(en)A gas infusion waste water treatment facility having an apparatus for increasing gas components in a fluid uses a controller connected to a network and client device for remote control of fluid flow rates, magnet field intensity, and pressure of fluid based on preset parameters. Conductive wire coiled around a magnet fluid treatment device generates a bidirectional magnetic flux to magnetically treat fluid in the conduit at an entry pressure. The facility creates absorption of increased gas concentration containing an oxygen atom into the fluid from 10% to at least 500%.
(en)A gas infusion waste water treatment facility having an apparatus for increasing gas components in a fluid uses a controller connected to a network and client device for remote control of fluid flow rates, magnet field intensity, and pressure of fluid based on preset parameters. Conductive wire coiled around a magnet fluid treatment device generates a bidirectional magnetic flux to magnetically treat fluid in the conduit at an entry pressure. The facility creates absorption of increased gas concentration containing an oxygen atom into the fluid from 10% to at least 500%.

1.ApplicationNumber: US-201815961700-A
1.PublishNumber: US-10046292-B1
2.Date Publish: 20180814
3.Inventor: DOVE, LARRY JOHN
VON KROSIGK, JAMES

4.Inventor Harmonized: DOVE LARRY JOHN(CA)
VON KROSIGK JAMES(US)

5.Country: US
6.Claims:
(en)A gas infusion waste water treatment facility having an apparatus for increasing gas components in a fluid uses a controller connected to a network and client device for remote control of fluid flow rates, magnet field intensity, and pressure of fluid based on preset parameters. Conductive wire coiled around a magnet fluid treatment device generates a bidirectional magnetic flux to magnetically treat fluid in the conduit at an entry pressure. The facility creates absorption of increased gas concentration containing an oxygen atom into the fluid from 10% to at least 500%.
(en)A gas infusion waste water treatment facility having an apparatus for increasing gas components in a fluid uses a controller connected to a network and client device for remote control of fluid flow rates, magnet field intensity, and pressure of fluid based on preset parameters. Conductive wire coiled around a magnet fluid treatment device generates a bidirectional magnetic flux to magnetically treat fluid in the conduit at an entry pressure. The facility creates absorption of increased gas concentration containing an oxygen atom into the fluid from 10% to at least 500%.

7.Description:
(en)CROSS-REFERENCE TO RELATED APPLICATIONS
The present application is a Continuation In Part of U.S. patent Ser. No. 15/782,342 filed on Oct. 12, 2017 for “APPARATUS FOR INCREASING GAS COMPONENTS IN A FLUID,” which is a continuation of U.S. patent Ser. No. 15/476,159 filed on Mar. 31, 2017 for “APPARATUS FOR INCREASING GAS COMPONENTS IN A FLU ID.” This reference is hereby incorporated in its entirety.


FIELD
The present embodiment generally relates a gas infusion waste water treatment facility for increasing the saturation of a specific gas in a waste fluid. More specifically, this application relates to increasing oxygen saturation in waste fluids.
BACKGROUND
A need exists to improve the saturation level of oxygen in waste water.
A need exists for a gas infusion waste water treatment facility that increases easily the concentration of atoms of oxygen in waste water.
The present embodiments meet these needs.



BRIEF DESCRIPTION OF THE DRAWINGS
The detailed description will be better understood in conjunction with the accompanying drawings as follows:
FIG. 1 depicts a diagram of a gas infusion waste water treatment facility according to embodiments.
FIG. 2 is a schematic view of an apparatus for increasing a gas component in a fluid according to one or more embodiments.
FIG. 3 depicts an end elevation view of the antenna connected to the variable frequency generator according to one or more embodiments.
FIG. 4 depicts a section view of the antenna according to one or more embodiments.
FIG. 5 depicts a section view of a gas injector according to one or more embodiments.
FIG. 6 depicts an end elevation view of a pre-treatment electrostatic magnetic assembly according to one or more embodiments.
FIG. 7 depicts a section view of the pre-treatment electrostatic magnetic assembly according to one or more embodiments.
FIG. 8 depicts a section view of a treatment chamber according to one or more embodiments.
FIG. 9 depicts a section view of a treatment chamber with two chambers according to one or more embodiments.
FIG. 10 depicts a diagram of the magnetic flux according to one or more embodiments.
FIG. 11 depicts a diagram of the data storage according to one or more embodiments.



The present embodiments are detailed below with reference to the listed Figures.
DETAILED DESCRIPTION OF THE EMBODIMENTS
Before explaining the present gas infusion waste water treatment facility in detail, it is to be understood that the facility is not limited to the particular embodiments and that it can be practiced or carried out in various ways.
The invention relates to a gas infusion waste water treatment facility.
The invention enables the gas infusion waste water treatment facility to reduce (i) the amount of digester sludge by 30% to 70%, (ii) reduce haul off costs of digester sludge, and (iii) reduce use of fossil fuels while simultaneously reducing energy costs of operating an aeration basin by reducing large blower operational requirements through the use of increased gas concentration of the aeration waste fluid.
A gas infusion waste water treatment facility has a waste fluid inlet, wherein the waste fluid inlet receives waste fluid containing a reduced solids content, such as less than 4% solids.
The gas infusion waste water treatment facility has an aeration basin connected to the waste fluid inlet for increasing gas concentration in the waste fluid with a gas component by at least 10% wherein the gas component contains an oxygen atom forming an aerated waste fluid.
The gas infusion waste water treatment facility has a clarifier connected to the aeration basin receiving aerated waste fluid forming clarified liquid and having a cleaned fluid discharge port for discharging separated solids from the clarified liquid.
The gas infusion waste water treatment facility has a chlorine contactor receiving clarified liquid containing increased gas concentration aerated waste fluid for processing and discharge as safe water from the gas infusion waste water facility.
The gas infusion waste water treatment facility has a digester connected to the aeration basin receiving the aerated waste fluid and having a sludge removable port forming digester sludge, wherein the digester receives compressed air to increase gas concentration in the aerated waste fluid forming digester waste fluid.
The gas infusion waste water treatment facility has a recycle line flowing flowable solids from clarifier back to the aeration basin.
The gas infusion waste water treatment facility has a first apparatus for increasing a gas component of the aerated waste liquid receiving aerated waste fluid, treating the aerated waste fluid forming increased gas concentration aerated waste fluid, and flowing the increased gas concentration aerated waste fluid to the clarifier.
The gas infusion waste water treatment facility has a second apparatus for increasing a gas component fluidly connected to the digester receiving digester waste fluid, treating the digester waste fluid forming increased gas concentration digester waste fluid, and recycling the increased gas concentration digester waste fluid back to the digester.
In the apparatus, a conductive wire is coiled around a magnet fluid treatment device forming an “antenna” that generates a bidirectional magnetic flux to magnetically treat fluid in the conduit at an entry pressure.
A variable frequency generator energizes the antennae using from 0.01 Hz to 25,000,000 Hz generating magnetic flux lines that pass through the fluid flow conduit.
A gas injector receives fluid at entry pressure, mixes in gas components and lowers entry pressure to a gas injector discharge pressure.
A treatment chamber receives fluid at gas injector discharge pressure and further lowers the gas injector discharge pressure to a treatment chamber pressure causing absorption of increased gas component in the fluid by from 10% to at least 500%.
The invention described herein may be beneficial for use in a number of different areas and industries including but not limited to waste water treatment. The energy requirements may be reduced for purification of the activated sludge systems commonly used in industrial and municipal waste water treatment. There may also be a substantial increase in the capacity of existing waste water infrastructures. An increase in the rate of microbial metabolic activity may be achieved as a result of the lagoon bottom having an abundance of free molecular oxygen. The free molecular oxygen may provide the infrastructure with a significant increase in waste water treatment capacity and has the potential to reduce the electrical demands of blowers for an equivalent volume of waste water treated.
The invention described herein may be beneficial for use in a number of different areas and industries including but not limited to reverse osmosis: The treated fluid created through the use of the apparatus and method described above may allow reverse osmosis units to function at substantially higher through-put levels. This in turn could result in a reduction in energy costs. This may be beneficial for creating potable water from seawater.
The invention described herein may be beneficial for use in a number of different areas and industries including but not limited to cleaner flue discharge from power generation facilities and refineries. Carbon, nitrogen and/or sulfur are commonly produced in flue gases of power generation facilities. The method and apparatus described above may be used to convert the carbon, nitrogen and/or sulfur to carbonate, nitrate and/or sulfate which can be removed by scrubbing the flue gas with water and later used as fertilizers. This allows for the possibility of cleaner exhaust gases from flue stacks.
The invention described herein may be beneficial for use in a number of different areas and industries including but not limited to emulsion breaking application for chemical and oil refining, and de-oiling of oil drilling fluids and drill bit cuttings from subsurface strata.
The invention described herein may be beneficial for use in a number of different areas and industries including but not limited to fluid purification including fluid sterilization that can be achieved when ozone gas is mixed into the fluid being treated.
The invention described herein may be beneficial for use in a number of different areas and industries including but not limited to remediation of rivers and lakes by re-oxygenation of contaminated water ways and de-nitrification of water ways
In embodiments, the apparatus may be used to create a home based system for the delivery of oxygenated water to a household. Potential benefits of oxygenated water include health benefits, inhibiting scaling on fixtures, reduce the use of soaps, benefit the city sewage treatment and eliminate faults involved in septic tank systems by creating an activated sludge system.
In embodiments, the apparatus could also be used for delivering oxygenated water to a municipality, with potential benefits including improved municipal fluid treatment, expanding the capacity of a central waste water facility without additional capital costs, eliminating odors and noise, reduction in the cost of future infrastructure expansion and a reduction in the amount of solids left after treatment, thereby reducing haul-off and landfill costs.
Any use herein of any terms describing an interaction between elements is not meant to limit the interaction to direct interaction between the subject elements, and may also include indirect interaction between the elements such as through secondary or intermediary structure unless specifically stated otherwise.
The following terms are used herein:
The term “antenna” refers to a conductive wire coiled around a magnet fluid treatment device. The antenna generates a bidirectional flux field. In embodiments, the magnetic field that can be read at 2 milligauss at 20 feet in either direction from the antenna in the connected conduit. The field is a bidirectional flux field, that is, for the 2 milligauss unit. The beam extends 20 feet in each direction, for a total of 40 feet. In embodiments the field can be read at 100 milligauss, and in such embodiments, the field extends at least 6 feet in each direction. The antenna generates a magnetic field having flux lines that pass through the fluid.
The term “client device” refers to a smart phone, a laptop, another computer, a wearable computer or combinations thereof.
The term “controller” refers to either a computer with processor and memory or a programmable logic circuit with memory.
The term “flow meter” refers to a device for measuring the rate of fluid flow into the pre-treatment electrostatic magnetic assembly or into the antenna when no pretreatment is performed.
The term “fluid” refers to fresh water, sea water, water with particulate up to 50%, effluent from chemical processing and waste water.
The term “fluid flow conduit” refers to a pipe that fits inside the magnetic fluid treatment device encircling the pipe. The pipe can be a polymer, a composite, or combinations thereof.
The term “fluid flow rate” refers to the rate of fluid flow between the pump and the pre-treatment electrostatic magnetic assembly.
The term “gas components” as used herein refers to at least one of: oxygen, ozone, nitrogen, hydrogen, sulfur, carbonates, and carbon monoxide or any other type of gaseous material.
The term “gas injector” refers to a mixing chamber with a fluid outlet and a gas inlet. The gas inlet of the gas injector connects to a source of the gas components, such as a gas generator that produces a continuous supply of oxygen, ozone, nitrogen, hydrogen, sulfur, carbonates, and carbon monoxide or any other type of gaseous material.
The term “steady state magnetic field intensity” refers to the magnetic field in the pre-treatment electrostatic magnetic assembly.
The term “variable state magnetic field intensity” refers the magnetic field of the antenna once the antenna is energized.
The term “network” refers to a local area network, a wide area network, a cellular network, a global communication network, a satellite network or combinations thereof.
The term “preset parameters” refers to stored operational data stored in the memory of the controller or in memory connected to a processor of a client device.
The term “pressure of the fluid” refers to each of the four different pressures, a pre-treatment pressure, an entry pressure, a gas injector discharge pressure, and a treatment chamber pressure. The pressures are each detectable in the apparatus, namely pressure at an inlet before the pre-treatment electrostatic magnetic assembly, pressure at a conduit between the antenna and the gas injector, pressure at a location in the conduit between the gas injector and the treatment chamber, and pressure in a conduit after the treatment chamber.
The term “pre-treatment electrostatic magnetic assembly” refers to a magnet that provides a steady state magnetic flux on the fluid as it passes through the conduit. In embodiments, 1 to 4 magnets can be used.
The term “pump pressure gauge” refers to a gauge, which displays the pressure from a pressure sensor to a user.
The term “remote control” refers to the bidirectional communication of commands to the apparatus and the receipt of signals from the apparatus for providing bidirectional control of the apparatus as it operates or starts up or shuts down. The remote control can include online configuration and reconfiguration of the apparatus as it operates. The remote control specifically can control electromagnetic field intensity, magnetic field intensity, fluid flow rates, and pressure on the fluid.
The term “variable frequency generator” refers to a generator that transmits a frequency from 0.01 Hz and 25,000,000 Hz to the antenna to activate the antenna. These generators are commercially available units from China, such as those made by Feeltech Dual Chamber Waveform Generator.
The term “sensor” refers to pressure sensors, temperature sensors, surface tension sensors. Each of the sensors communicates with the controller.
The term “silicate based media” refers to beads, rocks, glass or crystal for the creation of eddies or vortexes in the treatment chamber that assists in the dispersion of the gasses into the fluid.
The term “treatment chamber” refers to a device that can have a single chamber or two chambers and an exit to cause pressure on the fluid to be decreased. In the two chamber version, the treatment chamber can have a primary chamber fluidly connected to a secondary chamber, wherein the secondary chamber has the exit. The primary chamber receives the fluid at a first pressure and passes the fluid to the secondary chamber, wherein the exit drops the pressure. Fluid at the lower pressure then flows to an outlet of the secondary chamber of the treatment chamber. In the embodiment with a single chamber, the fluid enters at an initial pressure, and then the exit connected to the single chamber causes a pressure drop on the fluid enabling the fluid to exit the single chamber at a lower pressure.
In embodiments, the gas infusion waste water treatment facility can include a plurality of sensors mounted to detect fluid flow in the fluid and pressure in the fluid. The sensors are connected to a control processor communicating with a network to a client device. The client device has a processor and instructions in a computer memory at an injector inlet pressure sensor, an injector outlet pressure sensor, a surface tension sensor, and a discharge pressure sensor.
In embodiments, the gas infusion waste water treatment facility can include a pre-treatment electrostatic magnetic assembly having an inlet, an outlet and at least one permanently magnetized magnet, the inlet receiving fluid at an entry pressure. The magnet is positioned such that fluid travelling through the pre-treatment electrostatic magnetic assembly passes the permanently magnetized magnet.
In embodiments, the gas infusion waste water treatment facility can include a flow meter measuring flow into an inlet of the pre-treatment electrostatic magnetic assembly.
In embodiments, the gas infusion waste water treatment facility can include a centrifugal or piston fluid pump connected to a pump pressure gauge connected to the inlet of the pre-treatment electrostatic magnetic assembly. The pump pressure gauge is further connected to the controller.
In embodiments, the gas infusion waste water treatment facility can include a generator connected to the gas injector for providing oxygen, ozone, nitrogen, hydrogen, sulfur, carbonates, and carbon monoxide or any other type of gaseous material.
In embodiments, the treatment chamber of the apparatus has a primary chamber and a secondary chamber. At least one port with a vortex inducing apparatus is positioned between the first chamber and the second chamber.
In embodiments, the apparatus can include a silicate based media contained within the primary chamber of the treatment chamber.
In embodiments, the silicate based media is contained within the secondary chamber of the treatment chamber.
In embodiments, the gas injector can be a venturi injector.
In embodiments, the apparatus can include at least one port with a vortex inducing apparatus creating a vortex within the treatment chamber and acting to enhance the effect that lowering the pressure causes on the dissolving of gas into the fluid.
In embodiments, the antenna can have a conductive wire, preferably made of copper or aluminum that is wrapped around a ferromagnetic magnet. A person of skill will understand that the conductive wire may be made of other appropriate ferromagnetic materials and may even be rare earth magnets.
In embodiments, the antenna encircles at least a portion of a fluid flow conduit, which has an inlet for allowing fluid to enter the center of the antenna and an outlet through which fluid exits the antenna.
In embodiments, the variable frequency generator has a cable, which connects to the antenna to energize the antenna. Once activated, the antenna causes a modification to the physical characteristics of the fluid that passes through it.
In embodiments, it should be noted that the pre-treatment electrostatic magnetic assembly can have an inlet, an outlet and a yet another magnet, that is a second magnet for dual magnetic treatment of the fluid. The outlet of the pre-treatment electrostatic magnetic assembly is in fluid communication with inlet of antenna. The pretreatment magnet is positioned such that fluid travelling through pre-treatment electrostatic magnetic assembly passes this pretreatment magnet.
In other embodiments, the second magnet of the pretreatment unit may be positioned within pre-treatment electrostatic magnetic assembly such that fluid flows around this magnet.
In other embodiments, the second pretreatment magnet may be positioned within pre-treatment electrostatic magnetic assembly such that fluid flows between two pretreatment magnets.
The unusual antenna in combination with the pre-treatment electrostatic magnetic assembly is used to modify the physical characteristic of the fluid.
The physical characteristic modification may be achieved by satisfying any active unshared negative electrons of the fluid that passes through, forming altered and satisfied fluid molecules.
A water molecule with a single oxygen atom and two hydrogen atoms and two unshared electrons can be modified in orientation by the magnetic fields.
The orientation of the hydrogen atoms and oxygen atom may cause gases to form bubbles as they enter the water because the non-charged gas is attracted to itself and does not disperse into the fluid as a molecular solution. Due to the shape of the water molecule and the presence of unshared electrons, there could be an uneven distribution of charge which allows neighboring water molecules to be held together by hydrogen bonds.
In embodiments, the antenna modifies the physical characteristics of water molecules by satisfying the unshared pair of electrons. With the unshared electrons being satisfied, the attraction between adjacent water molecules is reduced and hydrogen bonds are less likely to form. The antenna and pre-treatment electrostatic magnetic assembly reduce the attraction of oxygen atoms of water molecules to hydrogen atoms of other water molecules.
In embodiments the flow path of the fluid may be constricted as the fluid enters mixing chamber. This constriction creates a high-velocity stream, which in turn, results in a decrease in pressure to a second pressure that may create a vacuum.
Gas is then drawn or forced through a gas inlet from a gas source, such as an oxygen generator or nitrogen generator and the gas components are mixed with the fluid. The flow path of the fluid can then increase in diameter as the fluid continues through mixing chamber towards a fluid outlet. The increase in diameter causes a reduction in fluid velocity before the fluid exits fluid outlet and enters into treatment chamber.
Various types of gas injectors may be used in the apparatus. The gas inlet connected to a gas source enables pressurized gas to be drawn or forced through the gas inlet of the mixing chamber into the mixing chamber.
The pressurized gas mixes with the modified fluid in the mixing chamber to create a stable molecular fluid solution. With the attraction between adjacent water molecules being lower due to the satisfied electrons, increased amounts of gas may be dispersed into the fluid. The pressure of the fluid in the apparatus is lowered to a second pressure as it travels through gas injector. The stable molecular fluid solution flows through fluid outlet into the treatment chamber.
In embodiments, the treatment chamber can have an inlet in fluid communication with an outlet of the mixing chamber of gas injector.
In embodiments, an exit can be formed from the treatment chamber, which plays a role in lowering the pressure of the fluid travelling through treatment chamber to a third pressure.
The exit is positioned to create a high-velocity stream which results in the decrease in pressure. In embodiments, multiple ports with a vortex inducing apparatus may be used.
The treatment chamber has a fluid discharge outlet for discharging fluid from apparatus.
In other embodiments, the treatment chamber has a primary and a secondary chamber. Fluid enters the primary chamber and flows into the secondary chamber through a port with a vortex inducing apparatus.
The secondary chamber can have a fluid discharge outlet through which treated fluid is discharged from the apparatus.
The stable molecular fluid solution created in the gas injector flows into the primary chamber.
In embodiments, a silicate based media may be provided within primary chamber for pre-treating of the fluids. The purpose of the pre-treatment is to prepare the molecular fluid to be able to disperse more gas. The silicate based media causes the formation of eddies and vortexes within treatment chamber, which assists in the dispersion of the gases.
The silicate based media may contain silicate beads, rocks, glass or crystals.
After pre-treatment, when silicate based media is present, the stable molecular fluid solution flows through a port with a vortex inducing apparatus into a secondary chamber.
The pressure of the fluid in the apparatus is lowered to a third pressure as fluid travels into a secondary chamber as fluid travelling through the at least one port with a vortex inducing apparatus creates a high-velocity stream, which in turn results in a decrease in pressure.
The fourth pressure is preferably the same as or closes to the atmospheric pressure at the fluid discharge outlet.
In embodiments, the port with a vortex inducing apparatus can create a vortex within the secondary chamber or within both primary chamber and the secondary chamber. A vortex helps to maintain gas injected into fluid in the dispersed state and acts to enhance the effect that lowering the pressure has on the disperse-ability of gases. The secondary chamber may be provided with a silicate based media for the treatment of the fluid travelling through it. Once the fluid has passed through secondary chamber, fluid is discharged from apparatus through fluid discharge outlet.
In embodiments, the fluid discharged through fluid discharge outlet is supersaturated with the gas that is mixed into the fluid as it flows through mixing chamber of the gas injector and then the treatment chamber.
After satisfying the unshared pair of electrons in the fluid, the specific gravity may allow the gas molecules to remain in solution for extended periods of time. This may occur because the gas exists in its molecular form and may be suspended or may sink to the bottom of its containment. Whether the gas is suspended or sinks is dependent upon the molecular weight differential between the fluid and the gas that is used.
As an example, an increased saturation level of oxygen in water occurs because the molecular weight of oxygen (approximately 32 g/mol) is heavier than the molecular weight of water (approximately 18 g/mol).
This increased saturation allows the molecular oxygen (O 2 ) to sink to the bottom of its containment and remain in solution instead of bubbling upwards out of solution. The fluid does not have to be water and that the gas used does not have to be oxygen. The fluid may include but is not limited to oily fluids, water, diesel, gasoline or other propellants. The gas that is injected into the fluid is dependent upon the specific results the user wishes to achieve but should be gases that can enter in their molecular form and remain in solution in their molecular form. Oxygen is generally useful where the apparatus is in use for the treatment of fluids where aerobic microbial growth is beneficial, such as for the treatment of waste water, or for the growth of plants and other organisms in the fluid. Ozone is generally useful where the apparatus is in use for sanitization purposes.
Turning now to the Figures, FIG. 1 is a diagram of the gas infusion waste water treatment facility.
A gas infusion waste water treatment facility 8 is depicted.
A waste fluid inlet 402 receives waste fluid 405 containing reduced solids content, such as less than 4% solids.
An aeration basin 406 connected to the waste fluid inlet 402 for increasing gas concentration in the waste fluid with gas components 126 a from a gas source 124 a by at least 10% wherein the gas components contain an oxygen atom forming an aerated waste fluid 408 .
A clarifier 410 connected to the aeration basin 406 receiving aerated waste fluid 408 forming (i) clarified liquid 412 evacuated through cleaned fluid discharge port 414 and (ii) separated solids 416 and recycle port 418 .
A first apparatus 10 a for increasing a gas component of the aerated waste liquid receiving aerated waste fluid 408 , treating the aerated waste fluid forming increased gas concentration aerated waste fluid 420 , and flowing the increased gas concentration aerated waste fluid 420 to the aeration basis 406 .
A chlorine contactor 430 receiving clarified liquid 412 containing increased gas concentration aerated waste fluid for processing and discharges as safe water 432 from the gas infusion waste water facility.
A digester 440 connected to the aeration basin 406 . The digester 440 receiving the aerated waste fluid 408 and forms digester sludge 442 for discharge through discharge port 444 . The digester 440 receives compressed air to increase gas concentration in the aerated waste fluid forming digester waste fluid 446 .
A second apparatus 10 b for increasing a gas component is fluidly connected to the digester receiving digester waste fluid 446 , treats the digester waste fluid with compressed air forming increased gas concentration digester waste fluid 450 , and recycling the increased gas concentration digester waste fluid with gas components 126 b from a gas source 124 b back to the digester.
A recycle line 60 flows separated solids 416 from clarifier back to the aeration basin 406 .
FIG. 2 depicts a schematic view of an apparatus 10 a for increasing a gas component in a fluid.
The apparatus 10 a for increasing a gas component in a fluid has a controller 100 with a data storage 101 and processor in communication with a network 102 for communicating with a client device 104 for remote control of the apparatus 10 a.
The client device enables bidirectional remote control of fluid flow rate, magnetic field intensity, and a plurality of pressures of the fluid based on preset parameters.
In embodiments, the apparatus includes a plurality of sensors 200 a - 200 d penetrating the fluid flow conduit to detect pressure in the fluid. The sensors 200 a - 200 d are connected to the controller 100 , communicating with a network 102 to a client device 104 .
The apparatus 10 a includes a centrifugal or piston fluid pump 302 is connected to a pump pressure gauge connected to the inlet of a pre-treatment electrostatic magnetic assembly 34 and in communication with the controller 100 .
A flow meter 301 is connected to the controller 100 . The flow meter is configured for measuring flow into an inlet of the pre-treatment electrostatic magnetic assembly 34 and transmitting the measured flow to the controller 100 .
In embodiments, the apparatus has a fluid flow conduit 20 to magnetically treat fluid 116 in the fluid flow conduit 20 . The fluid 116 arrives in the fluid flow conduit 20 at an entry pressure 120 a.
In embodiments, a pre-treatment electrostatic magnetic assembly 34 . The pre-treatment electrostatic magnetic assembly 34 has an inlet 36 , an outlet 38 and at least one permanently magnetized magnet 39 .
In embodiments the permanently magnetized magnet 39 has magnetic anisotropy and magnetic coercively with magnetic moments due to upward electrons.
In embodiments, the pre-treatment electrostatic magnetic assembly receives fluid at an entry pressure 120 a.
The permanently magnetized magnet 39 is positioned such that fluid 116 travelling through the pre-treatment electrostatic magnetic assembly 34 passes the permanently magnetized magnet 39 .
In embodiments, a variable frequency generator 14 is electrically connected to the antennae 12 and in communication with the controller 100 .
Fluid 116 from the pre-treatment electrostatic magnetic assembly 34 passes through an inlet 22 past an antenna 12 to an outlet 24 at the discharge pressure 120 b.
The apparatus includes a gas injector 16 . The gas injector 16 has a fluid inlet 48 for receiving the fluid 116 at gas injector entry pressure 120 b , a fluid outlet 50 and a gas inlet 52 .
The gas inlet 52 is connected to a gas source 124 providing gas components 126 .
In embodiments, the gas source 124 can be a generator connected to the gas injector for providing oxygen, ozone, nitrogen, hydrogen, sulfur, carbonates, and carbon monoxide.
The gas injector 16 lowers the gas injector entry pressure 120 b of the fluid 116 to a gas injector discharge pressure 120 c.
In embodiments, the apparatus 10 a includes a treatment chamber 18 . The treatment chamber 18 has a primary chamber 55 , a secondary chamber 56 , a fluid inlet 58 , and at least one port with a vortex inducing apparatus 60 .
The at least one port with a vortex inducing apparatus 60 can be a flow controller that induces a mass of whirling fluid, which allows the gas component to enter the fluid.
In embodiments, at least one port with a vortex inducing apparatus may include baffles, blades, or deflectors or any other component used for inducing a mass of whirling fluid.
The at least one port with a vortex inducing apparatus 60 is positioned between the primary chamber 55 and the secondary chamber 56 .
Once the fluid has passed through secondary chamber 56 , fluid is discharged from apparatus through a fluid discharge outlet 62 .
The treatment chamber 18 receives the fluid 116 at the treatment chamber entry pressure 120 c and lowers the treatment chamber entry pressure to a treatment chamber discharge pressure 120 d.
In embodiments, the apparatus causes absorption of increased gas component 126 in the fluid from 10% to at least 500%.
In embodiments, the discharge pressure 120 b from the antenna 12 is in the gas injector entry pressure 120 b.
In embodiments, the gas injector discharge pressure 120 c is the treatment chamber entry pressure of 120 c.
FIG. 3 depicts end elevation view of the antenna connected to the variable frequency generator according to one or more embodiments.
The antenna 12 has a conductive wire 30 coiled around a magnet fluid treatment device 26 generating a bidirectional flux.
The magnet fluid treatment device 26 encircles at least a portion of a fluid flow conduit 20 to magnetically treat fluid 116 in the fluid flow conduit. The fluid arrives in the fluid flow conduit 20 at an entry pressure 120 a and passes past the antenna 12 to an outlet at the discharge pressure 120 b.
The variable frequency generator 14 is electrically connected to the antenna 12 and in communication with the controller.
The variable frequency generator 14 transmits a frequency from 0.01 Hz to 25,000,000 Hz to the antenna 12 to activate the antenna 12 generating a magnetic field having flux lines to pass through the fluid flow conduit 20 .
FIG. 4 depicts a section view of the antenna according to one or more embodiments.
The antenna 12 is shown with a conductive wire 30 coiled around a magnet fluid treatment device 26 . In embodiments, the magnet fluid treatment device includes a magnet 226 .
The magnetic fluid treatment device 26 encircles at least a portion of a fluid flow conduit 20 to magnetically treat fluid in the fluid flow conduit 20 .
The fluid arrives in the fluid flow conduit 20 through an inlet 22 at an entry pressure 120 a and passes past the antenna 12 to an outlet 24 at the discharge pressure 120 b.
FIG. 5 depicts a section view of a gas injector 16 according to one or more embodiments.
The gas injector 16 has a mixing chamber 46 . The mixing chamber has a fluid inlet 48 receiving the fluid at the entry pressure, a fluid outlet 50 and a gas inlet 52 .
In embodiments, the gas injector 16 can be a venturi injector.
FIG. 6 and FIG. 7 depict the pre-treatment electrostatic magnetic assembly 34 according to one or more embodiments.
The pre-treatment electrostatic magnetic assembly 34 has an inlet 36 , an outlet 38 and at least one permanently magnetized magnet 39 . The inlet receives fluid at the entry pressure 120 a.
The permanently magnetized magnet 39 is shown positioned such that fluid travelling through the pre-treatment electrostatic magnetic assembly passes the permanently magnetized magnet 39 .
FIG. 8 and FIG. 9 depict a treatment chamber 18 according to one or more embodiments.
The treatment chamber 18 has a primary chamber 55 , a secondary chamber 56 , a fluid inlet 58 in fluid communication with the fluid outlet 50 of the mixing chamber 46 of the gas injector and the port with the vortex inducing apparatus 60 .
The treatment chamber 18 receives the fluid at the gas injector discharge pressure 120 c and lowers the gas injector discharge pressure 120 c to a treatment chamber discharge pressure 120 d apparatus causing absorption of increased gas component 126 in the fluid by from 10% to at least 500%.
In embodiments, a silicate based media 300 can be contained within the primary chamber 55 and secondary chamber 56 of the treatment chamber 18 .
Once the fluid has passed through secondary chamber, fluid is discharged from apparatus through fluid discharge outlet 62 .
In embodiments, the port with the vortex inducing apparatus 60 can be positioned between the primary chamber 55 and the secondary chamber 56 .
The port with the vortex inducing apparatus 60 creates a vortex within the treatment chamber 18 and acts to enhance the effect that lowering the pressure causes on the dissolving of gas into the fluid.
FIG. 10 depicts a diagram of the magnetic flux according to one or more embodiments.
The variable frequency generator is electrically connected to the antenna and in communication with the controller. The antenna with a magnet fluid treatment device generates a bidirectional flux 114 . The variable frequency generator transmitting a frequency from 0.01 Hz to 25,000,000 Hz to the antenna to activate the antenna generating a magnetic field having flux lines 122 a - 122 f to pass through the fluid flow conduit.
FIG. 11 depicts a diagram of the data storage 101 according to one or more embodiments.
The data storage 101 is in communication with a processor 103 .
In embodiments, the data storage 101 has computer instructions 106 to instruct the processor to control fluid flow rate.
The data storage 101 has computer instructions 108 to instruct the processor to control magnetic field intensity.
The data storage 101 has computer instructions 110 to instruct the processor to control a plurality of pressures of the fluid based on preset parameters.
In embodiments, the data storage 101 can include pressures 111 , present parameters 112 , entry pressure 120 a , discharge pressure and gas injector entry pressure 120 b , gas injector discharge pressure and treatment chamber entry pressure 120 c , the treatment chamber discharge pressure 120 d , flow rates 134 and magnetic field intensity 136 .
While these embodiments have been described with emphasis on the embodiments, it should be understood that within the scope of the appended claims, the embodiments might be practiced other than as specifically described herein.