177 . Illustratively, in one or more implementations, the operation o 177 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.).
In one or more implementations, as shown in FIG. 70 , the operation o 177 can include operation o 178 for electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines including electronically receiving food ingredient historical application data from one or more food fabricator machines. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 178 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 178 . Furthermore, electronically-receiving-food-ingredient-historical-application-data-from-food-fabricator-machines module m 178 depicted in FIG. 22 as being included in the module m 177 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 178 . Illustratively, in one or more implementations, the operation o 178 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food ingredient historical application data (e.g., prior preparation factors, recorded user preferences, prior food selection, tagged recipes of previous orders, calendar associated selections, statistical patterns of previous meal compositions, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.).
In one or more implementations, as shown in FIG. 70 , the operation o 177 can include operation o 179 for electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines including electronically receiving food fabricator machine specification data for food preparation applied energy data. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 179 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 179 . Furthermore, electronically-receiving-food-fabricator-machine-specification-data-for-food-preparation-applied-energy-data module m 179 depicted in FIG. 22 as being included in the module m 177 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 179 . Illustratively, in one or more implementations, the operation o 179 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine specification data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, production quality levels, timing parameters, etc.) for food preparation applied energy data (e.g., instruction as instruction for temperature to cook meal, for amount of microwave energy to apply to food item, for induction heating of cookware for ingestible material, for steaming of food items, etc.).
In one or more implementations, as shown in FIG. 70 , the operation o 177 can include operation o 180 for electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines including electronically receiving food fabricator machine specification data for food preparation timing data. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 180 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 180 . Furthermore, electronically-receiving-food-fabricator-machine-specification-data-for-food-preparation-timing-data module m 180 depicted in FIG. 22 as being included in the module m 177 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 180 . Illustratively, in one or more implementations, the operation o 180 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine specification data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) for food preparation timing data (e.g., instruction regarding timing as to when specified ingestible components are to fabricated relative to when other ingestible components are to be fabricated, timing as to when an ingestible product is to be completed, etc.).
In one or more implementations, as shown in FIG. 71 , the operation o 177 can include operation o 181 for electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines including electronically receiving food fabricator machine specification data for one or more ingredient quantity processing capacities. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 181 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 181 . Furthermore, electronically-receiving-food-fabricator-machine-specification-data-for-ingredient-quantity-processing-capacities module m 181 depicted in FIG. 22 as being included in the module m 177 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 181 . Illustratively, in one or more implementations, the operation o 181 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine specification data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) for one more ingredient quantity processing capacities (e.g., instruction for amount of salt, sugar, fats, proteins, carbohydrates, etc.).
In one or more implementations, as shown in FIG. 71 , the operation o 177 can include operation o 182 for electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines including electronically receiving food fabricator machine specification data for one or more ingredient quality factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 182 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 182 . Furthermore, electronically-receiving-food-fabricator-machine-specification-data-for-ingredient-quality-factors module m 182 depicted in FIG. 22 as being included in the module m 177 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 182 . Illustratively, in one or more implementations, the operation o 182 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine specification data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) for one more ingredient quality factors (e.g., instruction as to when past-sell-by-dated food should be disposed of, freshness-certified ingestible product, etc.).
In one or more implementations, as shown in FIG. 71 , the operation o 177 can include operation o 183 for electronically receiving food-based ingredient information regarding food fabrication factors from one or more food fabricator machines including electronically receiving food fabricator machine specification data for one or more restocking factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 183 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 183 . Furthermore, electronically-receiving-food-fabricator-machine-specification-data-for-restocking-factors module m 183 depicted in FIG. 22 as being included in the module m 177 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 183 . Illustratively, in one or more implementations, the operation o 183 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food fabrication factors (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine specification data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) for one more restocking factors (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.).
In one or more implementations, as shown in FIG. 69 , the operation o 12 can include operation o 184 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 184 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 184 . Furthermore, electronically-receiving-food-based-ingredient-information-regarding-electronically-involved-food-dispensing-aspects-from-food-fabricator-machines module m 184 depicted in FIG. 21 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 184 . Illustratively, in one or more implementations, the operation o 184 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.).
In one or more implementations, as shown in FIG. 72 , the operation o 184 can include operation o 185 for electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines including electronically receiving food fabricator machine data regarding one or more food ingredient combining procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 185 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 185 . Furthermore, electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-combining-procedures module m 185 depicted in FIG. 23 as being included in the module m 184 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 185 . Illustratively, in one or more implementations, the operation o 185 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) regarding one or more food ingredient combining procedures (e.g., instruction as instruction regarding food combining rules as to ratios of what to mix concerning fruit, vegetable, meat, starch, oil, sugars, salt, etc.).
In one or more implementations, as shown in FIG. 72 , the operation o 184 can include operation o 186 for electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines including electronically receiving food fabricator machine data regarding one or more food ingredient processing aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 186 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 186 . Furthermore, electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-processing-aspects module m 186 depicted in FIG. 23 as being included in the module m 184 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 186 . Illustratively, in one or more implementations, the operation o 186 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) regarding one or more food ingredient processing aspects (e.g., instruction as to ingestible material assembling, mixing, combining, extruding, printing, etc.).
In one or more implementations, as shown in FIG. 72 , the operation o 184 can include operation o 187 for electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines including electronically receiving food fabricator machine data regarding one or more food ingredient packaging aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 187 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 187 . Furthermore, electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-packaging-aspects module m 187 depicted in FIG. 23 as being included in the module m 184 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 187 . Illustratively, in one or more implementations, the operation o 187 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) regarding one or more food ingredient packaging aspects (e.g., instruction as to size, internal dividers, thermal insulation capability, etc.).
In one or more implementations, as shown in FIG. 73 , the operation o 184 can include operation o 188 for electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines including electronically receiving food fabricator machine data regarding one or more food ingredient assembling procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 188 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 188 . Furthermore, electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-assembling-procedures module m 188 depicted in FIG. 23 as being included in the module m 184 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 188 . Illustratively, in one or more implementations, the operation o 188 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) regarding one or more food ingredient assembling procedures (e.g., instruction as to assembly order, timing, delivery schedule, etc. of ingestible material components, etc.).
In one or more implementations, as shown in FIG. 73 , the operation o 184 can include operation o 189 for electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines including electronically receiving food fabricator machine data regarding one or more food ingredient manufacturing procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 189 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 189 . Furthermore, electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-manufacturing-procedures module m 189 depicted in FIG. 23 as being included in the module m 184 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 189 . Illustratively, in one or more implementations, the operation o 189 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) regarding one or more food ingredient manufacturing procedures (e.g., instruction as to service queue waiting times in fulfilling orders, etc.).
In one or more implementations, as shown in FIG. 73 , the operation o 184 can include operation o 190 for electronically receiving food-based ingredient information regarding electronically involved food dispensing aspects from one or more food fabricator machines including electronically receiving food fabricator machine data regarding one or more food ingredient delivery aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 190 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 190 . Furthermore, electronically-receiving-food-fabricator-machine-data-regarding-food-ingredient-delivery-aspects module m 190 depicted in FIG. 23 as being included in the module m 184 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 190 . Illustratively, in one or more implementations, the operation o 190 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food fabricator machine data (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) regarding one or more food ingredient delivery aspects (e.g., instruction as to delivery timing, routing, priorities involved, etc.).
In one or more implementations, as shown in FIG. 69 , the operation o 12 can include operation o 191 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 191 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 191 . Furthermore, electronically-receiving-food-based-ingredient-information-regarding-food-component-aspects-from-food-fabricator-machines module m 191 depicted in FIG. 21 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 191 . Illustratively, in one or more implementations, the operation o 191 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.).
In one or more implementations, as shown in FIG. 74 , the operation o 191 can include operation o 192 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including carbohydrate related food ingredient availability. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 192 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 192 . Furthermore, electronically-receiving-food-based-ingredient-information-including-carbohydrate-related-food-ingredient-availability module m 192 depicted in FIG. 24 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 192 . Illustratively, in one or more implementations, the operation o 192 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including carbohydrate related food ingredient availability (e.g., instruction as to amounts used of dextrose, sucrose, fructose, high-fructose corn syrup, fiber, dextrin, etc.).
In one or more implementations, as shown in FIG. 74 , the operation o 191 can include operation o 193 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including protein related food ingredient availability. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 193 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 193 . Furthermore, electronically-receiving-food-based-ingredient-information-including-protein-related-food-ingredient-availability module m 193 depicted in FIG. 24 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 193 . Illustratively, in one or more implementations, the operation o 193 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including protein related food ingredient availability (e.g., instruction regarding protein quantity or quality of source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 74 , the operation o 191 can include operation o 194 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including fat related food ingredient availability. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 194 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 194 . Furthermore, electronically-receiving-food-based-ingredient-information-including-fat-related-food-ingredient-availability module m 194 depicted in FIG. 24 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 194 . Illustratively, in one or more implementations, the operation o 194 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including fat related food ingredient availability (e.g., instruction as to amounts used of omega three fatty acids, omega six fatty acids, saturated fat, unsaturated fat, polyunsaturated fat, monounsaturated fat, etc.).
In one or more implementations, as shown in FIG. 75 , the operation o 191 can include operation o 195 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including micronutrient related food ingredient availability. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 195 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 195 . Furthermore, electronically-receiving-food-based-ingredient-information-including-micronutrient-related-food-ingredient-availability module m 195 depicted in FIG. 24 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 195 . Illustratively, in one or more implementations, the operation o 195 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including micronutrient related food ingredient availability (e.g., instruction regarding micronutrient quantity or quality or source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 75 , the operation o 191 can include operation o 196 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including stocking of one or more gustatory components. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 196 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 196 . Furthermore, electronically-receiving-food-based-ingredient-information-including-stocking-of-gustatory-components module m 196 depicted in FIG. 24 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 196 . Illustratively, in one or more implementations, the operation o 196 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including stocking of one or more gustatory components (e.g., instruction as to levels used of sweet tasting components, salty tasting components, sour tasting components, bitter tasting components, savory tasting components, etc.).
In one or more implementations, as shown in FIG. 75 , the operation o 191 can include operation o 197 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including availability of one or more food ingredients associated with one or more snack related categories. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 197 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 197 . Furthermore, electronically-receiving-food-based-ingredient-information-including-availability-of-food-ingredients-associated-with-snack-related-categories module m 197 depicted in FIG. 24 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 197 . Illustratively, in one or more implementations, the operation o 197 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including availability of one or more food ingredients associated with one or more snack related categories (e.g., instruction regarding hot snacks, cold snacks, individually packaged snacks, collection of snacks, prohibited ingredients, required ingredients, etc.).
In one or more implementations, as shown in FIG. 76 , the operation o 191 can include operation o 198 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including information involved with one or more full course meals. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 198 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 198 . Furthermore, electronically-receiving-food-based-ingredient-information-including-information-involved-with-full-course-meals module m 198 depicted in FIG. 25 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 198 . Illustratively, in one or more implementations, the operation o 198 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including information involved with one or more full course meals (e.g., instruction as to ethnic type of full meal to produce, portion size of full meal to produce, quality level of full meal to produce, non-organic components of full meal to produce, organic components of full meal to produce, etc.).
In one or more implementations, as shown in FIG. 76 , the operation o 191 can include operation o 199 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including availability of nutritional supplementation. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 199 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 199 . Furthermore, electronically-receiving-food-based-ingredient-information-including-availability-of-nutritional-supplementation module m 199 depicted in FIG. 25 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 199 . Illustratively, in one or more implementations, the operation o 199 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including availability of nutritional supplementation (e.g., instruction regarding supplemental components such as thickeners, sweeteners, emulsifiers, preservatives, gelling agents, nutrient enhancers, taste enhancers, etc.).
In one or more implementations, as shown in FIG. 76 , the operation o 191 can include operation o 200 for electronically receiving food-based ingredient information regarding food component aspects from one or more food fabricator machines including electronically receiving food-based ingredient information including information regarding one or more beverages. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 200 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 200 . Furthermore, electronically-receiving-food-based-ingredient-information-including-information-regarding-beverages module m 200 depicted in FIG. 25 as being included in the module m 191 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 200 . Illustratively, in one or more implementations, the operation o 200 can be fulfilled, for example, by electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.) from one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court, etc.) including electronically receiving (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including information regarding one or more beverages (e.g., instruction to as quantity or type to use of water, sugar, artificial sweetener, aeration, natural carbonation, artificial carbonation, phosphoric acid, fluoride, chlorine, alcohol, artificial or natural flavorings, etc.).
In one or more implementations, as shown in FIG. 77 , the operation o 12 can include operation o 201 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 201 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 201 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-regarding-food-recipe-factors-from-food-recipe-information-services module m 201 depicted in FIG. 21 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 201 . Illustratively, in one or more implementations, the operation o 201 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 78 , the operation o 201 can include operation o 202 for electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services including electronically receiving food ingredient application data from one or more food recipe information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 202 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 202 . Furthermore, electronically-receiving-food-ingredient-application-data-from-food-recipe-information-services module m 202 depicted in FIG. 26 as being included in the module m 201 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 202 . Illustratively, in one or more implementations, the operation o 202 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food ingredient application data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 78 , the operation o 201 can include operation o 203 for electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services including electronically receiving food recipe data for one or more food preparation applied energies. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 203 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 203 . Furthermore, electronically-receiving-food-recipe-data-for-food-preparation-applied-energies module m 203 depicted in FIG. 26 as being included in the module m 201 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 203 . Illustratively, in one or more implementations, the operation o 203 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one or more food preparation applied energies (e.g., instruction as instruction for temperature to cook meal, for amount of microwave energy to apply to food item, for induction heating of cookware for ingestible material, for steaming of food items, etc.).
In one or more implementations, as shown in FIG. 78 , the operation o 201 can include operation o 204 for electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services including electronically receiving food recipe data for food preparation timing. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 204 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 204 . Furthermore, electronically-receiving-food-recipe-data-for-food-preparation-timing module m 204 depicted in FIG. 26 as being included in the module m 201 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 204 . Illustratively, in one or more implementations, the operation o 204 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for food preparation timing (e.g., instruction regarding timing as to when specified ingestible components are to fabricated relative to when other ingestible components are to be fabricated, timing as to when an ingestible product is to be completed, etc.).
In one or more implementations, as shown in FIG. 79 , the operation o 201 can include operation o 205 for electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services including electronically receiving food recipe data for one or more ingredient quantities. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 205 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 205 . Furthermore, electronically-receiving-food-recipe-data-for-ingredient-quantities module m 205 depicted in FIG. 26 as being included in the module m 201 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 205 . Illustratively, in one or more implementations, the operation o 205 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one more ingredient quantities (e.g., instruction as instruction for amount of salt, sugar, fats, proteins, carbohydrates, etc.).
In one or more implementations, as shown in FIG. 79 , the operation o 201 can include operation o 206 for electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services including electronically receiving food recipe data for one or more ingredient quality factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 206 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 206 . Furthermore, electronically-receiving-food-recipe-data-for-ingredient-quality-factors module m 206 depicted in FIG. 26 as being included in the module m 201 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 206 . Illustratively, in one or more implementations, the operation o 206 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one more ingredient quality factors (e.g., instruction as to when past-sell-by-dated food should be disposed of, freshness-certified ingestible product, etc.).
In one or more implementations, as shown in FIG. 79 , the operation o 201 can include operation o 207 for electronically receiving food-based ingredient recipe information regarding food recipe factors from one or more food recipe information services including electronically receiving food recipe data for one or more restocking factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 207 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 207 . Furthermore, electronically-receiving-food-recipe-data-for-restocking-factors module m 207 depicted in FIG. 26 as being included in the module m 201 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 207 . Illustratively, in one or more implementations, the operation o 207 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food recipe factors from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one more restocking factors (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.).
In one or more implementations, as shown in FIG. 77 , the operation o 12 can include operation o 208 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 208 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 208 . Furthermore, electronically-receiving-recipe-information-regarding-electronically-involved-food-dispensing-aspects-from-food-recipe-information-services module m 208 depicted in FIG. 21 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 208 . Illustratively, in one or more implementations, the operation o 208 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 80 , the operation o 208 can include operation o 209 for electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services including electronically receiving food recipe data regarding one or more food ingredient combining procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 209 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 209 . Furthermore, electronically-receiving-food-recipe-data-regarding-food-ingredient-combining-procedures module m 209 depicted in FIG. 27 as being included in the module m 208 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 209 . Illustratively, in one or more implementations, the operation o 209 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient combining procedures (e.g., instruction as instruction regarding food combining rules as to ratios of what to mix concerning fruit, vegetable, meat, starch, oil, sugars, salt, etc.).
In one or more implementations, as shown in FIG. 80 , the operation o 208 can include operation o 210 for electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services including electronically receiving food recipe data regarding one or more food ingredient processing aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 210 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 210 . Furthermore, electronically-receiving-food-recipe-data-regarding-food-ingredient-processing-aspects module m 210 depicted in FIG. 27 as being included in the module m 208 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 210 . Illustratively, in one or more implementations, the operation o 210 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient processing aspects (e.g., instruction as to ingestible material assembling, mixing, combining, extruding, printing, etc.).
In one or more implementations, as shown in FIG. 80 , the operation o 208 can include operation o 211 for electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services including electronically receiving food recipe data regarding one or more food ingredient packaging. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 211 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 211 . Furthermore, electronically-receiving-food-recipe-data-regarding-food-ingredient-packaging module m 211 depicted in FIG. 27 as being included in the module m 208 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 211 . Illustratively, in one or more implementations, the operation o 211 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient packaging (e.g., instruction as to size, internal dividers, thermal insulation capability, etc.).
In one or more implementations, as shown in FIG. 81 , the operation o 208 can include operation o 212 for electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services including electronically receiving food recipe data regarding one or more food ingredient assembling procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 212 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 212 . Furthermore, electronically-receiving-food-recipe-data-regarding-food-ingredient-assembling-procedures module m 212 depicted in FIG. 27 as being included in the module m 208 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 212 . Illustratively, in one or more implementations, the operation o 212 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient assembling procedures (e.g., instruction as to size, internal dividers, thermal insulation capability, etc.).
In one or more implementations, as shown in FIG. 81 , the operation o 208 can include operation o 213 for electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services including electronically receiving food recipe data regarding one or more food ingredient manufacturing procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 213 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 213 . Furthermore, electronically-receiving-food-recipe-data-regarding-food-ingredient-manufacturing-procedures module m 213 depicted in FIG. 27 as being included in the module m 208 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 213 . Illustratively, in one or more implementations, the operation o 213 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient manufacturing procedures (e.g., instruction as to assembly order, timing, delivery schedule, etc. of ingestible material components, etc.).
In one or more implementations, as shown in FIG. 81 , the operation o 208 can include operation o 214 for electronically receiving food-based ingredient recipe information regarding electronically involved food dispensing aspects from one or more food recipe information services including electronically receiving food recipe data regarding one or more food ingredient delivery aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 214 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 214 . Furthermore, electronically-receiving-food-recipe-data-regarding-food-ingredient-delivery-aspects module m 214 depicted in FIG. 27 as being included in the module m 208 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 214 . Illustratively, in one or more implementations, the operation o 214 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food recipe data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient delivery aspects (e.g., instruction as to delivery timing, routing, priorities involved, etc.).
In one or more implementations, as shown in FIG. 77 , the operation o 12 can include operation o 215 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 215 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 215 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-regarding-food-component-aspects-from-food-recipe-information-services module m 215 depicted in FIG. 21 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 215 . Illustratively, in one or more implementations, the operation o 215 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 82 , the operation o 215 can include operation o 216 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including carbohydrate related food ingredient recipe aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 216 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 216 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-carbohydrate-related-food-ingredient-recipe-aspects module m 216 depicted in FIG. 28 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 216 . Illustratively, in one or more implementations, the operation o 216 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including carbohydrate related food ingredient recipe aspects (e.g., instruction as to amounts used of dextrose, sucrose, fructose, high-fructose corn syrup, fiber, dextrin, etc.).
In one or more implementations, as shown in FIG. 82 , the operation o 215 can include operation o 217 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including protein related food ingredient recipe aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 217 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 217 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-protein-related-food-ingredient-recipe-aspects module m 217 depicted in FIG. 28 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 217 . Illustratively, in one or more implementations, the operation o 217 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including protein related food ingredient recipe aspects (e.g., instruction regarding protein quantity or quality of source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 82 , the operation o 215 can include operation o 218 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including fat related food ingredient recipe aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 218 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 218 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-fat-related-food-ingredient-recipe-aspects module m 218 depicted in FIG. 28 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 218 . Illustratively, in one or more implementations, the operation o 218 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including fat related food ingredient recipe aspect (e.g., (e.g., instruction regarding fat quantity or quality of source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 83 , the operation o 215 can include operation o 219 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including micronutrient related food ingredient recipe aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 219 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 219 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-micronutrient-related-food-ingredient-recipe-aspects module m 219 depicted in FIG. 28 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 219 . Illustratively, in one or more implementations, the operation o 219 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including micronutrient related food ingredient recipe aspects (e.g., instruction regarding micronutrient quantity or quality or source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 83 , the operation o 215 can include operation o 220 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including gustatory component information. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 220 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 220 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-gustatory-component-information module m 220 depicted in FIG. 28 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 220 . Illustratively, in one or more implementations, the operation o 220 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including gustatory component information (e.g., instruction regarding micronutrient quantity or quality or source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 83 , the operation o 215 can include operation o 221 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including one or more food ingredient recipe aspects associated with one or more snack related categories. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 221 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 221 . Furthermore, electronically-receiving-recipe-information-including-food-ingredient-recipe-aspects-associated-with-snack-related-categories module m 221 depicted in FIG. 28 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 221 . Illustratively, in one or more implementations, the operation o 221 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including one or more food ingredient recipe aspects associated with one or more snack related categories (e.g., instruction regarding hot snacks, cold snacks, individually packaged snacks, collection of snacks, prohibited ingredients, required ingredients, etc.).
In one or more implementations, as shown in FIG. 84 , the operation o 215 can include operation o 222 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including information involved with one or more full course meals. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 222 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 222 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-information-involved-with-full-course-meals module m 222 depicted in FIG. 29 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 222 . Illustratively, in one or more implementations, the operation o 222 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including information involved with one or more full course meals (e.g., instruction as to ethnic type of full meal to produce, portion size of full meal to produce, quality level of full meal to produce, non-organic components of full meal to produce, organic components of full meal to produce, etc.).
In one or more implementations, as shown in FIG. 84 , the operation o 215 can include operation o 223 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including information regarding nutritional supplementation. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 223 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 223 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-information-regarding-nutritional-supplementation module m 223 depicted in FIG. 29 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 223 . Illustratively, in one or more implementations, the operation o 223 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including information regarding nutritional supplementation (e.g., instruction regarding supplemental components such as thickeners, sweeteners, emulsifiers, preservatives, gelling agents, nutrient enhancers, taste enhancers, etc.).
In one or more implementations, as shown in FIG. 84 , the operation o 215 can include operation o 224 for electronically receiving food-based ingredient recipe information regarding food component aspects from one or more food recipe information services including electronically receiving food-based ingredient recipe information including beverage recipe information. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 224 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 224 . Furthermore, electronically-receiving-food-based-ingredient-recipe-information-including-beverage-recipe-information module m 224 depicted in FIG. 29 as being included in the module m 215 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 224 . Illustratively, in one or more implementations, the operation o 224 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component aspects (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food recipe information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient recipe information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including beverage recipe information (e.g., instruction to as quantity or type to use of water, sugar, artificial sweetener, aeration, natural carbonation, artificial carbonation, phosphoric acid, fluoride, chlorine, alcohol, artificial or natural flavorings, etc.).
In one or more implementations, as shown in FIG. 85 , the operation o 12 can include operation o 225 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 225 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 225 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-regarding-food-nutrition-factors-from-food-nutrition-information-services module m 225 depicted in FIG. 30 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 225 . Illustratively, in one or more implementations, the operation o 225 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 86 , the operation o 225 can include operation o 226 for electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services including electronically receiving food ingredient application data from one or more food nutrition information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 226 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 226 . Furthermore, electronically-receiving-food-ingredient-application-data-from-food-nutrition-information-services module m 226 depicted in FIG. 31 as being included in the module m 225 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 226 . Illustratively, in one or more implementations, the operation o 226 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food ingredient application data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food nutrition information services (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 86 , the operation o 225 can include operation o 227 for electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services including electronically receiving food nutrition data for one or more food preparation applied energies. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 227 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 227 . Furthermore, electronically-receiving-food-nutrition-data-for-food-preparation-applied-energies module m 227 depicted in FIG. 31 as being included in the module m 225 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 227 . Illustratively, in one or more implementations, the operation o 227 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one or more food preparation applied energies (e.g., instruction as instruction for temperature to cook meal, for amount of microwave energy to apply to food item, for induction heating of cookware for ingestible material, for steaming of food items, etc.).
In one or more implementations, as shown in FIG. 86 , the operation o 225 can include operation o 228 for electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services including electronically receiving food nutrition data for food preparation timing. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 228 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 228 . Furthermore, electronically-receiving-food-nutrition-data-for-food-preparation-timing module m 228 depicted in FIG. 31 as being included in the module m 225 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 228 . Illustratively, in one or more implementations, the operation o 228 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for food preparation timing (e.g., instruction regarding timing as to when specified ingestible components are to fabricated relative to when other ingestible components are to be fabricated, timing as to when an ingestible product is to be completed, etc.).
In one or more implementations, as shown in FIG. 87 , the operation o 225 can include operation o 229 for electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services including electronically receiving food nutrition data for one or more ingredient quantities. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 229 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 229 . Furthermore, electronically-receiving-food-nutrition-data-for-ingredient-quantities module m 229 depicted in FIG. 31 as being included in the module m 225 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 229 . Illustratively, in one or more implementations, the operation o 229 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one more ingredient quantities (e.g., instruction as instruction for amount of salt, sugar, fats, proteins, carbohydrates, etc.).
In one or more implementations, as shown in FIG. 87 , the operation o 225 can include operation o 230 for electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services including electronically receiving food nutrition data for one or more ingredient quality factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 230 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 230 . Furthermore, electronically-receiving-food-nutrition-data-for-ingredient-quality-factors module m 230 depicted in FIG. 31 as being included in the module m 225 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 230 . Illustratively, in one or more implementations, the operation o 230 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one more ingredient quality factors (e.g., instruction as to when past-sell-by-dated food should be disposed of, freshness-certified ingestible product, etc.).
In one or more implementations, as shown in FIG. 87 , the operation o 225 can include operation o 231 for electronically receiving food-based ingredient nutrition information regarding food nutrition factors from one or more food nutrition information services including electronically receiving food nutrition data for one or more restocking factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 231 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 231 . Furthermore, electronically-receiving-food-nutrition-data-for-restocking-factors module m 231 depicted in FIG. 31 as being included in the module m 225 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 231 . Illustratively, in one or more implementations, the operation o 231 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food nutrition (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) factors from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) for one more restocking factors (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.).
In one or more implementations, as shown in FIG. 85 , the operation o 12 can include operation o 232 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 232 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 232 . Furthermore, electronically-receiving-nutrition-information-regarding-electronically-involved-food-dispensing-aspects-from-food-nutrition-information-services module m 232 depicted in FIG. 30 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 232 . Illustratively, in one or more implementations, the operation o 232 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 88 , the operation o 232 can include operation o 233 for electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services including electronically receiving food nutrition data regarding one or more food ingredient combining procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 233 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 233 . Furthermore, electronically-receiving-food-nutrition-data-regarding-food-ingredient-combining-procedures module m 233 depicted in FIG. 32 as being included in the module m 232 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 233 . Illustratively, in one or more implementations, the operation o 233 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient combining procedures (e.g., instruction as instruction regarding food combining rules as to ratios of what to mix concerning fruit, vegetable, meat, starch, oil, sugars, salt, etc.).
In one or more implementations, as shown in FIG. 88 , the operation o 232 can include operation o 234 for electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services including electronically receiving food nutrition data regarding one or more food ingredient processing aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 234 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 234 . Furthermore, electronically-receiving-food-nutrition-data-regarding-food-ingredient-processing-aspects module m 234 depicted in FIG. 32 as being included in the module m 232 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 234 . Illustratively, in one or more implementations, the operation o 234 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient processing aspects (e.g., instruction as to ingestible material assembling, mixing, combining, extruding, printing, etc.).
In one or more implementations, as shown in FIG. 88 , the operation o 232 can include operation o 235 for electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services including electronically receiving food nutrition data regarding one or more food ingredient packaging aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 235 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 235 . Furthermore, electronically-receiving-food-nutrition-data-regarding-food-ingredient-packaging-aspects module m 235 depicted in FIG. 32 as being included in the module m 232 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 235 . Illustratively, in one or more implementations, the operation o 235 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient packaging aspects (e.g., instruction as to size, internal dividers, thermal insulation capability, etc.).
In one or more implementations, as shown in FIG. 89 , the operation o 232 can include operation o 236 for electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services including electronically receiving food nutrition data regarding one or more food ingredient assembling procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 236 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 236 . Furthermore, electronically-receiving-food-nutrition-data-regarding-food-ingredient-assembling-procedures module m 236 depicted in FIG. 32 as being included in the module m 232 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 236 . Illustratively, in one or more implementations, the operation o 236 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient assembling procedures (e.g., instruction as to assembly order, timing, delivery schedule, etc. of ingestible material components, etc.).
In one or more implementations, as shown in FIG. 89 , the operation o 232 can include operation o 237 for electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services including electronically receiving food nutrition data regarding one or more food ingredient manufacturing procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 237 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 237 . Furthermore, electronically-receiving-food-nutrition-data-regarding-food-ingredient-manufacturing-procedures module m 237 depicted in FIG. 32 as being included in the module m 232 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 237 . Illustratively, in one or more implementations, the operation o 237 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient manufacturing procedures (e.g., instruction as to service queue waiting times in fulfilling orders, etc.).
In one or more implementations, as shown in FIG. 89 , the operation o 232 can include operation o 238 for electronically receiving food-based ingredient nutrition information regarding electronically involved food dispensing aspects from one or more food nutrition information services including electronically receiving food nutrition data regarding one or more food ingredient delivery aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 238 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 238 . Furthermore, electronically-receiving-food-nutrition-data-regarding-food-ingredient-delivery-aspects module m 238 depicted in FIG. 32 as being included in the module m 232 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 238 . Illustratively, in one or more implementations, the operation o 238 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding electronically involved food dispensing aspects (e.g., instruction as to sequence order of manufacturing components of an ingestible product, projected amount of ingestible material required for a specified time period for manufacturing etc.) from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food nutrition data (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding one or more food ingredient delivery aspects (e.g., instruction as to delivery timing, routing, priorities involved, etc.).
In one or more implementations, as shown in FIG. 85 , the operation o 12 can include operation o 239 for electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based ingredient information from one or more food-based ingredient information resources involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 239 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 239 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-regarding-food-component-aspects-from-food-nutrition-information-services module m 239 depicted in FIG. 30 as being included in the module m 12 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 239 . Illustratively, in one or more implementations, the operation o 239 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted reception (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) of food-based ingredient information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) from one or more food-based ingredient information resources (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.).
In one or more implementations, as shown in FIG. 90 , the operation o 239 can include operation o 240 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including carbohydrate related food ingredient nutrition aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 240 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 240 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-carbohydrate-related-food-ingredient-nutrition-aspects module m 240 depicted in FIG. 33 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 240 . Illustratively, in one or more implementations, the operation o 240 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including carbohydrate related food ingredient nutrition aspects (e.g., instruction as to amounts used of dextrose, sucrose, fructose, high-fructose corn syrup, fiber, dextrin, etc.).
In one or more implementations, as shown in FIG. 90 , the operation o 239 can include operation o 241 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including protein related food ingredient nutrition aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 241 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 241 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-protein-related-food-ingredient-nutrition-aspects module m 241 depicted in FIG. 33 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 241 . Illustratively, in one or more implementations, the operation o 241 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including protein related food ingredient nutrition aspects (e.g., instruction regarding protein quantity or quality of source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 90 , the operation o 239 can include operation o 242 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including fat related food ingredient nutrition aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 242 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 242 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-fat-related-food-ingredient-nutrition-aspects module m 242 depicted in FIG. 33 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 242 . Illustratively, in one or more implementations, the operation o 242 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including fat related food ingredient nutrition aspects (e.g., instruction as to amounts used of omega three fatty acids, omega six fatty acids, saturated fat, unsaturated fat, polyunsaturated fat, monounsaturated fat, etc.).
In one or more implementations, as shown in FIG. 91 , the operation o 239 can include operation o 243 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including micronutrient related food ingredient nutrition aspects. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 243 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 243 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-micronutrient-related-food-ingredient-nutrition-aspects module m 243 depicted in FIG. 33 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 243 . Illustratively, in one or more implementations, the operation o 243 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including micronutrient related food ingredient nutrition aspects (e.g., instruction regarding micronutrient quantity or quality or source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 91 , the operation o 239 can include operation o 244 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including gustatory component information. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 244 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 244 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-gustatory-component-information module m 244 depicted in FIG. 33 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 244 . Illustratively, in one or more implementations, the operation o 244 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including gustatory component information (e.g., instruction as to levels used of sweet tasting components, salty tasting components, sour tasting components, bitter tasting components, savory tasting components, etc.).
In one or more implementations, as shown in FIG. 91 , the operation o 239 can include operation o 245 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including one or more food ingredient nutrition aspects associated with one or more snack related categories. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 245 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 245 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-food-ingredient-nutrition-aspects-associated-with-snack-related-categories module m 245 depicted in FIG. 33 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 245 . Illustratively, in one or more implementations, the operation o 245 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including one or more food ingredient nutrition aspects associated with one or more snack related categories (e.g., instruction regarding hot snacks, cold snacks, individually packaged snacks, collection of snacks, prohibited ingredients, required ingredients, etc.).
In one or more implementations, as shown in FIG. 92 , the operation o 239 can include operation o 246 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including information involved with one or more full course meals. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 246 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 246 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-information-involved-with-full-course-meals module m 246 depicted in FIG. 34 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 246 . Illustratively, in one or more implementations, the operation o 246 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including information involved with one or more full course meals (e.g., instruction as to ethnic type of full meal to produce, portion size of full meal to produce, quality level of full meal to produce, non-organic components of full meal to produce, organic components of full meal to produce, etc.).
In one or more implementations, as shown in FIG. 92 , the operation o 239 can include operation o 247 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including information regarding nutritional supplementation. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 247 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 247 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-information-regarding-nutritional-supplementation module m 247 depicted in FIG. 34 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 247 . Illustratively, in one or more implementations, the operation o 247 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including information regarding nutritional supplementation (e.g., instruction regarding supplemental components such as thickeners, sweeteners, emulsifiers, preservatives, gelling agents, nutrient enhancers, taste enhancers, etc.).
In one or more implementations, as shown in FIG. 92 , the operation o 239 can include operation o 248 for electronically receiving food-based ingredient nutrition information regarding food component aspects from one or more food nutrition information services including electronically receiving food-based ingredient nutrition information including beverage nutrition information. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 248 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 248 . Furthermore, electronically-receiving-food-based-ingredient-nutrition-information-including-beverage-nutrition-information module m 248 depicted in FIG. 34 as being included in the module m 239 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 248 . Illustratively, in one or more implementations, the operation o 248 can be fulfilled, for example, by electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) regarding food component (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) aspects from one or more food nutrition information services (e.g., electronic based recipe subscriptions, livecast streaming cooking shows, blog recipe downloads, social network recipe-related posts, cooking methodology podcast episodes, rss feeds, wireless network communication, information services, etc.) including electronically receiving (e.g., electronic based subscriptions, livecast streaming, blog downloads, social network posts, eBook capture, podcast episodes, rss feeds, wireless network communication, information services, etc.) food-based ingredient nutrition information (e.g., ingredient quality standards, ingredient categories, quantity levels, issues related to fats, proteins, carbohydrates, micronutrients, sugars, glutens, allergies, health goals, etc.) including beverage nutrition information (e.g., instruction to as quantity or type to use of water, sugar, artificial sweetener, aeration, natural carbonation, artificial carbonation, phosphoric acid, fluoride, chlorine, alcohol, artificial or natural flavorings, etc.).
In one or more implementations, as shown in FIG. 93 , the operation o 13 can include operation o 249 for electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 249 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 249 . Furthermore, electronically-transmitting-operational-indication-to-food-fabricator-machines-regarding-food-based-ingredient-fabrication-factors module m 249 depicted in FIG. 35 as being included in the module m 13 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 249 . Illustratively, in one or more implementations, the operation o 249 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted transmission (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator information (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.).
In one or more implementations, as shown in FIG. 95 , the operation o 249 can include operation o 250 for electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors including electronically transmitting operational indication regarding one or more food-based ingredient ratios. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 250 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 250 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-ratios module m 250 depicted in FIG. 36 as being included in the module m 249 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 250 . Illustratively, in one or more implementations, the operation o 250 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient ratios (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.).
In one or more implementations, as shown in FIG. 95 , the operation o 249 can include operation o 251 for electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors including electronically transmitting operational indication regarding one or more energy levels to be applied during food-based ingredient fabrication. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 251 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 251 . Furthermore, electronically-transmitting-operational-indication-regarding-energy-levels-to-be-applied-during-food-based-ingredient-fabrication module m 251 depicted in FIG. 36 as being included in the module m 249 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 251 . Illustratively, in one or more implementations, the operation o 251 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more energy levels to be applied during food-based ingredient fabrication (e.g., instruction as instruction for temperature to cook meal, for amount of microwave energy to apply to food item, for induction heating of cookware for ingestible material, for steaming of food items, etc.).
In one or more implementations, as shown in FIG. 95 , the operation o 249 can include operation o 252 for electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors including electronically transmitting operational indication regarding one or more food-based ingredient fabrication timing factors. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 252 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 252 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-fabrication-timing-factors module m 252 depicted in FIG. 36 as being included in the module m 249 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 252 . Illustratively, in one or more implementations, the operation o 252 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient fabrication timing factors (e.g., instruction regarding timing as to when specified ingestible components are to fabricated relative to when other ingestible components are to be fabricated, timing as to when an ingestible product is to be completed, etc.).
In one or more implementations, as shown in FIG. 96 , the operation o 249 can include operation o 253 for electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors including electronically transmitting operational indication regarding one or more quantity levels for food-based ingredient fabrication quality levels. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 253 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 253 . Furthermore, electronically-transmitting-operational-indication-regarding-quantity-levels-for-food-based-ingredient-fabrication-quality-levels module m 253 depicted in FIG. 36 as being included in the module m 249 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 253 . Illustratively, in one or more implementations, the operation o 253 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more quantity levels for food-based ingredient fabrication quality levels (e.g., instruction regarding timing as to when specified ingestible components are to fabricated relative to when other ingestible components are to be fabricated, timing as to when an ingestible product is to be completed, etc.).
In one or more implementations, as shown in FIG. 96 , the operation o 249 can include operation o 254 for electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors including electronically transmitting operational indication regarding one or more food-based ingredient fabrication maintenance thresholds. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 254 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 254 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-fabrication-maintenance-thresholds module m 254 depicted in FIG. 36 as being included in the module m 249 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 254 . Illustratively, in one or more implementations, the operation o 254 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient fabrication maintenance thresholds (e.g., instruction as to when fabrication equipment is to be cleaned, repaired, restocked, etc.).
In one or more implementations, as shown in FIG. 96 , the operation o 249 can include operation o 255 for electronically transmitting operational indication to one or more food fabricator machines regarding at least in part one or more food-based ingredient fabrication factors including electronically transmitting operational indication regarding one or more restocking factors to be implemented in conjunction with food-based ingredient fabrication. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 255 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 255 . Furthermore, electronically-transmitting-operational-indication-regarding-restocking-factors-to-be-implemented-in-conjunction-with-food-based-ingredient-fabrication module m 255 depicted in FIG. 36 as being included in the module m 249 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 255 . Illustratively, in one or more implementations, the operation o 255 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) regarding at least in part one or more food-based ingredient fabrication factors (e.g., instruction as instruction for food printing, food item assembly, drink mixing, meal cooking, food item packaging, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more restocking factors to be implemented in conjunction with food-based ingredient fabrication (e.g., instruction as to carbohydrate-to-protein ratio, carbohydrate-to-fat ratio, fat-to-protein ratio, micronutrient ratios, etc.).
In one or more implementations, as shown in FIG. 94 , the operation o 13 can include operation o 256 for electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 256 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 256 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-dispensing-procedures module m 256 depicted in FIG. 35 as being included in the module m 13 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 256 . Illustratively, in one or more implementations, the operation o 256 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted transmission (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator information (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.).
In one or more implementations, as shown in FIG. 97 , the operation o 256 can include operation o 257 for electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures including electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient combining procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 257 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 257 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-combining-procedures module m 257 depicted in FIG. 37 as being included in the module m 256 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 257 . Illustratively, in one or more implementations, the operation o 257 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient combining procedures (e.g., instruction as instruction regarding food combining rules as to ratios of what to mix concerning fruit, vegetable, meat, starch, oil, sugars, salt, etc.).
In one or more implementations, as shown in FIG. 97 , the operation o 256 can include operation o 258 for electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures including electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient processing procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 258 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 258 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-processing-procedures module m 258 depicted in FIG. 37 as being included in the module m 256 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 258 . Illustratively, in one or more implementations, the operation o 258 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient processing procedures (e.g., instruction as to ingestible material assembling, mixing, combining, extruding, printing, etc.).
In one or more implementations, as shown in FIG. 97 , the operation o 256 can include operation o 259 for electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures including electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient packaging procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 259 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 259 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-packaging-procedures module m 259 depicted in FIG. 37 as being included in the module m 256 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 259 . Illustratively, in one or more implementations, the operation o 259 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient packaging procedures (e.g., instruction as to size, internal dividers, thermal insulation capability, etc.).
In one or more implementations, as shown in FIG. 98 , the operation o 256 can include operation o 260 for electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures including electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient assembling procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 260 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 260 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-assembling-procedures module m 260 depicted in FIG. 37 as being included in the module m 256 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 260 . Illustratively, in one or more implementations, the operation o 260 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient assembling procedures (e.g., instruction as to assembly order, timing, delivery schedule, etc. of ingestible material components, etc.).
In one or more implementations, as shown in FIG. 98 , the operation o 256 can include operation o 261 for electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures including electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient manufacturing procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 261 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 261 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-food-based-ingredient-manufacturing-procedures module m 261 depicted in FIG. 37 as being included in the module m 256 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 261 . Illustratively, in one or more implementations, the operation o 261 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient manufacturing procedures (e.g., instruction as to service queue waiting times in fulfilling orders, etc.).
In one or more implementations, as shown in FIG. 98 , the operation o 256 can include operation o 262 for electronically transmitting operational indication regarding one or more electronically controlled food-based ingredient dispensing procedures including electronically transmitting operational indication regarding one or more electronically controlled item delivery procedures. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 262 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 262 . Furthermore, electronically-transmitting-operational-indication-regarding-electronically-controlled-item-delivery-procedures module m 262 depicted in FIG. 37 as being included in the module m 256 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 262 . Illustratively, in one or more implementations, the operation o 262 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled food-based ingredient dispensing procedures (e.g., instruction as instruction to be sent to supply chain for food items to restock inventory, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more electronically controlled item delivery procedures (e.g., instruction as to delivery timing, routing, priorities involved, etc.).
In one or more implementations, as shown in FIG. 94 , the operation o 13 can include operation o 263 for electronically performing electronic-semiconductor-transistor-based-device-assisted transmission of food-based fabricator operational indication to one or more food fabricator machines involving in part orchestration of electronic-semiconductor-transistor-based voltage levels based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring of user physiological aspect data of an electronic-semiconductor-transistor-based-device user involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels and performing electronic-semiconductor-transistor-based-device-assisted monitoring of user behavioral aspect data of the electronic-semiconductor-transistor-based-device user involving in part orchestration of electronic-semiconductor-transistor-based voltage levels and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception of food-based fabricator information involving in part orchestration of electronic-semiconductor-transistor-based voltage levels including electronically transmitting operational indication regarding one or more food-based ingredient categories. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 263 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 263 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-categories module m 263 depicted in FIG. 35 as being included in the module m 13 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 263 . Illustratively, in one or more implementations, the operation o 263 can be fulfilled, for example, by electronically performing (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) electronic-semiconductor-transistor-based-device-assisted transmission (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) to one or more food fabricator machines (e.g., kiosk fabricator, personal appliance, community printer, or other type vending, dispensing, or food fabricating machine located in a home, business, transportation facility, market, sports facility, office building, theater, school, hospital, park, restaurant, food court etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user physiological aspect data (e.g., current, historical, functional, individual, disease, chronic, acute, symptomatic, diagnosed, epidemic, health, enhancement, reduction, augmentation, etc.) of an electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestrated manipulation of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and performing electronic-semiconductor-transistor-based-device-assisted monitoring (e.g., invasive, non-invasive, intermittent, continuous, on-demand, contact-based, infrared, etc.) of user behavioral aspect data (e.g., life-style, fitness, carcinogen habits, sleep and wake patterns, recreation, geographical environment, intake supplements, technological accoutrement, transit, place of residence, class, residence, etc.) of the electronic-semiconductor-transistor-based-device user (e.g., medical patient, student, businessperson, customer, office worker, family member, passenger, guest, attendee, etc. using at least in part one or more of electronic-semiconductor-transistor-based physical devices such as multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) and based at least in part on the electronically performing electronic-semiconductor-transistor-based-device-assisted reception (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) of food-based fabricator information (e.g., temperature adjustment, mixture modification, waste reduction, portion increase, food source selection, material exclusion, ingredient ban, proceed command, scheduled start times, ingredient levels, degree of applied energy, production quality levels, timing parameters, etc.) involving in part orchestration of electronic-semiconductor-transistor-based voltage levels (e.g., voltage levels found in such as at least in part one or more of electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.).
In one or more implementations, as shown in FIG. 99 , the operation o 263 can include operation o 264 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient carbohydrates. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 264 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 264 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-carbohydrates module m 264 depicted in FIG. 38 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 264 . Illustratively, in one or more implementations, the operation o 264 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient carbohydrates (e.g., instruction as to amounts used of dextrose, sucrose, fructose, high-fructose corn syrup, fiber, dextrin, etc.).
In one or more implementations, as shown in FIG. 99 , the operation o 263 can include operation o 265 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient proteins. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 265 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 265 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-proteins module m 265 depicted in FIG. 38 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 265 . Illustratively, in one or more implementations, the operation o 265 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient proteins (e.g., instruction regarding protein quantity or quality of source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 99 , the operation o 263 can include operation o 266 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient fats. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 266 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 266 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-fats module m 266 depicted in FIG. 38 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 266 . Illustratively, in one or more implementations, the operation o 266 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient fats (e.g., instruction as to amounts used of omega three fatty acids, omega six fatty acids, saturated fat, unsaturated fat, polyunsaturated fat, monounsaturated fat, etc.).
In one or more implementations, as shown in FIG. 100 , the operation o 263 can include operation o 267 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient micronutrients. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 267 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 267 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-micronutrients module m 267 depicted in FIG. 38 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 267 . Illustratively, in one or more implementations, the operation o 267 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient micronutrients (e.g., instruction regarding micronutrient quantity or quality or source relative to other food components for total meal, for particular food item, etc.).
In one or more implementations, as shown in FIG. 100 , the operation o 263 can include operation o 268 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient gustatory components. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 268 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 268 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-gustatory-components module m 268 depicted in FIG. 38 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 268 . Illustratively, in one or more implementations, the operation o 268 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient gustatory components (e.g., instruction as to levels used of sweet tasting components, salty tasting components, sour tasting components, bitter tasting components, savory tasting components, etc.).
In one or more implementations, as shown in FIG. 100 , the operation o 263 can include operation o 269 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient snack categories. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 269 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 269 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-snack-categories module m 269 depicted in FIG. 38 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 269 . Illustratively, in one or more implementations, the operation o 269 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient snack categories (e.g., instruction regarding hot snacks, cold snacks, individually packaged snacks, collection of snacks, prohibited ingredients, required ingredients, etc.).
In one or more implementations, as shown in FIG. 101 , the operation o 263 can include operation o 270 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more full course meals. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 270 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 270 . Furthermore, electronically-transmitting-operational-indication-regarding-full-course-meals module m 270 depicted in FIG. 39 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 270 . Illustratively, in one or more implementations, the operation o 270 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more full course meals (e.g., instruction as to ethnic type of full meal to produce, portion size of full meal to produce, quality level of full meal to produce, non-organic components of full meal to produce, organic components of full meal to produce, etc.).
In one or more implementations, as shown in FIG. 101 , the operation o 263 can include operation o 271 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient nutritional supplement components. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 271 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 271 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-nutritional-supplement-components module m 271 depicted in FIG. 39 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 271 . Illustratively, in one or more implementations, the operation o 271 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient nutritional supplement components (e.g., instruction regarding supplemental components such as thickeners, sweeteners, emulsifiers, preservatives, gelling agents, nutrient enhancers, taste enhancers, etc.).
In one or more implementations, as shown in FIG. 101 , the operation o 263 can include operation o 272 for electronically transmitting operational indication regarding one or more food-based ingredient categories including electronically transmitting operational indication regarding one or more food-based ingredient beverage components. Origination of a physically tangible electronic-semiconductor-transistor-utilizing component group can be accomplished through skilled in the art design choice selection including use of one or more electronic-semiconductor-transistor-containing components and/or subsystems explicitly and/or implicitly referred to herein (such as electronic-semiconductor-transistor-based physical devices including multiplexers, registers, ALUs, physical memory, and physical combinations thereof such as CPUs, ASICs, FPGAs, DSPs, etc., but not including such as mechanical, fluidic, or pneumatic gates or switches) for at least in part implementing one or more electronic-semiconductor-transistor-based electrical circuitry arrangements for fulfillment, by orchestration of electronic-semiconductor-transistor-based voltage levels, of the operation o 272 . One or more non-transitory signal bearing physical media can bear one or more instructions that when executed manipulate voltage levels of electronic-semiconductor-transistor-based circuitry to direct performance of the operation o 272 . Furthermore, electronically-transmitting-operational-indication-regarding-food-based-ingredient-beverage-components module m 272 depicted in FIG. 39 as being included in the module m 263 , performs electronic-semiconductor-transistor-based voltage level switching to carry out the operation o 272 . Illustratively, in one or more implementations, the operation o 272 can be fulfilled, for example, by electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient categories (e.g., instruction regarding handling and preparing categories such as full meals, quick snacks, drinks, side-orders, custom dishes, etc.) including electronically transmitting (e.g., swipes, scans, non-wireless, network direct device-to-device, electromagnetic, infrared, wireless protocols, data packets, Bluetooth, WiFi, radio frequency, other transmission, transfer, etc.) operational indication (e.g., operational instruction, guidelines, policy, constraints, limitations, thresholds, minimums, maximums, etc.) regarding one or more food-based ingredient beverage components (e.g., instruction to as quantity or type to use of water, sugar, artificial sweetener, aeration, natural carbonation, artificial carbonation, phosphoric acid, fluoride, chlorine, alcohol, artificial or natural flavorings, etc.).
Those skilled in the art will appreciate that the foregoing specific exemplary processes and/or devices and/or technologies are representative of more general processes and/or devices and/or technologies taught elsewhere herein, such as in the claims filed herewith and/or elsewhere in the present application.
The one or more instructions discussed herein may be, for example, computer executable and/or logic-implemented instructions. In some implementations, signal-bearing medium as articles of manufacture may store the one or more instructions. In some implementations, the signal bearing medium may include a computer-readable medium. In some implementations, the signal-bearing medium may include a recordable medium. In some implementations, the signal-bearing medium may include a communication medium.
With respect to the appended claims, those skilled in the art will appreciate that recited operations therein may generally be performed in any order. Also, although various operational flows are presented in a sequence(s), it should be understood that the various operations may be performed in other orders than those which are illustrated, or may be performed concurrently. Examples of such alternate orderings may include overlapping, interleaved, interrupted, reordered, incremental, preparatory, supplemental, simultaneous, reverse, or other variant orderings, unless context dictates otherwise. Furthermore, terms like “responsive to,” “related to,” or other past-tense adjectives are generally not intended to exclude such variants, unless context dictates otherwise.