Liquid control device

Abstract

To provide a liquid control device which adjusts an electric field, electromagnetic field or electromagnetic wave for generated from an electrode and which allows an effective remedy or treatment with a compact device configuration.SOLUTION: A liquid control device of one embodiment of the present invention includes: at least one electrode; and a controller for controlling at least one voltage or voltage value of the current applied to the electrode, current value, frequency, or phase. In a state where the electrode is arranged to face the target part, the controller adjusts the voltage or the voltage value of current applied to the electrode, the current value, the frequency, or the phase; controls an electric field, magnetic field, electromagnetic field or electromagnetic wave for generated from the electrode; and controls such that at least one of the frequency and voltage applied to the electrode, and the electric field, magnetic field, electromagnetic field generated from the electrode, or the emission direction of the electromagnetic field, changes in a time series manner, or controls the voltage application time to the electrode.SELECTED DRAWING: Figure 1

Description

Technical Field

[0001] The present invention relates to a liquid control device.

Background Art

[0002] Conventionally, research has been conducted on the effects of electromagnetic field exposure on the human body with respect to the treatment of headaches, shoulder stiffness, etc. by applying an electromagnetic field to the human body.

[0003] For example, in Patent Document 1, electrodes are provided on the head side and the sole side of the feet of the chair on which the subject sits, and by applying AC high voltages of different frequencies to these two electrodes, the difference in the frequencies of the AC high voltages applied between the two electrodes is made substantially the same as a low frequency below the frequency (1 to 1.8 Hz) of the normal heart rate cycle (60 to 90 beats / min) of the human body, thereby expecting a relaxation effect of parasympathetic nerve predominance. As such a potential treatment device, for example, the White Longevity AC High Voltage Electric Field Health Device Healthtron HES-A30 has been approved by the Ministry of Health, Labour and Welfare of Japan (Approval Number 21100BZZ00265000) and is commercially available.

Prior Art Documents

Patent Documents

[0004]

Patent Document 1

Summary of the Invention

Problems to be Solved by the Invention

[0005] However, the electrotherapy device described in Patent Document 1 requires a high voltage of approximately 9000V to be applied to the electrodes, which necessitates boosting the commercial power supply of 100V (50 / 60Hz) to a high voltage using a transformer. This results in a large device, and furthermore, the device becomes complex in order to ensure safety. In addition, Patent Document 1 relies on the expectation of a relaxing effect through parasympathetic nervous system dominance, and is limited to expecting psychological effects on the subject, rather than exhibiting a more direct therapeutic effect.

[0006] The object of the present invention is to provide a liquid control device that can adjust electric fields, magnetic fields, electromagnetic fields, or electromagnetic waves generated from electrodes using a compact device configuration, thereby enabling effective treatment or procedures. [Means for solving the problem]

[0007] The object of each embodiment of the present invention can be achieved by the following configuration. That is, a control device according to the first aspect of the present invention comprises at least one electrode and a controller that controls at least one of the voltage value and frequency of a voltage applied to the electrode that includes at least one DC component and at least one AC component, and is a control device that controls the state of vibration corresponding to the state of a material, wherein the control device has a detection unit that detects an electrically detected value corresponding to the state of vibration corresponding to the state of a material, The electrically detected value corresponding to the vibration state includes at least one of the following electric quantities: voltage value, voltage frequency, current value, and current frequency. The control device controls, based on the electrically detected value, at least one of the voltage value and frequency of the voltage applied from the electrodes so that the vibration state corresponding to the state of the material is an appropriate value according to the type of material, and the electrodes are (a) The electrode is a detection unit, (b) The electrode is in contact with the substance, and (c) The electrode applies electromagnetic waves to space and generates a spatial potential, It is at least one of the following: (1) The controller includes a learning model for determining the controller's control parameters, which takes detection data, including an electrically detected value corresponding to the vibration state corresponding to the state of the substance detected by the detection unit, as input, the learning model being trained by machine learning using at least the detection data from the detection unit, and calculating the control parameters by inputting the detection data into the trained learning model. And, (2) The detection unit sends detection data including an electrically detected value corresponding to the vibration state corresponding to the state of the substance detected by the detection unit to the controller and at least one of the clouds that communicate with the controller. At least one of the controller and the cloud includes a storage device, the storage device stores control parameter calculation information including at least the voltage value, frequency, and application time of a target voltage corresponding to an electrically detected value corresponding to an electrical detection, the control parameter of the controller is calculated using the control parameter calculation information. The method is characterized by controlling at least one of the voltage value and frequency of the voltage applied to the electrode based on the control parameter set by at least one of the following, applying at least one of the electromagnetic field, electromagnetic wave, sound wave, and ultrasonic wave corresponding to the voltage from the electrode to the substance, and controlling the substance so that the vibration state corresponding to the state of the substance becomes an appropriate value. A control device according to a second aspect of the present invention comprises at least one electrode and a controller that controls at least one of the voltage value and frequency of a voltage applied to the electrode, which includes at least one DC component and at least one AC component, and is a control device that controls the state of vibration corresponding to the state of matter, the control device controls the state of vibration corresponding to the state of matter The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, the voltage value and frequency of the voltage applied from the electrodes are controlled so that the vibration state corresponding to the state of the material is an appropriate value according to the type of material, and the electrodes are (a2) The electrode is facing the substance, (b2) The electrode is in contact with the substance, and (c2) The electrode applies electromagnetic waves to space and generates a spatial potential, It is at least one of the following: The control parameters corresponding to the appropriate value of the vibration state corresponding to the state of the substance are set based on information about the substance, including at least one of temperature, humidity, atmospheric pressure, body temperature, blood pressure, pulse rate, age, DNA, and blood glucose level, and time information, including at least the time the voltage is applied to the electrodes. The controller controls at least one of the voltage value, frequency, and voltage application time of the voltage applied to the electrodes based on the set control parameters, and applies at least one of the electromagnetic field, electromagnetic wave, sound wave, and ultrasound corresponding to the voltage to the substance from the electrodes, thereby controlling the substance so that the vibration state corresponding to the state of the substance becomes an appropriate value. A control device according to a third aspect of the present invention is a control device according to a first or second aspect, wherein the vibration state corresponding to the state of the substance is The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, the device controls at least one of the following: control of blood flow velocity in blood vessels, control of edema improvement by minimizing fluid inside edema, control of vascular improvement by minimizing blood in blood vessels or ghost vessels, and control of improvement of at least one of endocrine, metabolic, hormonal, lymphatic, meridian, mitochondrial, and autophagy functions by minimizing at least one of interstitial fluid, lymphatic fluid, and body fluids.

[0008] This invention 4 manner The Your device is In the first or second control device, The state of vibration corresponding to the state of the aforementioned substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, control at least one of the voltage value and frequency of the voltage applied to the electrode, The invention is characterized by controlling the disruption of ion balance across cell membranes to improve or prevent at least one of edema, cellular edema, and neuronal edema; controlling the balance of at least one of hormones, endocrine system, lymphatic system, and meridian system; and controlling at least one of mitochondrial activity, autophagy activity, oocyte activity, and sperm activity.

[0009] This invention 5 manner The Your device is In a control device according to the first or second embodiment, The state of vibration corresponding to the state of the aforementioned substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.Based on control parameters corresponding to appropriate values, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode, the following can be achieved: improving or preventing clogging of at least one substance in body fluids, medicinal solutions, cosmetics, and liquids; improving or enhancing the fluidity of at least one substance in body fluids, medicinal solutions, cosmetics, and liquids; improving or preventing at least one of induration and hardening; improving or preventing syneresis of cells or tissues; removing at least one of reactive oxygen species and lactic acid; improving or preventing muscle imbalance; improving or enhancing at least one of body balance, fascial balance, occlusion, osteopathy, and bodywork; improving or preventing fractures or joint diseases; and improving or accelerating at least one of heartbeat and pulse. The invention is characterized by controlling the following: controlling the following: improving or normalizing blood pressure; controlling the following: improving or enhancing respiratory or pulmonary function; controlling the following: improving or enhancing dialysis function; controlling the following: improving or enhancing visual acuity or dynamic visual acuity; controlling the following: improving or preventing ophthalmic diseases; controlling the following: improving or preventing internal medicine diseases; controlling the following: improving or enhancing immune function; controlling the following: improving at least one of the permeability of drug delivery systems and cosmetics; controlling the efficacy or quality of at least one of drugs, cosmetics and liquids; controlling the extraction of at least one of body fluids, drugs, cosmetics and liquids; and controlling the state of vibration corresponding to the state of the substance and at least one of ectoplasm.

[0010] This invention 6 manner The Your device is In a control device according to the first or second embodiment, The state of vibration corresponding to the state of the aforementioned substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.By controlling at least one of the voltage value and frequency of the voltage applied to the electrode based on a control parameter corresponding to an appropriate value, performing control to prevent the growth of at least one of microorganisms, bacteria, fungi, and viruses, performing control to improve or prevent at least one of burns, necrosis, and bedsores, performing control to prevent metastasis, performing control to improve or prevent at least one of dementia, Alzheimer's disease, and Parkinson's disease, performing control for at least one of sleep improvement, beauty improvement, PMS, menstrual pain, pain, itching, health promotion, improvement of motor function, and anti-aging, performing control to improve or enhance the generation of at least one of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, and organs, performing control to improve at least one of preservation, freezing, thawing, culturing, and logistics of at least one of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, drugs, cosmetics, and liquids, and performing control to improve electrodes or containers used for at least one of preservation, freezing, thawing, culturing, and logistics of at least one of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, drugs, cosmetics, and liquids, characterized by performing at least one of the above controls.

[0011] The 7 aspect The control device is Control device according to the first or second embodiment wherein at least one of the voltage value and frequency of the voltage varies smoothly or stepwise over time within a predetermined range.

[0012] The 8 aspect The control device is Control device of the first or second embodiment wherein the state of vibration corresponding to the state of the substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.By controlling at least one of the voltage value and the frequency of the voltage applied to the electrode based on a control parameter corresponding to an appropriate value, controlling at least one of the bead arrangement, arrangement direction, water binding, and water activity of the moisture in the substance; controlling at least one of the interfacial polarization, interfacial tension, and emulsion state between the aqueous phase and other phases in the substance; and controlling the state of active oxygen in the substance, wherein any one of the above controls is performed.

[0013] The first aspect of the present invention 9 of the aspect The The control device is Control device of the first or second embodiment In this case, after generating an electric field, magnetic field, electromagnetic field, or electromagnetic wave from the electrode for a predetermined time, even after the electric field, magnetic field, electromagnetic field, or electromagnetic wave is removed, the control effect is sustained for a predetermined time.

[0014] The first aspect of the present invention 10 of the aspect The The control device is the first or the second method In the control device, the voltage applied to the electrode includes an AC component in addition to the DC component.

[0015] The first aspect of the present invention 11 of the aspect The The control device is the first or the second method In the control device, the electrode has a plate shape, rod shape, sheet shape, needle shape, or comb-tooth shape, or a shape combining two or more of the above shapes.

[0016] The first aspect of the present invention 12 of the aspect The The control device is the first or the second method In the control device, the controller is managed by at least one of a cloud, a server, and a network.

[0018] The first aspect of the present invention 13 of the aspect The The control device is the first or the second method In the control device, the state of vibration corresponding to the state of the substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.Based on control parameters corresponding to appropriate values, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode, the following can be achieved: improvement or prevention of infarction, necrosis, pressure ulcers, burns, removal of reactive oxygen species, removal of lactic acid, improvement of blood flow, improvement of lymphatic fluid flow, improvement of cerebral infarction, myocardial infarction, thrombosis, embolism, arteriosclerosis, improvement or prevention of clogging of at least one body fluid, drug solution, cosmetic, and liquid, improvement of the fluidity of at least one body fluid, drug solution, cosmetic, and liquid, improvement or prevention of at least one induration and hardening, improvement or prevention of syneresis of cells or tissues, cellular edema, nerve cell edema, edema, and pulmonary effusion. Swelling, joint effusion, ascites, insulin secretion disorders, excretory disorders, difficulty excreting, constipation, urinary disorders, stasis, blisters, improved drug delivery, reduced viscosity of drug solutions or body fluids, cell culture, regenerative medicine, shortening of culture time in regenerative medicine, improved culture quality, and improved culture efficiency (at least one of these), cell tissue regeneration, lactic acid reduction, swelling, enlargement, edema, fluid retention, dehydration of extracellular or intracellular fluid, skin diseases, pigmentation disorders, melasma, freckles, epidermal wrinkles, dermal wrinkles, expression lines, xerosis, improved physical condition, induration, muscle induration, myofascial release, improved myofascial potential, neurodegenerative diseases, myofascial electromagnetic therapy, muscle Balance, improved myofascial potential balance, improved body balance, improved fascial balance, improved occlusion, improved osteopathy, improved body alignment, improvement or prevention of fractures or joint diseases, improvement of balance of at least one of the endocrine, lymphatic, and meridian systems, fractures, joint diseases, skin care, moisturizing, improved fertility, infertility, improved sperm motility, sperm activity, egg activity, mitochondrial activity, autophagy activity, PMS, pain, itching, paresthesia, cold sensitivity, frigidity, spasms, anti-aging, hair follicle care, improved menopausal symptoms, improved cleansing, alopecia, AGA, ED, promotion of fat breakdown, contact lenses Improved comfort of glasses, dry eyes, improved vision, improved dynamic visual acuity, improved sleep disorders, improved sleep, improved sleep apnea syndrome, improved preventive medicine, improved nerve cells, improved cellular edema, protection against at least one virus, bacteria, and fungus, cancer, glaucoma, cataracts, age-related macular degeneration, ophthalmic diseases, hearing loss, hearing impairment, visual impairment, dementia, Alzheimer's disease, Parkinson's disease, improved sleep, improved beauty, health promotion, improved motor function, fluid balance, gastrointestinal diseases, respiratory diseases, cardiovascular diseases, neurological diseases, hematological diseases, nephrological diseases, endocrine diseases, internal medicine diseases, improved or normalized blood pressure, pulse,It is characterized by controlling the treatment to have at least one efficacy among the following: improvement or enhancement of at least one of the following: improvement or enhancement of cardiac rhythm, improvement or enhancement of respiratory or pulmonary function, improvement or enhancement of dialysis function, osteopathic treatment, improvement of rigor mortis, and improvement of rehabilitation medicine.

[0019] This invention 14 manner The Your device is the first or the second method In your device, the state of vibration corresponds to the state of the aforementioned substance. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, at least one of the voltage value and frequency of the voltage applied to the electrode is controlled to improve at least one of the preservation, freezing, thawing, culture, and logistics of organs, body fluids, blood, cells, tissues, skin, teeth, bones, joints, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, and liquids. Improvement of electrodes or containers used for this purpose, improvement or enhancement of the efficacy or quality of at least one drug, cosmetic, and liquid, improvement or enhancement of the extraction of at least one body fluid, drug, cosmetic, and liquid, improvement or enhancement of the production of at least one tooth, bone, joint, blood vessel, lymphatic vessel, nerve, cell, skin, hair, and organ, improvement or enhancement of emulsion properties, improvement or enhancement of drug delivery properties, improvement or enhancement of the efficacy or performance of drugs, prevention or control of the growth of at least one microorganism, bacteria, fungi, and virus, prevention of transfer, reduction of the viscosity of drug solutions, The state of vibration corresponding to the state of the aforementioned substance The method is characterized by controlling the control of at least one of the following effects: control of the ectoplasm and control of ectoplasm.

[0020] This invention 15 manner The Your device is the first or the second method In your device, the state of vibration corresponding to the state of the aforementioned substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.The method is characterized by controlling at least one of the following devices to improve the performance of an electromagnetic therapy device, an electric potential therapy device, a low-frequency therapy device, an EMS device, a massage device, a facial beauty device, a vibration device, a cavitation device, a microbubble device, a micro-nanobubble device, a nanobubble device, a fine-bubble device, a terahertz device, a high-frequency device, a quantum therapy device, a hair growth device, a cellulite device, a muscle relaxation device, an ultrasonic therapy device, a treatment machine, an artificial intelligence machine, an ozone generator, a hydrogen generator, an LED device, a beauty device, and a slimming device, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode based on control parameters corresponding to appropriate values. [Effects of the Invention]

[0022] According to the liquid control device of the present invention, an effective treatment or procedure can be performed by adjusting the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from electrodes with a compact device configuration. Specifically, each embodiment of the liquid control device provides the following effects.

[0023] This invention First aspect The The apparatus, according to a first aspect of the present invention, is a control device comprising at least one electrode and a controller that controls at least one of the voltage value and frequency of a voltage applied to the electrode, which includes at least one DC component and at least one AC component, and is a control device for controlling the state of vibration corresponding to the state of a material, wherein the control device has a detection unit that detects an electrically detected value corresponding to the state of vibration corresponding to the state of a material, The electrically detected value corresponding to the vibration state includes at least one of the following electric quantities: voltage value, voltage frequency, current value, and current frequency. The control device controls, based on the electrically detected value, at least one of the voltage value and frequency of the voltage applied from the electrodes so that the vibration state corresponding to the state of the material is an appropriate value according to the type of material, and the electrodes are (a) The electrode is a detection unit, (b) The electrode is in contact with the substance, and (c) The electrode applies electromagnetic waves to space and generates a spatial potential, It is at least one of the following: (1) The controller includes a learning model for determining the controller's control parameters, which takes detection data, including an electrically detected value corresponding to the vibration state corresponding to the state of the substance detected by the detection unit, as input, the learning model being trained by machine learning using at least the detection data from the detection unit, and calculating the control parameters by inputting the detection data into the trained learning model. And, (2) The detection unit sends detection data including an electrically detected value corresponding to the vibration state corresponding to the state of the substance detected by the detection unit to the controller and at least one of the clouds that communicate with the controller. At least one of the controller and the cloud includes a storage device, the storage device stores control parameter calculation information including at least the voltage value, frequency, and application time of a target voltage corresponding to an electrically detected value corresponding to an electrical detection, the control parameter of the controller is calculated using the control parameter calculation information. Based on the control parameters set by at least one of the following, the voltage value and frequency of the voltage applied to the electrode are controlled, and at least one of the electromagnetic field, electromagnetic wave, sound wave, and ultrasonic wave corresponding to the voltage is applied from the electrode to the substance, thereby controlling the substance so that the vibration state corresponding to the state of the substance becomes an appropriate value. The control device of the second embodiment is: A control device according to a second embodiment comprises at least one electrode and a controller that controls at least one of the voltage value and frequency of a voltage applied to the electrode, which includes at least one DC component and at least one AC component, and is a control device that controls the state of vibration corresponding to the state of matter, the control device controls the state of vibration corresponding to the state of matter The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, the voltage value and frequency of the voltage applied from the electrodes are controlled so that the vibration state corresponding to the state of the material is an appropriate value according to the type of material, and the electrodes are (a2) The electrode is facing the substance, (b2) The electrode is in contact with the substance, and (c2) The electrode applies electromagnetic waves to space and generates a spatial potential, It is at least one of the following: It has been shown that the control parameters corresponding to the appropriate value of the vibration state corresponding to the state of the substance are set based on information about the substance, including at least one of temperature, humidity, atmospheric pressure, body temperature, blood pressure, pulse rate, age, DNA, and blood glucose level, and time information, including at least the time the voltage is applied to the electrodes. Based on the set control parameters, the controller controls at least one of the voltage value, frequency, and voltage application time of the voltage applied to the electrodes, and applies at least one of the electromagnetic field, electromagnetic wave, sound wave, and ultrasound corresponding to the voltage to the substance from the electrodes, thereby controlling the substance so that the vibration state corresponding to the state of the substance becomes an appropriate value. Furthermore, a control device according to the first or second embodiment. This method controls the state of the liquid in an object facing an electrode, thereby increasing the interfacial polarization of water in the object and decreasing the interfacial tension, which in turn causes the liquid particles to become micronized. In this embodiment of the liquid control device, the size of the water droplet particles obtained by applying an electric field is 2.5 to 8 μm. Since the distance between cells in living organisms is 12 μm or less, the water droplets with a particle size of 12 μm or less obtained in this embodiment have the property of easily penetrating between cells in living organisms. In this embodiment, the micronized water particles obtained by applying an electric field penetrate between cells in living organisms such as animals and plants, producing various beneficial effects. Furthermore, the control device of the first or second embodiment is, for example, The voltage applied to the electrodes is selected and controlled by the controller within a range of 0V to 7000V, and the frequency of the AC component of the voltage is within a range of 0Hz to 1MHz, according to the location and state of the object being controlled. Furthermore, the control device of the first or second embodiment is, for example,The liquid control device comprises at least one electrode and a controller that controls at least one of the voltage value, current value, frequency, or phase of a voltage or current applied to the electrode, wherein the controller adjusts at least one of the voltage value, current value, frequency, or phase of a voltage or current having a DC component and / or AC component applied to the electrode with the electrode positioned facing a target part, controls at least one of the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from the electrode, and controls the frequency, voltage applied to the electrode and at least one of the emission direction of the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from the electrode to change over time, or controls the duration of voltage application to the electrode, depending on the target part facing the electrode. With the liquid control device of this embodiment, by applying an electric field from the electrode, the interfacial polarization of the liquid is increased and the interfacial tension is reduced, thereby atomizing the liquid particles, controlling the atomized liquid particles to bead-like arrangements, further improving the emulsion properties of the atomized liquid, and further improving the quality of the liquid, for example Controlling a material so that its vibrational state, corresponding to its state, reaches an appropriate value. This is possible. The liquid control device of this embodiment, through these functions, can adjust the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from the electrodes with a compact device configuration, thereby enabling effective treatment or procedure. Furthermore, the control device of the third embodiment is The state of vibration corresponding to the state of the aforementioned substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, the following controls are achieved by controlling at least one of the following: control of blood flow velocity in blood vessels, control of edema improvement by minimizing fluid within edema, control of vascular improvement by minimizing blood in blood vessels or ghost vessels, and control of at least one of endocrine, metabolic, hormonal, lymphatic, meridian, mitochondrial, and autophagy improvement by minimizing at least one of interstitial fluid, lymphatic fluid, and body fluids. It is possible.

[0024] This invention 4 manner The Your device corresponds to the state of vibration of the aforementioned material. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.By controlling at least one of the voltage value and frequency of the voltage applied to the electrode based on control parameters corresponding to appropriate values, it is possible to control the disruption of the ion balance across the cell membrane, thereby improving or preventing at least one of edema, cellular edema, and nerve cell edema; controlling the balance of at least one of hormones, endocrine system, lymphatic system, and meridians; and controlling at least one of mitochondrial activity, autophagy activity, oocyte activity, and spermatocyte activity. By controlling the state of the liquid in the object facing the electrode, the interfacial polarization of water in the object is increased and the interfacial tension is decreased, resulting in the liquid particles being atomized. In this embodiment of the liquid control device, the size of the water droplet particles obtained by applying an electric field is 2.5 to 8 μm. Since the distance between cells in living organisms is 12 μm or less, the water droplets with a particle size of 12 μm or less obtained in this embodiment have the property of easily penetrating between cells in living organisms. In this embodiment, water particles, atomized by the application of an electric field, penetrate between the cells of living organisms such as animals and plants, producing various beneficial effects. By improving fluid metabolism, it is possible to control or prevent edema, cellular edema, or nerve cell edema. Furthermore, by improving fluid metabolism, it is possible to control the balance of hormones, endocrine system, lymphatic system, or meridians. In addition, by improving fluid metabolism, it is possible to control mitochondrial activity, autophagy activity, oocyte activity, or sperm activity.

[0025] This invention 5 manner The Your device corresponds to the state of vibration of the aforementioned material. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.Based on control parameters corresponding to appropriate values, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode, the following can be achieved: control to improve or prevent clogging of at least one substance in body fluids, drug solutions, cosmetics, and liquids; control to improve or enhance the fluidity of at least one substance in body fluids, drug solutions, cosmetics, and liquids; control to improve or prevent at least one of induration and hardening; control to improve or prevent syneresis of cells or tissues; control to remove at least one of reactive oxygen species and lactic acid; control to improve or prevent muscle imbalance; control to improve or enhance at least one of body balance, fascial balance, occlusion, osteopathy, and bodywork; control to improve or prevent fractures or joint diseases; control to improve at least one of heartbeat and pulse. It is possible to control the following: improve or normalize blood pressure, improve or enhance respiratory or pulmonary function, improve or enhance dialysis function, improve or enhance visual acuity or dynamic visual acuity, improve or prevent ophthalmic diseases, improve or prevent internal medicine diseases, improve or enhance immune function, improve at least one of drug delivery systems and cosmetic permeability, improve or enhance at least one efficacy or quality of drugs, cosmetics, and liquids, improve or enhance the extraction of at least one of body fluids, drugs, cosmetics, and liquids, and control at least one of the vibrational states and ectoplasm corresponding to the states of the substance. Furthermore, the control device according to the fifth aspect of the present invention controls the state of the liquid in an object facing an electrode, thereby increasing the interfacial polarization of water in the object and decreasing the interfacial tension, which in turn micronizes the liquid particles. In this liquid control device, the size of the water droplet particles obtained by applying an electric field is 2.5 to 8 μm. Since the distance between cells in living organisms is 12 μm or less, the water droplets with a particle size of 12 μm or less obtained in this embodiment have the property of easily penetrating between cells in living organisms. In this embodiment, the micronized water particles obtained by applying an electric field penetrate between cells in living organisms such as animals and plants, producing various effects. Micronization of the liquid allows for control to improve or prevent clogging of body fluids, drug solutions, cosmetics, or liquids, and to improve or enhance the fluidity of body fluids, drug solutions, cosmetics, or liquids. By appropriately maintaining the amount of water in cells and tissues, it is possible to improve or prevent induration or hardening. In addition, by ensuring that water reaches cells and tissues, it is possible to improve or prevent syneresis of water from cells and tissues. By improving the flow of liquids, metabolism is improved, and control can be achieved to remove reactive oxygen species or lactic acid. For example, muscle hardening occurs due to water separation from muscles, but by applying an electric field from the electrodes of the liquid control device in this embodiment, the interfacial tension of the liquid can be reduced, and by atomizing the water, the metabolism of cells and tissues can be improved, thereby improving or preventing muscle imbalance, and improving or enhancing body balance, fascial balance, occlusion, osteopathy, and body alignment. For fractures and vascular diseases, sufficient supply of blood and lymph fluid to the affected area is essential for improving natural healing power, and by improving the fluidity of liquids, control can be achieved to improve or prevent fractures and joint diseases. Along with improved blood flow, control can be achieved to improve or enhance heart rate or pulse rate, and to improve or normalize blood pressure. Improved blood flow and improved fluid fluidity also contribute to control that improves or enhances respiratory function or lung function, and that improves or enhances dialysis function. By improving fluid metabolism, it is possible to control and improve visual acuity, including dynamic visual acuity, and to control and improve or prevent ophthalmic diseases.By improving blood flow and fluid balance, it is possible to control and improve or prevent internal medicine diseases. Furthermore, by improving the metabolism of liquids, it is possible to control and improve immune function. By improving liquid fluidity, it is possible to control and improve the penetration of drug delivery systems or cosmetics. By applying an electric field from electrodes with the liquid control device of this embodiment, the emulsion state of the liquid is improved, that is, the two liquids are atomized and the degree of mixing between the two liquids is improved, so that, for example, oil is well dispersed in water, or water is well dispersed in oil. As a result, it is possible to control and improve the efficacy or quality of pharmaceuticals, cosmetics, or liquids. Furthermore, it is possible to control and improve the extraction of bodily fluids, pharmaceuticals, cosmetics, or liquids. The conventional extraction time is significantly reduced, the extracted material changes to a state that does not deteriorate for a long time, and a large amount can be extracted from the same raw material, so improved extraction efficiency is achieved. By applying an electric field from electrodes using the liquid control device of this embodiment, it is possible to reduce the interfacial tension of the liquid, arrange the liquid particles in a beaded pattern, and improve the emulsion properties. In addition, it is possible to improve the quality of the water, for example, by controlling the material so that the vibrational state corresponding to the state of the material is at an appropriate value. Improving the quality of the water enables control over all natural phenomena involving water, and therefore, it is also possible to control ectoplasm, for example.

[0026] This invention 6 manner The Your device corresponds to the state of vibration of the aforementioned material. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.Based on control parameters corresponding to appropriate values, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode, the following can be achieved: preventing the growth of at least one of microorganisms, bacteria, fungi, and viruses; improving or preventing at least one of burns, necrosis, and pressure ulcers; preventing metastasis; improving or preventing at least one of dementia, Alzheimer's disease, and Parkinson's disease; improving sleep, improving beauty, PMS, menstrual pain, pain, itching, promoting health, improving motor function, and anti-aging; and protecting teeth, bones, joints, blood vessels, lymphatic vessels, nerves. Controlling at least one of the following: improving or enhancing the production of at least one of blood, cells, skin, hair, and organs; improving at least one of the storage, freezing, thawing, culturing, and logistics of at least one of organs, body fluids, blood, cells, tissues, skin, hair, cadavers, DNA, stem cells, sperm, eggs, drugs, cosmetics, and liquids; and improving electrodes or containers used for at least one of the storage, freezing, thawing, culturing, and logistics of at least one of organs, body fluids, blood, cells, tissues, skin, hair, cadavers, DNA, stem cells, sperm, eggs, drugs, cosmetics, and liquids. It is possible.By applying an electric field from an electrode using the liquid control device of this embodiment, the interfacial tension of the liquid can be reduced, the liquid particles can be made into microparticles, and the emulsion state of the liquid can be improved. In other words, by miniaturizing the two liquids and improving the degree of mixing between the two liquids, it becomes possible to achieve a state in which, for example, oil is well dispersed in water, or water is well dispersed in oil. In the production of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, or organs, the liquid control device of this embodiment functions to improve water permeability, water retention characteristics, and emulsion properties by reducing the interfacial tension of water and miniaturizing water particles. This allows for control that improves or enhances quality, shortens production time, simplifies quality procedures, and reduces costs when artificially producing each tissue. The liquid control device of this embodiment controls the state of the liquid in the object facing the electrode, and by controlling it to reduce the interfacial tension of the liquid, the liquid particles can be made into microparticles, and the microparticles of the liquid can be controlled to bead up. Within the body, tissues, and cells, microorganisms, bacteria, fungi, and viruses bind to free water and utilize its moisture for proliferation. Therefore, by controlling the free water within the body, tissues, and cells to form a chain-like structure, the proliferation of microorganisms, bacteria, fungi, and viruses can be inhibited. Furthermore, the chain-like arrangement of water within tissues and cells prevents evaporation and syneresis, thus maintaining the freshness of tissues and cells. This allows for improved control of the preservation, freezing, thawing, culture, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, or liquids, and also improves electrodes or containers used for the preservation, freezing, thawing, culture, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, or liquids.

[0027] This invention 7 manner The Your device has a voltage value of the aforementioned voltage. and frequency at least one ofThe voltage is controlled to fluctuate smoothly or in steps over time within a predetermined range. This ensures that the optimal voltage and frequency are always supplied to the electrodes, even if the optimal voltage and frequency are not known in advance.

[0028] This invention 8 manner The Your device corresponds to the state of vibration of the aforementioned material. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, control at least one of the following is performed by controlling the voltage value and frequency of the voltage applied to the electrode: controlling at least one of the beaded arrangement, arrangement direction, water bonding, and water activity of water molecules in the substance; controlling at least one of the interfacial polarization, interfacial tension, and emulsion state between the aqueous phase and other phases in the substance; and controlling the state of reactive oxygen species in the substance. It is possible .

[0029] This invention 9 manner The The device generates an electric field, magnetic field, electromagnetic field, or electromagnetic wave from the electrodes for a predetermined time, and even after the electric field, magnetic field, electromagnetic field, or electromagnetic wave is released, the control effect continues for a predetermined time.

[0030] This invention 10 manner The Your device is the first or the second method In your device, the voltage applied to the electrode for In addition to the DC component, it also includes the AC component. It can be made .

[0031] This invention 11 manner The The device may have electrodes in the shape of a plate, rod, sheet, needle, or comb, or a combination of two or more of the above shapes.

[0032] This invention 12 manner The Your device is managed by the controller via at least one of the cloud, server, and network. It is possible .

[0034] This invention 13 manner The Your device corresponds to the state of vibration of the aforementioned material. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.Based on control parameters corresponding to appropriate values, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode, the following can be achieved: improvement or prevention of infarction, necrosis, pressure ulcers, burns, removal of reactive oxygen species, removal of lactic acid, improvement of blood flow, improvement of lymphatic fluid flow, improvement of cerebral infarction, myocardial infarction, thrombosis, embolism, arteriosclerosis, improvement or prevention of clogging of at least one body fluid, drug solution, cosmetic, and liquid, improvement of the fluidity of at least one body fluid, drug solution, cosmetic, and liquid, improvement or prevention of at least one induration and hardening, improvement or prevention of syneresis of cells or tissues, cellular edema, nerve cell edema, edema, and pulmonary effusion. Swelling, joint effusion, ascites, insulin secretion disorders, excretory disorders, difficulty excreting, constipation, urinary disorders, stasis, blisters, improved drug delivery, reduced viscosity of drug solutions or body fluids, cell culture, regenerative medicine, shortening of culture time in regenerative medicine, improved culture quality, and improved culture efficiency (at least one of these), cell tissue regeneration, lactic acid reduction, swelling, enlargement, edema, fluid retention, dehydration of extracellular or intracellular fluid, skin diseases, pigmentation disorders, melasma, freckles, epidermal wrinkles, dermal wrinkles, expression lines, xerosis, improved physical condition, induration, muscle induration, myofascial release, improved myofascial potential, neurodegenerative diseases, myofascial electromagnetic therapy, muscle Balance, improved myofascial potential balance, improved body balance, improved fascial balance, improved occlusion, improved osteopathy, improved body alignment, improvement or prevention of fractures or joint diseases, improvement of balance of at least one of the endocrine, lymphatic, and meridian systems, fractures, joint diseases, skin care, moisturizing, improved fertility, infertility, improved sperm motility, sperm activity, egg activity, mitochondrial activity, autophagy activity, PMS, pain, itching, paresthesia, cold sensitivity, frigidity, spasms, anti-aging, hair follicle care, improved menopausal symptoms, improved cleansing, alopecia, AGA, ED, promotion of fat breakdown, contact lenses Improved comfort of glasses, dry eyes, improved vision, improved dynamic visual acuity, improved sleep disorders, improved sleep, improved sleep apnea syndrome, improved preventive medicine, improved nerve cells, improved cellular edema, protection against at least one virus, bacteria, and fungus, cancer, glaucoma, cataracts, age-related macular degeneration, ophthalmic diseases, hearing loss, hearing impairment, visual impairment, dementia, Alzheimer's disease, Parkinson's disease, improved sleep, improved beauty, health promotion, improved motor function, fluid balance, gastrointestinal diseases, respiratory diseases, cardiovascular diseases, neurological diseases, hematological diseases, nephrological diseases, endocrine diseases, internal medicine diseases, improved or normalized blood pressure, pulse,and to control the treatment to have at least one efficacy among the following: improvement or enhancement of at least one of the following: improvement or enhancement of heart rate, improvement or enhancement of respiratory or pulmonary function, improvement or enhancement of dialysis function, osteopathic treatment, improvement of rigor mortis, and improvement of rehabilitation medicine. It is possible .

[0035] This invention 14 manner The Your device is the first or the second method In your device, the state of vibration corresponds to the state of the aforementioned substance. The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values. Based on control parameters corresponding to appropriate values, at least one of the voltage value and frequency of the voltage applied to the electrode is controlled to improve at least one of the preservation, freezing, thawing, culture, and logistics of organs, body fluids, blood, cells, tissues, skin, teeth, bones, joints, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, and liquids. Improvement of electrodes or containers used for this purpose, improvement or enhancement of the efficacy or quality of at least one drug, cosmetic, and liquid, improvement or enhancement of the extraction of at least one body fluid, drug, cosmetic, and liquid, improvement or enhancement of the production of at least one tooth, bone, joint, blood vessel, lymphatic vessel, nerve, cell, skin, hair, and organ, improvement or enhancement of emulsion properties, improvement or enhancement of drug delivery properties, improvement or enhancement of the efficacy or performance of drugs, prevention or control of the growth of at least one microorganism, bacteria, fungi, and virus, prevention of transfer, reduction of the viscosity of drug solutions, The state of vibration corresponding to the state of the aforementioned substance Controlling the ectoplasm and controlling it to have at least one of the following effects: It is possible .

[0036] This invention 15 manner The Your device is the first or the second method In your device, the state of vibration corresponding to the state of the aforementioned substance The corresponding electrically detected values ​​are the voltage value, voltage frequency, current value, and at least one of the current frequency values.To improve the performance of at least one of the following devices: electromagnetic therapy devices, electrotherapy devices, low-frequency therapy devices, EMS devices, massage devices, facial beauty devices, vibration devices, cavitation devices, microbubble devices, micro-nanobubble devices, nanobubble devices, fine valve devices, terahertz devices, high-frequency devices, quantum therapy devices, hair growth devices, cellulite devices, muscle relaxation devices, ultrasound therapy devices, treatment machinery and devices, artificial intelligence machinery and devices, ozone generators, hydrogen generators, LED devices, beauty devices, and slimming devices, by controlling at least one of the voltage value and frequency of the voltage applied to the electrode based on control parameters corresponding to appropriate values. It is possible . [Brief explanation of the drawing]

[0038] [Figure 1] This is a conceptual diagram of an electrode according to Embodiment 1. [Figure 2] Figure 2A is a schematic diagram of a water molecule, with Figure 2A showing a water molecule in a freely moving state and Figure 2B showing a water molecule in a beaded arrangement. [Figure 3] These are micrographs of free water; Figure 3A shows the state of free water before an electric field is applied, and Figure 3B shows the state of free water after an electric field is applied. [Figure 4] Figure 4A shows the simulation results for the electric potential of water particles, with Figure 4A being an explanatory diagram of the simulation model and Figure 4B showing the results of the electric potential simulation. [Figure 5] This graph shows the interfacial tension between edible oil and water when the frequency and voltage value (0-75V) of the applied voltage are varied. [Figure 6] This graph shows the interfacial tension of edible oil and water when the frequency and voltage value (0-150V) of the voltage applied to the electrodes are varied. [Figure 7] This is a photograph showing water droplets falling into oil. [Figure 8] This is a photograph of fine particles surrounding a water droplet in oil. [Figure 9] This is a conceptual diagram of an electrode according to a modified example 1 of Embodiment 1. [Figure 10]Figure 10A is a conceptual diagram of a different electrode in Modification 1 of Embodiment 1, where Figure 10A shows an example using one electrode, and Figure 10B shows an example using one electrode and two electrodes facing that electrode. [Figure 11] This is a waveform diagram showing the case where a different frequency voltage is used according to a modified example 2 of Embodiment 1. [Figure 12] This is a waveform diagram showing the case where voltages with different phases are used in a modified example 2 of Embodiment 1. [Figure 13] This is a block diagram of a liquid control device according to a modified example 3 of Embodiment 1. [Figure 14] This graph illustrates the sweep of voltage, current, and frequency according to Modification 4 of Embodiment 1. [Figure 15] This is the result of improved blood flow after 30 minutes. [Figure 16] This is the result of four weeks of improved blood flow. [Figure 17] This is the result of the ghost blood vessels regenerating. [Figure 18] This is the result of improving blood flow in a mouse lower limb ischemia model. [Figure 19] This is a result of a decrease in the viscosity of the contrast agent. [Figure 20] This is the result of its antibacterial effect against anthracnose fungi. [Figure 21] This is the measurement result of the water droplet size. [Figure 22] This shows the results of improvements in hydroponic cultivation of green leaf lettuce. [Figure 23] This represents an improvement in the preservation of perilla leaves. [Figure 24] This shows the improvement in the rate of edema in rheumatoid arthritis patients. [Figure 25] This shows the effect of improving blood flow in a mouse model of lower limb ischemia. [Figure 26] This is the viscosity-reducing effect of high-viscosity agents. [Figure 27] This shows the effect of improving blood CPK levels in heart-transplanted mice. [Figure 28] This is the result of verifying the side effects caused by electrical stimulation via radio wave vibrations. [Figure 29] The experimental conditions are shown in Figure 28. [Figure 30] This shows the results of improving rigor mortis and blood coagulation in fish. [Figure 31] It is a device for preventing the decomposition of a corpse. [Figure 32] It is a blood coagulation inhibitor. [Figure 33] This is an effect that inhibits mold growth on strawberries. [Figure 34] This is the effect of suppressing the growth of anthrax bacteria. [Figure 35] This is an effect of improving chewing balance by relaxing the tension in the masticatory muscles. [Figure 36] Measurement results for the first sacral vertebra (effects on the bladder, ovaries, and prostate) [Figure 37] Measurement results for the 12th thoracic vertebra (effects on the kidneys) [Figure 38] Measurement results of the 8th thoracic vertebra (effects on the liver) [Figure 39] Measurement results for the first thoracic vertebra (effects on the heart and lungs) [Figure 40] Measurement results of the third cervical vertebra (effects on the throat and sinuses) [Figure 41] Effect of improving the viability of human cultured cells [Figure 42] Observation results of peripheral blood mononuclear cells [Figure 43] Sleep improvement example 1 [Figure 44] Sleep improvement example 2 [Figure 45] Experiment to improve menstrual pain [Figure 46] Improvement of menstrual cramps [Figure 47] Improvement effect of contrast agent [Figure 48] Prevents mold and corrosion. [Figure 49] fish spoilage prevention effect [Figure 50] Freshness preservation effect [Figure 51] Bread mold prevention effect [Figure 52] A device for improving blemishes and wrinkles. [Figure 53] Example 1 of improvement in blemishes and wrinkles [Figure 54] Example 2 of the improvement effect on blemishes and wrinkles [Figure 55]Examples of improvement in blemishes and wrinkles (3) [Figure 56] Electrode structure example 1 [Figure 57] Electrode Structure Example 2 [Figure 58] Electrode structure example 3 [Figure 59] Electrode Structure Example 4 [Figure 60] Electrode Structure Example 5 [Figure 61] Electrode Structure Example 6 [Figure 62] Electrode Structure Example 7 [Figure 63] Electrode Structure Example 8 [Figure 64] Electrode Structure Example 9 [Figure 65] Green tea extraction [Figure 66] Extraction of kelp [Figure 67] Extracting broth [Figure 68] Noodle maturation [Figure 69] Water vibration improvement result 1 [Figure 70] Water wave improvement results 2 [Figure 71] Water vibration improvement results 3 [Figure 72] Water wave improvement results 4 [Modes for carrying out the invention]

[0039] Hereinafter, a liquid control device according to an embodiment of the present invention will be described with reference to the drawings. However, the embodiments shown below are illustrative examples of liquid control devices for realizing the technical concept of the present invention, and the present invention is not limited to these embodiments, and can be equally applied to other embodiments included in the claims. In each embodiment, the liquid contained inside or on the surface of the target part is described using "water" such as free water as an example, but in the present invention, the liquid contained inside or on the surface of a substance is not limited to water, and can be broadly applied to any liquid such as aqueous solutions, blood, body fluids, drugs, emulsions, oils, organic substances, ionic fluids, viscous fluids, nonviscous fluids, compressible fluids, and incompressible fluids. Furthermore, although the expression "water" is sometimes used in each embodiment, this is not intended to limit the liquid to water only, and the invention can be broadly applied to any liquid.

[0040] [Embodiment 1] A liquid control device according to Embodiment 1 will be described with reference to Figures 1 to 19.

[0041] Figure 1 is a conceptual diagram of a liquid control device 1. The liquid control device 1 comprises a controller 10 and a pair of electrodes 13 and 14. The controller 10 includes a current-voltage control unit 33, a control unit 36, a communication unit 35, and a storage unit 37. At least one of DC voltage or AC voltage is supplied to the electrodes 13 and 14 from a current-voltage application unit 11 controlled by the current-voltage control unit 33. The current and / or voltage applied to the electrodes 13 and 14 are detected by a detection unit 38 and fed back to the control unit 36. A substance detection unit 32 (e.g., a camera) is also provided to detect the type and size of a substance placed in the space between the electrodes 13 and 14. In the actual circuit configuration of the controller 10, the current-voltage application unit 11 and the detection unit 38 may be provided integrally with the controller 10. Also, for example, the controller 10 and the current-voltage application unit 11 can be housed together in a single housing.

[0042] The detection unit 38 can also be configured to detect the state of electromagnetic waves generated by providing it on electrodes 13 and 14. In this case, the detection unit 38 that detects the state of electromagnetic waves may be provided integrally with electrodes 13 and 14. The cable for the detection unit 38 can also be integrated with the cables of electrodes 13 and 14, which makes cable management easier. The means for detecting the state of electromagnetic field generation may also be combined into electrodes 13 and 14. The detection unit 38 is equipped with current and / or voltage detection means, but in this case, it is also possible to detect current and / or voltage in the current and voltage application unit 11, so the current and / or voltage detection means of the detection unit 38 can be integrated with the current and voltage application unit 11, and furthermore, it can be integrated into a housing such as a controller. In addition, since the data detected by the current and / or voltage detection means of the detection unit 38 has numerical values ​​associated with electromagnetic wave generation superimposed on it, it is also possible to detect electromagnetic waves generated at electrodes 13 and 14 from the detected data.

[0043] The material detection unit 32 can be integrated with the controller, but to prevent the device from becoming larger due to the addition of cameras, etc., and due to the placement of cameras, etc., the material detection unit 32 can also be configured separately from the controller 10. Figure 1 illustrates an example in which a pair of electrodes 13 and 14 are provided, but this embodiment is not limited to this, and as described later, there can be one or more electrodes, regardless of the number, and various shapes can also be used. For example, if there is only one electrode 13 or 14, the material can be placed facing that electrode. When the material detection unit 32 detects the type, state, size, etc. of the material placed facing the electrodes 13 and 14, the control unit 36 ​​calculates a control command value in response to the detection of this material. In accordance with this control command value, the current-voltage control unit 33 controls the current-voltage application unit 11 to control the current and voltage applied to the electrodes 13 and 14, and at least one of an electric field, magnetic field, electromagnetic field, or electromagnetic wave is applied to the material placed facing the electrodes. Hereafter, expressions such as "an electromagnetic field is applied," "electromagnetic waves are irradiated," and "an electric field is applied" may be used, but these expressions are not intended to limit electromagnetic fields, electromagnetic waves, or electric fields, but rather encompass electric fields, magnetic fields, electromagnetic fields, or electromagnetic waves. At this time, the electromagnetic field applied to the material is controlled to a desired state in the control unit 36 ​​according to a control command calculated by feedback control based on the detected value from the detection unit 38. A voltage containing at least an AC component is applied to electrodes 13 and 14, and an electric field and a magnetic field are generated from electrodes 13 and 14 in accordance with the applied voltage. An electromagnetic field is defined as containing at least one of an electric field or a magnetic field. Furthermore, since electrodes 13 and 14 have antenna functions, electromagnetic waves are generated from electrodes 13 and 14 in accordance with the applied voltage. The electric field, magnetic field, electromagnetic field, and electromagnetic waves generated from electrodes 13 and 14 correspond to the applied voltage and current, are interrelated, and can be calculated. Therefore, in this embodiment, the intensity of the electric field, magnetic field, electromagnetic field, and electromagnetic waves generated from electrodes 13 and 14 is quantitatively evaluated by the electric field strength. Only a DC component can be applied to electrodes 13 and 14, and even in this case, it is possible to reduce the interfacial tension of the liquid, control the bead arrangement, control the emulsion, etc.Furthermore, it is possible to apply both DC and AC components to electrodes 13 and 14. However, in this embodiment, to facilitate evaluation between each embodiment, we will illustrate the case where only the AC component is applied, for example, when an AC voltage of 50 kHz and 100 V is applied. Since current is also supplied when voltage is applied to electrodes 13 and 14, the objects controlled by the controller 10 are voltage value, current value, frequency, and phase. The controller 10 can set target values ​​for each physical quantity. In this embodiment, in order to enable a consistent explanation between each embodiment, we will explain the voltage value and frequency as target values, but of course, it is also possible to set target values ​​for other physical quantities.

[0044] The communication unit 35 communicates with the management server 40, the database 43, other PCs 31a to 31n, and other liquid control devices 1a to 1n to receive control parameters and control values ​​from the management server 40. The memory unit 37 stores a program, and the control unit 36, which is equipped with a CPU, operates according to the program stored in the memory unit 37. Based on the control parameters and control values ​​received from the management server 40, it controls the current and / or voltage applied to the electrodes 13 and 14 by controlling the current and / or voltage applied to the electrodes 13 and 14 via the current and voltage control unit 33 built into the controller 10. This program can be rewritten by the management server 40 via the communication unit 35. It is also possible to store the program in removable memory such as flash memory and rewrite the program in the controller 10 using the removable memory. Furthermore, it is possible to set and rewrite the program using the man-machine interface 31 connected to the communication unit 35.

[0045] The management server 40 has functions such as updating or maintaining the controller 10's program, monitoring or supervising the controller 10's usage, collecting or analyzing location information or environmental information of the controller 10, collecting or analyzing improvement request information from the controller 10, maintaining the controller 10, collecting control information from the controller 10 and / or information from the database 43, generating and providing learning model information for the controller 10, providing control information based on the learning model information, or providing control parameters for the controller 10.

[0046] Regarding the monitoring or supervision of the usage status of controller 10, the management server 40 can constantly collect control information from controller 10, and therefore has the function of constantly knowing and monitoring the usage status of controller 10. Here, the supervision function includes understanding the user's status by analyzing when, to what extent, and how a user using the liquid control device 1 corresponding to controller 10 uses the liquid control device 1. For example, if the liquid control device is used in a restaurant, the management server 40 can understand the restaurant's operating status, customer situation, cooking status, preparation status, etc. Also, for example, if the user is an individual, the management server 40 can understand the user's living situation, safety status, etc. from the usage status of the liquid control device. Therefore, if the management server 40 determines that the liquid control device 1 is abnormal, it can notify the corresponding user and also notify registered contacts, emergency contacts such as the police and fire department of the abnormality.

[0047] Regarding the collection and analysis of location information or environmental information of the controller 10, the management server 40 collects location information, climate information, regional information, etc., of the liquid control device 1 from the controller 10, and can grasp the location information or environmental conditions under which the quality control device 1 is being used. For example, the management server 40 can send control information, etc., to the controller 10 according to the usage environment.

[0048] Regarding the collection and analysis of improvement request information from the controller 10, the management server 40 can collect improvement request information input from the controller 10 via the PC 31, or directly collect improvement request information input from the PC 31 that communicates with the controller 10. The improvement request information includes information such as improvement requests from the user of the liquid control device 1, evaluations of control results, and other requests. This improvement request information is analyzed by the management server 40 and used to set the control parameters of each liquid control device 1.

[0049] Regarding the maintenance of the controller 10, the management server 40 collects and monitors information such as the operating status of the controller 10, the program status, the status of the device control parameters, the information stored in the memory unit 37, the status of the equipment, and the environmental status of the liquid control device, and can perform maintenance on the controller 10's program, control parameters, detection information, control result information, various setting parameters, and the contents of the memory unit. The maintenance content is not particularly limited, but includes setting or updating the program, setting or updating control parameters and setting parameters, setting or updating the learning model described later, etc. Various operating status information, control information, etc. collected from the controller 10, and / or information collected from the database 43 are used for deep learning in the management server 40 as described later. In addition, learning model information trained by deep learning and / or control parameters etc. calculated by said learning model are provided to the controller 10 of each liquid control device 1.

[0050] Furthermore, the controller 10 is connected to a material detection unit 32 for detecting the type and / or state of the material placed between the electrodes. By understanding the type and / or state of the material, the controller 10 controls the built-in current-voltage application unit 11 to obtain an appropriate output voltage and / or output current according to the type, state, size, etc. of the material. The current-voltage application unit 11 has at least one function, such as DC-DC conversion, DC-AC conversion, AC-DC conversion, and AC-AC conversion, as described later. For example, the current-voltage application unit 11 can be a VVVF (VARIABLE VOLTAGE VARIABLE FREQUENCY) inverter. The current-voltage application unit 11 can also apply a voltage and current to the electrodes 13 and 14 by superimposing a DC voltage and current on an AC voltage and current.

[0051] Furthermore, by having the human-machine interface 31 communicate with the controller 10, the user can configure and operate the controller through input from the human-machine interface 31. The human-machine interface 31 includes, for example, a display, touch panel, keyboard, and mouse. When the controller 10 is operated using a personal computer such as a smartphone, mobile phone, tablet, portable terminal, or notebook PC (hereinafter, the human-machine interface 31 may simply be referred to as "PC"), the smartphone or the like can also perform the functions of the human-machine interface 31 and the communication unit 35.

[0052] By communicating with the controller 10, the PC31 can set control parameters, update control programs, and monitor the operating status and control status of the controller 10. Furthermore, by connecting the PC31 and the controller 10 via a communication network, the PC31 can remotely configure, operate, and monitor the controller 10.

[0053] Furthermore, the liquid control device 1 is connected to an external power supply (not shown). The external power supply can be an AC power supply or a DC power supply, and if it is a DC power supply, it can be a battery including a primary battery and a secondary battery. If the liquid control device 1 is movable, transportable, or portable, it is convenient to use a battery as the external power supply 39 to secure power.

[0054] Furthermore, the controller 10 provides feedback control to at least one of the current value, voltage value, frequency, or phase applied to the electrode based on the detection signal from the detection unit 38, which will be described later.

[0055] The substance to be processed is placed between electrodes 13 and 14. The substance to be processed is not particularly limited, as long as it is at least one of solid, liquid, or gaseous, and a variety of substances can be targeted as described below.

[0056] Controller 10 is connected to a communication network 45 via a communication unit 35 or via a PC 31. This communication network 45 is connected to a management server 40, a database 43, liquid control devices 1a to 1n, and PCs 31a to 31n. The management server 40 can collect control information, including detection data from the substance detection unit 32 and / or detection unit 38, from Controller 10 via the communication unit 35 or PC 31. Based on the data from the database 43, information from each liquid control device 1, 1a to 1n, and information from each PC 31, 31a to 31n, the management server 40 calculates a learning model for determining the controller's control parameters, for example, using machine learning such as deep learning. The management server 40 transmits the trained learning model and the calculation parameters obtained by the trained model to the controllers 10 of each liquid control device 1, 1a to 1n. The controller 10 uses a learning model in the control unit 36 ​​to calculate parameters adapted to the substances placed opposite the electrodes 13 and 14 based on detection data from the substance detection unit 32 and / or the detection unit 38, or uses the adapted parameters transmitted from the management server 40 in the control unit 36 ​​to perform calculations for controlling the current and / or voltage applied from the current and voltage application unit 11 to the electrodes 13 and 14 using the current and voltage control unit 33. The control program is stored in the memory unit 37. The controller 10 is controlled based on the control program. Since this control program can be rewritten from the management server 40, it is possible to update and upgrade the program as needed. Furthermore, the control program can also be set, changed, and updated from the PC 31. In addition, various control parameters of the controller 10 can be set and changed by the PC 31.

[0057] [About electrodes] In Figure 1, plate-shaped electrodes are shown as an example of a pair of electrodes 13 and 14. However, the form of electrodes 13 and 14 is not limited to plate shape; they can also be foil-shaped, film-shaped, or layered. Furthermore, a variety of shapes can be adopted, such as rod-shaped, spherical, hemispherical, cylindrical, semi-cylindrical, conical, semi-conical, roughly L-shaped, roughly U-shaped, polygonal, polygonal prism-shaped, polygonal pyramidal, curved, or bent (see Figures 32 to 39 below). In addition, when electrodes 13 and 14 are foil-shaped or film-shaped, the thickness of the electrodes can be made very thin, which reduces the installation space for the electrodes, allows for free setting of the shape, reduces weight, and makes electrode installation easier. In the case of layered electrodes, for example, thin film electrodes are provided overlapping a predetermined substrate.

[0058] The shape of electrodes 13 and 14 is not limited to flat plates; they can be any shape. When using foil-shaped electrodes 13 and 14, the electrodes can be molded into any shape to conform to the shape of the installation site, so for example, the electrodes can be made curved.

[0059] Electrodes 13 and 14 can also be provided with multiple through-holes. Providing multiple through-holes in the electrodes can improve the characteristics of electromagnetic wave generation from the electrodes, allow for ventilation, and ensure visibility through the electrodes. The shape of the holes can be diverse, including circular, elliptical, polygonal, slit-shaped, linear, or combinations thereof, and for example, hexagonal holes can also be provided.

[0060] The material of electrodes 13 and 14 is not particularly limited as long as it is a conductive material, but examples include conductive metals such as copper, iron, stainless steel, aluminum, titanium, gold, silver, and platinum, alloys of these metals, or conductive materials such as conductive oxides and conductive glass. The surfaces of electrodes 13 and 14 can also be covered with an insulating material. For example, when electrodes are placed in a fryer, the inner surface of the fryer and the electrodes are insulated. Also, for example, when electrodes are placed on the inner surface of a container, it is desirable to insulate the inner surface of the container and the electrodes. It is also possible to use different materials for one electrode of a pair of electrodes 13 and 14. For example, electrode 13 can be made of stainless steel and electrode 14 can be made of titanium, and other combinations such as stainless steel and aluminum, or stainless steel and copper are also possible. By changing the material of electrodes 13 and 14, it is possible to adjust the characteristics of the electromagnetic waves generated from the electrodes. In this case, it is also possible to adjust the characteristics of the electromagnetic waves by swapping the materials of electrode 13 and electrode 14. As described later, the number of electrodes is not limited to one pair, but can be set as appropriate, such as one electrode, three or more electrodes, or two or more pairs. In this case as well, the characteristics of the electromagnetic waves generated from the electrodes can be adjusted by appropriately selecting the material of each electrode. For example, when using two pairs of electrodes, the characteristics of the electromagnetic waves generated from these electrodes can be adjusted by making one pair of electrodes out of stainless steel and the other pair out of copper. Electrodes 13 and 14 generate at least one of the following: electric field, magnetic field, electromagnetic field, electromagnetic wave, sound wave, and ultrasound. However, when generating only sound waves or ultrasound, the material of electrodes 13 and 14 is not limited to conductive materials; for example, non-conductive materials such as resin can be used.

[0061] While a dedicated enclosure can be provided for installing the liquid control device 1, it is not limited to this, and it can also be installed in an existing enclosure, for example. A wide variety of existing enclosures can be selected to install the liquid control device 1, including refrigerators, freezers, cold storage warehouses, frozen storage warehouses, storage rooms, warehouses, refrigerated trucks, freezer trucks, cooler boxes, transport containers, storage containers, showcases, shelves, drawers, fryers, cultivation containers (for hydroponics, etc.), fuel tanks, personal computers, mobile phones, chairs and beds, furniture, bedding, home appliances, various manufacturing equipment in factories, processing equipment, medical equipment, health equipment, beauty equipment, cooking equipment, polishing equipment, vehicles, semiconductor cleaning equipment, and equipment for controlling water vapor produced during cooling in the smelting process, baking process, and drying process.

[0062] In the case of a refrigerator, the pair of electrodes 13 and 14 can be arranged, for example, along the ceiling and bottom surfaces inside the refrigerator, along opposing side walls, along the ceiling, shelves, and bottom surfaces, along the ceiling, bottom, and sides, or along the inner surface of the door and the rear side. In the case of a fryer, they can be arranged, for example, along both sides inside the oil container. In other words, as long as the pair of electrodes 13 and 14 are positioned opposite each other, they can be arranged in any way. Furthermore, it is not necessary for the pair of electrodes to be arranged parallel to each other; for example, they can be positioned perpendicular to each other, and as long as there is space between the electrodes for the substance to be processed to be placed, the electrodes can be arranged in any way. The number, arrangement, and shape of the electrodes are not particularly specified, and the number is not limited to one pair; it can be one, three or more, or two or more pairs. For example, please refer to Figures 9, 10, 23-30 described later.

[0063] The liquid control device 1 does not need to be installed in a housing; it can be placed anywhere that allows for the arrangement of a pair of electrodes 13 and 14. For example, it can be installed on shelves, walls, or any other location where a pair of electrodes 13 and 14 can be placed facing each other. It is also possible to use a partition-like component to fix the electrodes 13 and 14 in place. For example, it can even be configured as a cutting board. Furthermore, the number of electrodes is not limited to one pair; it can be one, three or more, or two or more pairs. See, for example, Figures 9, 10, 23-30 described later.

[0064] [Regarding the voltage applied to the electrodes] A DC component voltage or an AC component voltage is applied to a pair of electrodes 13 and 14 from the controller 10. The DC component voltage is not particularly limited, but can be adjusted between 0V and 7000V, between 0V and 5000V, between 0V and 2000V, between 0V and 500V, between 0V and 200V, between 0V and 100V, between 5V and 20V, and between 10V and 15V. The polarity can be positive or negative. That is, for example, when adjusting between 0V and 200V, if both positive and negative polarities are considered, it can be adjusted between -200V and +200V. Therefore, considering both positive and negative polarity, the voltage can be adjusted, for example, between -7000V and +7000V, between -5000V and +5000V, between -2000V and 2000V, between -500V and +500V, or between -200V and +200V. The power supply voltage can be either a DC power supply or an AC power supply. If a DC power supply is used, a battery can be used as the power source, making it highly portable. If an AC power supply is used, a commercial power supply can be used, making it easy to secure a power source. The power supply voltage can be, for example, AC 100V to 400V, DC 5V to 20V, or DC 10V to 15V. Furthermore, when expressed as a spatial electric field, it is possible to adjust it between, for example, -7000V / cm and +7000V / cm, between -5000V / cm and +5000V / cm, between -2000V / cm and +2000V / cm, and also between -500V / cm and +500V / cm, or between -200V / cm and +200V / cm.

[0065] At least a DC component voltage can be applied to the pair of electrodes 13 and 14. For example, it is also possible to set the AC component voltage to 0V and apply only the DC component voltage.

[0066] The direction of the DC component voltage can be either positive (+) or negative (-). In this embodiment, the direction of the DC component voltage is positive when the potential of electrode 14 is higher than the potential of electrode 13 (earth potential), and conversely, the direction of the DC voltage is negative when the potential of electrode 14 is lower than the potential of electrode 13. Whether the DC component voltage is positive or negative, it has the effect of improving the properties of the material.

[0067] Furthermore, an AC component voltage can be applied to the pair of electrodes 13 and 14 in addition to the DC component voltage. Alternatively, the DC component voltage can be set to 0V, and only the AC component voltage can be applied. The frequency of the AC component voltage is not particularly limited, but can be adjusted, for example, between 0 and 1MHz, between 0Hz and 500kHz, between 0Hz and 200kHz, or between 5Hz and 100kHz. Depending on the target, it may be used in a low frequency range or a high frequency range. In the low frequency range, for example, a frequency range of about 5Hz to 500Hz may be used.

[0068] Furthermore, while the voltage of the AC component voltage is not particularly limited, the spatial electric field per centimeter between peaks can be adjusted, for example, between 0 and 7000 Vpp / cm, between 0 and 5000 Vpp / cm, between 0 and 2000 Vpp / cm, between 0 and 500 Vpp / cm, or between 0 and 200 Vpp / cm. Alternatively, for example, a voltage between 0 and 7000 V can be supplied to the electrodes, for example, between 0 and 5000 V, between 0 and 2000 V, between 0 and 500 V, and further, between 50 and 250 V. For example, in the case of a pair of electrodes, the voltage between the electrodes can be supplied between, for example, 0 and 7000V, can be adjusted between, for example, 0 and 5000V, can be adjusted between, for example, 0 and 2000V, can be adjusted between, for example, 0 and 500V, and can also be adjusted between, for example, 50V and 250V.

[0069] While applying a DC component voltage may enhance the effect of improving the properties of a material, the effect can also be obtained by applying only an AC component voltage, in which case the DC component voltage is considered to be 0V. Hereafter, regarding the AC voltage component, as a general rule, [Vpp] will be used as the unit when expressing the peak-to-peak voltage value, and [V] will be used when expressing the RMS value of the voltage.

[0070] As mentioned above, the external power supply can be either a DC or AC voltage. For example, commercial power can be used as an AC power supply. For a DC power supply, various batteries, including primary and secondary batteries, such as 12V batteries and dry cell batteries, can be used.

[0071] To adjust the voltage value of the DC component voltage in controller 10, methods include controlling the voltage of the DC power supply using a DC-DC converter, or controlling the voltage of the AC power supply using a DC-DC converter when rectifying it with an AC-DC converter, or after rectification. Furthermore, to adjust the voltage value and frequency of the AC component voltage in controller 10, methods include controlling the DC power supply with a DC-AC converter (inverter), controlling the AC power supply after rectification with an AC-DC converter using a DC-AC converter (inverter), or controlling the AC power supply with an AC-AC converter.

[0072] Furthermore, if the target voltage value of the DC component voltage is equal to the power supply voltage of the DC power source, it is possible to use the power supply voltage of the DC power source directly as the DC component voltage. Similarly, if the target voltage and target frequency of the AC component voltage are equal to the power supply voltage of the AC power source, it is possible to use the power supply voltage of the AC power source directly as the AC component voltage.

[0073] Then, the DC component voltage and the AC component voltage are added together; that is, the DC component voltage is added as an offset voltage to the AC component voltage, and this added voltage is applied between the pair of electrodes 13 and 14. Furthermore, for example, when controlling the AC component voltage in power conversion using a DC-AC converter, it is also possible to control the DC component voltage at the same time.

[0074] The AC component of the voltage applied to the electrodes is a sinusoidal voltage, but the AC voltage component in this embodiment is not limited to a sinusoidal wave, and includes any waveform, such as a square wave or PWM waveform. Note that the terms sinusoidal wave and square wave do not refer only to strict sinusoidal waves or square waves, but rather to waveforms that take noise, distortion, etc. into consideration. Furthermore, the DC component of the voltage applied to the electrodes does not refer only to a constant voltage, but it is also possible to use a DC component voltage that changes over time.

[0075] The voltage control means in controller 10 can be an analog circuit, a digital circuit, or a circuit combining an analog circuit and a digital circuit. For example, a sinusoidal voltage can be generated using an analog circuit, or an equivalent sinusoidal wave can be generated using a PWM waveform. Also, for example, a digital circuit can be used to generate a square wave voltage, but an analog circuit can also be used.

[0076] Furthermore, the controller 10 controls the voltage or current applied to electrodes 13 and 14 as follows. (1) The voltage or current is such that it reduces the interfacial tension of the material. (2) The voltage or current must be such that it prevents the corrosion of food and liquids. (3) The voltage or current is such that it contributes to at least one of the following: preservation of fresh flowers, preservation of drinking water, promotion of growth or improvement of the environment in hydroponics, improvement of germination rate, improvement of hatching rate, prevention or purification of aquariums, improvement of water quality, promotion of rock candy growth, fuel modification, or improvement of fuel efficiency. (4) The voltage or current is such that it contributes to at least one of the following: preservation of blood or blood components, improvement of diabetes, improvement of chronic kidney disease, improvement of hemodialysis, improvement of blood flow, vascular regeneration, improvement of peripheral nerve disorders, improvement of arthritis or rheumatism, organ preservation, antitumor effect, improvement of ischemia, improvement of lymphedema, improvement of pressure ulcers, prevention or improvement of necrosis, improvement of cardiovascular diseases, or control of infectious diseases. (5) A voltage or current that improves the efficiency of at least one of the following: charging or discharging of a storage device, a generator, or a power transmission facility. (6) A voltage or current that promotes the emulsification or formation of the emulsion, or a voltage or current that improves the duration of the emulsion's state. (7) The voltage or current is such that it enhances the effectiveness of the air purifier or ionizer. (8) A voltage or current that separates atoms or molecules by type. (9) The voltage is one that controls the temperature or humidity of the space, and (10) A voltage or current that separates at least one of bacteria, germs, viruses, or microorganisms from water. (11) A voltage or current that promotes chemical polishing, mechanical polishing, chemical-mechanical polishing, or magnetic polishing. It is at least one voltage or current selected from the group consisting of the following.

[0077] [Regarding controller control] The liquid control device 1 is driven by the controller 10, and an electric field is generated between a pair of electrodes 13 and 14. At this time, electrodes 13 and 14 function as antennas, and an electromagnetic field is generated by the radiation of electromagnetic waves between the two electrodes 13 and 14. In addition, sound waves and / or ultrasonic waves can be generated between electrodes 13 and 14 by applying vibration to them by electrical, magnetic, or mechanical means. For example, a piezoelectric element such as a piezo element can be used as a means to generate sound waves and / or ultrasonic waves between electrodes. Therefore, at least one of the following is generated between the two electrodes 13 and 14: an electric field, a magnetic field, an electromagnetic field, electromagnetic waves, sound waves, and ultrasonic waves. By using sound waves and / or ultrasonic waves in addition to electric fields, magnetic fields, electromagnetic fields, or electromagnetic waves, the effect of improving the properties of the material is increased.

[0078] The controller 10 provides feedback control to at least one of the current value, voltage value, frequency, and phase applied to the electrodes based on the detection signal from the detection unit 38. The detection unit 38 includes at least one of the following: a voltage sensor for detecting the voltage applied to the electrodes, a current sensor for detecting the current applied to the electrodes, a frequency sensor for detecting the frequency of the voltage and / or current applied to the electrodes, a phase sensor for detecting the phase of the voltage and / or current applied to the electrodes, a magnetic field sensor for detecting the magnetic field between the two electrodes 13 and 14, an electric field sensor for detecting the electric field between the two electrodes 13 and 14, a sound wave sensor for detecting the magnitude and frequency of sound waves between the two electrodes 13 and 14, and an ultrasonic sensor for detecting the magnitude and frequency of ultrasonic waves between the two electrodes 13 and 14.

[0079] Sensors can also be attached to the electrodes. The electrodes themselves can also be used as sensors. When sensors are attached to the electrodes, in addition to the power lines that supply power to the electrodes, wiring for the sensors (for example, two wires) is required. Since it is desirable to have as few wires as possible between the controller 10 and the electrodes, it is good to combine the power lines and sensor wires into a single cord. In this case, the single cord should be covered with a material that has at least insulating properties. Furthermore, durability and heat resistance are also desirable. Furthermore, considering use in a freezer, it is desirable that it can withstand low temperatures. For example, considering use in a fryer, durability and heat resistance are required in addition to insulation, so a material such as fluororesin can be used as the covering material for the cord. When a pair of electrodes are provided, it is also possible to attach a sensor to only one of the electrodes. Alternatively, if sensors are attached to both electrodes, it is possible to detect the physical quantity generated by the other electrode using the sensor on one electrode. In the case of three or more electrodes, sensors can be attached to at least one electrode, but this is not the only option, and it is also possible to attach sensors to multiple electrodes, or even all electrodes.

[0080] At least one control target value for current, voltage, frequency, and phase in the controller 10 is set according to the type and state of the substance being targeted. This control target value can be set remotely via a communication device (not shown). It is also possible to remotely control the control parameters and control quantities of the controller 10. This makes it possible to centrally manage the controllers 10 of multiple liquid control devices 1 from a server 40 located in a remote location and appropriately control each controller 10. However, the mode of control of the controller 10 is not limited to remote control from the server 40; for example, it is also possible to individually control each controller 10 of the liquid control device 1 by directly setting the control target value or control parameters of each controller 10.

[0081] The controller 10 is equipped with a storage unit 37, which stores a control program. The controller 10 is controlled based on this control program. Since this control program can be rewritten via communication or a storage medium, it is possible to update and upgrade the program as needed. Furthermore, the controller 10 and the server 40 can communicate with each other, and control parameters, control quantities, control programs, or various setting values ​​sent from the server 40 are stored in the storage unit 37. The control program can also be stored in an appropriate storage medium.

[0082] Figure 2 is a schematic diagram of a water molecule; Figure 2A shows a water molecule in a freely moving state, and Figure 2B shows a water molecule in a beaded arrangement.

[0083] The substances in question, such as meat, fish, vegetables and other foods, beverages, animal and plant cells, and oils, contain water molecules as free water or other moisture.

[0084] Normally, water molecules (H2O) are arranged irregularly, as shown in Figure 2A. As a result, hydrogen atoms (H) can take in reactive oxygen species (30) or form hydrogen bonds, increasing the size of the water molecule and slowing its movement. Then, oxidation of the water molecule begins.

[0085] In contrast, when an electric field is generated between the pair of electrodes 13 and 14, the water molecules tend to align themselves in a certain direction. This is because the oxygen atoms (O), which have a strong force attracting electrons, become slightly negative, and the hydrogen atoms (H), which readily release electrons, become slightly positive, and each tends to orient itself in the direction of the electric field between the pair of electrodes 13 and 14.

[0086] When the controller 10 generates an AC component voltage, the water molecules alternately change direction. At this time, the water molecules change direction at the same frequency as the AC component voltage and enter a state that resembles vibration. As this vibration is repeated, the hydrogen bonds between the water molecules and the reactive oxygen species 30 or other components are broken, as shown in Figure 2B, and the water molecules gradually become finer and arrange themselves in a regular pattern.

[0087] A similar effect occurs between water particles (tiny water droplets) that exist as free water or other moisture within a substance. Therefore, the electric field between the pair of electrodes 13 and 14 causes the water particles to attract each other, forming a beaded arrangement.

[0088] When a DC component voltage is applied between a pair of electrodes 13 and 14, there is a component of force that causes water molecules to align along the direction of the electric field caused by this DC component voltage. Therefore, even when only the DC component voltage is applied between the pair of electrodes 13 and 14, the water molecules will align regularly. Furthermore, when an AC component voltage is applied in addition to the DC component voltage, the water molecules change direction at the same frequency as the AC component voltage, and there is also a component of force that causes the water molecules to align in one direction, making it easier for the water molecules to align more regularly. Similarly, in the state of water particles, the electric field between the pair of electrodes 13 and 14 causes water particles, such as free water, to attract each other and form a beaded arrangement.

[0089] Furthermore, even if the voltage applied between the pair of electrodes 13 and 14 does not contain a DC component voltage, the AC component voltage causes the water molecules to change direction and vibrate at the same frequency as the AC component voltage. As this vibration repeats, the hydrogen bonds between the water molecules and the reactive oxygen species 30 or other components are broken, and the water molecules gradually become finer and arrange themselves in a regular pattern. Also, if the voltage applied between the pair of electrodes 13 and 14 does not contain a DC component voltage, the effect of the AC component voltage is similar for the state of the water particles, causing the water particles as free water or other moisture to attract each other due to the electric field between the pair of electrodes 13 and 14, forming a beaded arrangement.

[0090] Furthermore, since sound waves or ultrasound have the effect of vibrating water molecules, when a DC component voltage and / or AC component voltage is applied between a pair of electrodes 13 and 14, generating sound waves and / or ultrasound of a predetermined frequency and intensity between the electrodes further promotes the alignment of water molecules. In addition, when water molecules are vibrated by predetermined sound waves and / or ultrasound, it is possible to align the water molecules even when no voltage is applied between the electrodes.

[0091] Since the alignment direction of water molecules or water particles follows the direction in which the electromagnetic field is applied, it is possible to control the alignment direction of water molecules or water particles by controlling the applied electromagnetic field. For example, the electromagnetic field applied from a pair of electrodes 13 and 14 is in a constant direction, but in Figure 9 described later, an electromagnetic field is applied from two pairs of orthogonal electrodes (electrodes 13 and 14, and electrodes 15 and 16). Therefore, by controlling the current or voltage applied to each electrode, it is possible to adjust not only the strength of the electromagnetic field generated between each electrode but also the direction of the electromagnetic field, thereby controlling the alignment direction of water molecules or water particles.

[0092] Water can be divided into "bound water" and "free water." Bound water is in a stable state, bound to other components by hydrogen bonds. In contrast, free water is in a freely active state, and in the case of food, it is in a fresh and moist state. However, free water molecules readily bind to other components, and food containing free water spoils easily. In other words, bacteria, viruses, microorganisms, or reactive oxygen species bind to free water, accelerating spoilage. Furthermore, even in the bound water state, over time, with rising temperatures, or in dry environments, bound water becomes free water, and at that time, it tears off some of the components of the cells to which it was hydrogen-bonded, making it more susceptible to spoilage. Therefore, maintaining freshness is possible by binding free water in a linked arrangement (distinct from the "bound water state" mentioned above) or by binding it to other cells, etc.

[0093] It is believed that the water molecules arranged in a bead-like pattern by the liquid control device 1 of this embodiment form a structure in which free water molecules bond with each other, resulting in a stable state similar to bound water. In other words, the water molecules arranged regularly by the liquid control device 1 of this embodiment are retained within the substance without bonding with other components, thus keeping food fresh and moist.

[0094] Therefore, by installing the liquid control device 1 of this embodiment in a container, the arrangement of free water in the substance inside the container can be controlled, and if the substance is food, medicine, or cells, it is possible to maintain the freshness of the food, medicine, or cells. For example, by using the liquid control device 1 as a transport container, food can be transported while maintaining its freshness even over longer distances than before. The container may be made of polystyrene foam or the like, and the liquid control device 1 of this embodiment can be attached to existing polystyrene foam or the like to constitute a transport container.

[0095] Furthermore, once water molecules are arranged regularly by the liquid control device 1 of this embodiment, they remain in this regularly arranged state for several days to several tens of days. Therefore, if the target substance is food, medicine, or cells, the freshness of the food, medicine, or cells can be maintained even if the free water is arranged in a chain-like state using the liquid control device 1 of this embodiment and then transferred to another container for storage.

[0096] Furthermore, when a predetermined voltage is applied to electrodes 13 and 14, the water molecules in the water content of the substance electrically align and orient themselves in a substantially constant direction (the direction of the electric field). At this time, the conductivity of the substance increases due to the alignment of the water molecules. It is also possible to align water molecules even when the substance is a liquid, thereby increasing the conductivity even in the case of pure water, for example. In addition, since water molecules vibrate at a constant frequency in an electric field, they do not crystallize around 0°C.

[0097] Furthermore, when a predetermined voltage is applied to electrodes 13 and 14, hydrogen bonding of water molecules in the substance is suppressed, resulting in fewer hydrogen bonds, making it possible to obtain, for example, physiological water. By adding microbubbles, micro-nanobubbles, or nanobubbles to this water, even more functional water can be obtained. This enhancement of liquid functionality using electric fields and microbubbles is not limited to water; it can also be applied to aqueous solutions, emulsions, oils, and other materials.

[0098] Furthermore, when a predetermined voltage is applied to electrodes 13 and 14, the hydration of water molecules in the substance's water is promoted. For example, when proteins and other substances contained in the substance are hydrated and bind with water molecules, resulting in the proteins and other substances being surrounded by water molecules, the deterioration of the substance can be suppressed.

[0099] Figure 3 is a micrograph of free water. Figure 3A shows the state of free water before an electric field is applied, and Figure 3B shows the state of free water after an electric field is applied. As shown in Figure 3B, a beaded arrangement of water particles can be observed in the free electrons when an electric field is applied, at the locations marked with white underlines. In contrast, as shown in Figure 3A, a beaded arrangement of water particles cannot be observed in the free water before an electric field is applied. From Figure 3, it can be confirmed that the liquid control device 1 of this embodiment can make free water beaded. Although Figure 3 shows the beaded arrangement of the water phase in the oil phase, it is possible to control the beaded arrangement of liquids in a similar way by controlling the applied electric field, even between other types of liquids.

[0100] Figure 4 shows the simulation results of the potential of water particles, Figure 4A is an explanatory diagram of the simulation model, and Figure 4B shows the results of the potential simulation. As shown in Figure 4A, the simulation model represents free water, with four linked water particles in the center and two independent water particles to its left.

[0101] Figure 4B shows three regions of equipotential in a vertical cross-section along the longitudinal direction of water particles. In the rightmost cross-section, it is shown that the water particles within a beaded arrangement are equipotential. Furthermore, the region of four beaded water particles in the center of the figure is colored with approximately the same color, indicating that the potentials of these four regions of beaded water particles are approximately equal.

[0102] The presence of electric field lines between the four linked water particles indicates that these four water particles are attracting each other. Furthermore, electric field lines from the linked four water particles also extend to two independent water particles located to the left of the linked four water particles. This suggests that a force is acting on these two independent water particles, pulling them towards the linked four water particles, and that these two independent water particles may be added to the arrangement of the linked four water particles.

[0103] [Regarding the decrease in interfacial tension] In a W / O emulsion (for example, minute water droplets in edible oil), the interfacial tension can be reduced when an electromagnetic field is applied using the liquid control device 1 of this embodiment. In this case, a reduction of 10% or more in interfacial tension can be achieved, and depending on the electromagnetic field conditions, a reduction of 20% or more can be achieved. Furthermore, by appropriately controlling the DC component voltage and AC component voltage, for example, the interfacial tension can be reduced by 60% or more. This is thought to be due to an increase in interfacial polarization formed by the application of the electromagnetic field.

[0104] For example, when cooking food in cooking oil, the water contained in the food turns into water vapor in the cooking oil, and the water droplets that detach from the food into the cooking oil are minute droplets. If sufficient interfacial polarization occurs in these minute droplets to reduce the interfacial tension, a chain of minute droplets is formed due to the interpole attraction. When frying food in cooking oil using a fryer, if the pair of electrodes 13 and 14 of the liquid control device 1 of this embodiment are installed on the fryer, the interfacial tension of the oil / water interface can be reduced.

[0105] Interfacial tension is not limited to the interface between water and oil; it can also be controlled to decrease interfacial tension at any interface between two types of liquids, between a liquid and a gas, or between a liquid and a solid, as long as at least one phase contains a liquid, using the liquid control device of this embodiment.

[0106] Figures 5 and 6 are graphs showing the decrease in interfacial tension between edible oil and water when the liquid control device 1 of this embodiment is used. Figure 5 is a graph of the interfacial tension between edible oil and water when the frequency and voltage value (0 to 75V) of the applied voltage are changed, and Figure 6 is a graph of the interfacial tension between edible oil and water when the frequency and voltage value (0 to 150V) of the voltage applied to the electrodes are changed. Unlike the measuring device described in the section on "Decrease in Interfacial Tension" above, Figures 5 and 6 were measured by placing water in the lower layer and edible oil in the upper layer in a cylindrical container with their interfaces in contact, inserting a pair of stainless steel electrodes into the container, and applying AC voltages of various frequencies and voltage values ​​to measure the interfacial tension between edible oil and water. A Face Automatic Surface Tensiometer (Kyowa Interface Science Co., Ltd.) was used to measure the interfacial tension. Although a pair of flat plates were used as electrodes, the method is not limited to this. For example, curved electrodes that conform to the inner wall of a cylindrical container, or flexible electrodes such as stainless steel foil, may be arranged along the inner surface of the container.

[0107] Figure 5 is a graph showing the interfacial tension between edible oil and water when the AC voltage applied to the electrodes is varied between a frequency of 10kHz and 50kHz and a voltage of 0V and 75V. From Figure 5, it can be seen that the interfacial tension between edible oil and water is related to the frequency and voltage value of the AC voltage applied to the electrodes. That is, the interfacial tension decreases as the frequency decreases from 50kHz to 20kHz and then to 10kHz. Also, the interfacial tension decreases as the voltage value increases from 0V to 75V. Therefore, by utilizing the relationship between these interfacial tensions and the frequency and voltage value of the AC voltage applied to the electrodes, the liquid control device 1 can control the interfacial tension by adjusting the applied voltage. For example, when applying the liquid control device 1 to a fryer, as mentioned above, when the surface tension decreases, the water contained in the food detaches and disperses more easily in the cooking oil as tiny water droplets. Therefore, even if it vaporizes into water vapor in the heated cooking oil, the amount of bumping that occurs will be reduced. In this case, by controlling the surface tension with the liquid control device 1, the degree of bumping can be adjusted, making it possible to set the voltage applied to the electrodes according to various fryer cooking conditions, the type, state, and quantity of food ingredients. As a result, even when the fryer cooking conditions differ, the surface tension can be properly controlled by applying an appropriate voltage to the electrodes, resulting in a food with excellent texture and taste. This is also useful when feedback control is used for the voltage applied to the electrodes. Furthermore, since surface tension can be measured or predicted, it can also be used as one of the control parameters.

[0108] Figure 6 is a graph of the interfacial tension between edible oil and water when the AC voltage applied to the electrodes is varied between a frequency of 10kHz and 20kHz and a voltage of 0V and 160V. Figure 6 is an example of measurement using a specific experimental apparatus, and although these measurement results cannot be extended to all measurement systems, it shows that there is a relationship between interfacial tension and the frequency and voltage value of the AC voltage applied to the electrodes. By utilizing this relationship and adjusting the frequency and voltage value of the AC voltage applied to the electrodes, it is possible to optimize the interfacial tension. Since the relationship between the effect of the liquid control device 1 of this embodiment and interfacial tension has been clarified, it is possible to optimize the effect not only in the case of fryers but also in other applications such as refrigeration and storage, based on the relationship with interfacial tension. Since the measurement of interfacial tension described above is relatively easy, by analyzing the optimization of the liquid control device 1 of this embodiment in relation to interfacial tension, it is possible to control the voltage applied to the electrodes more appropriately and more easily.

[0109] Figures 5 and 6 illustrate the decrease in interfacial tension between the aqueous and oil phases. Similarly, the interfacial tension between a liquid phase and a phase other than the liquid can also be controlled by controlling the applied electromagnetic field. The control of liquid interfacial tension is applicable not only to the interfacial tension between one liquid phase and another, but also to the interfacial tension between a liquid phase and a gas phase, and between a liquid and a solid phase. For example, by applying an electromagnetic field with the liquid control device of this embodiment, it is possible to control interfacial tension, contact angle, and so on.

[0110] Figure 7 is a photograph of water droplets falling into oil. It shows what happens when saline solution is dropped into edible oil from a thin tube (a metal straw with a diameter of 1.0 mm) using an annular electrode placed around the tip of the thin tube, and a voltage of 100V is applied between the thin tube and the annular electrode. When no voltage is applied, no water droplets fall into the oil. When voltage is applied, the surface tension between the edible oil and the saline solution decreases, causing water droplets to fall into the oil. In Figure 7, tiny bubbles can be seen scattered around the falling water droplets. When voltage is applied, the surface tension decreases, which reduces the size of the water droplets, and tiny bubbles are generated as the water droplets fall.

[0111] When voltage is applied, droplets of physiological saline solution are dropped into the cooking oil. This figure shows the moment of droplet drop observed with a high-speed camera. Figure 8A shows the state before voltage is applied, Figure 8B shows the state at the start of voltage application, and Figure 8C shows the state after voltage is applied, in chronological order of Figures 8A, 8B, and 8C. When voltage is applied, tiny bubbles can be seen as shown in Figures 8B and 8C. Note that in some areas, the distinction between these bubbles and the gas generated from the electrodes by electrolysis is not clear.

[0112] The liquid control device of this embodiment can control the process to reduce interfacial tension, for example, by controlling the formation of minute water droplets in oil. This function allows for the generation of water-in-oil (W / O) or oil-in-water (O / W) emulsions, and also enables control to improve the quality of the emulsion, such as its stabilization. Furthermore, the emulsion is not limited to two phases; it can also control emulsions with three or more phases. While the example given here is a mixture of two phases, an aqueous phase and an oil phase, the liquid control device of this embodiment can be used to control any two or more phases, for example, two types of liquids, or a mixture of liquid and solid, as long as one of the phases contains a liquid. Hereafter, the expression "emulsion control" will be used, but this control also includes control in the mixing of any two or more phases.

[0113] By controlling the electromagnetic field applied to a substance using the liquid control device of this embodiment, it is possible to act on the moisture present inside or on the surface of the substance and prevent, suppress, or control the spoilage, cloudiness, discoloration, algae growth, sliminess, rusting, or mold growth of the moisture.

[0114] [Example 1] Referring to Figure 9, the liquid control device according to Modification 1 will be described. Figure 9 is a conceptual diagram of the electrodes according to Modification 1. The same reference numerals are used for components similar to those in Figures 1 to 8, and their explanations are omitted. The liquid control device according to Modification 1 differs from the liquid control device according to Embodiment 1 in that it has two pairs of electrodes.

[0115] The liquid control device 1A comprises controllers 10A and 10B, and two pairs of electrodes: first electrodes 13 and 14 and second electrodes 15 and 16. Controllers 10A and 10B each include an AC component voltage generator and a DC component voltage generator. In the actual circuit configuration of controller 10, it is not necessary to provide the AC component voltage generator and the DC component voltage generator separately; a circuit configuration that combines both functions is also possible. Furthermore, it is possible to configure the two controllers 10A and 10B as a single controller. If similar electromagnetic waves are to be generated from the first electrodes 13 and 14 and the second electrodes 15 and 16, then a voltage may be applied to both the first electrodes 13 and 14 and the second electrodes 15 and 16 from a single controller.

[0116] The liquid control device 1A is driven by controllers 10A and 10B, and electric fields are generated between the pair of electrodes 13 and 14 of the first electrode and between the pair of electrodes 15 and 16 of the second electrode. At this time, electrodes 13 to 16 each function as antennas, and electromagnetic waves are radiated between the two electrodes 13 and 14 of the first electrode and between the two electrodes 15 and 16 of the second electrode, thereby generating electromagnetic fields. Therefore, at least one of electric fields, magnetic fields, electromagnetic fields, and electromagnetic waves is generated between the two electrodes 13 to 14 and 15 to 16. Furthermore, similar to Embodiment 1, sound waves and / or ultrasonic waves can be generated between electrodes 13 and 14 by applying vibration by electrical, magnetic, or mechanical means. Moreover, when water molecules are vibrated by predetermined sound waves and / or ultrasonic waves, it is possible to align the water molecules even without applying a voltage between the electrodes.

[0117] The substance to be processed is positioned between the first electrodes 13, 14 and between the second electrodes 15, 16. The substance to be processed is not particularly limited, as it can be at least one of a solid, liquid, or gas, as in Embodiment 1. When the liquid control device 1A of this embodiment is installed in a refrigerator, for example, the first electrodes 13, 14 can be installed on the side of the refrigerator, and the second electrodes 15, 16 can be installed on the ceiling, bottom, or shelf of the refrigerator. Figure 9 shows an example in which the first electrodes 13, 14 and the second electrodes 15, 16 are arranged orthogonally, but the present invention is not limited thereto, and the first electrodes 13, 14 and the second electrodes 15, 16 can be arranged in any way as long as at least a portion of the electromagnetic fields generated by the first electrodes 13, 14 and the electromagnetic fields generated by the second electrodes 15, 16 act on the substance to be processed.

[0118] Controllers 10A and 10B provide feedback control of at least one of the current value, voltage value, frequency, and phase applied to the electrodes based on detection signals from a detection unit (not shown). The detection unit includes at least one of the following: a voltage sensor for detecting the voltage applied to the electrodes, a current sensor for detecting the current applied to the electrodes, a frequency sensor for detecting the frequency of the voltage and / or current applied to the electrodes, a magnetic field sensor for detecting the magnetic field between the two electrodes 13-14 and 15-16, an electric field sensor for detecting the electric field between the two electrodes 13-14 and 15-16, a voltage phase detection sensor, a current phase detection sensor, and a voltage and current phase detection sensor.

[0119] At least one control target value for current, voltage, frequency, and phase in controllers 10A and 10B is set according to the type and state of the substance being processed. The current, voltage, frequency, and phase applied from controller 10A to the first electrodes 13 and 14 may be the same as or different from the current, voltage, frequency, and phase applied from controller 10B to the second electrodes 15 and 16, respectively. For example, various combinations are possible, such as having different voltages and frequencies, different frequencies only, or different frequencies and phases.

[0120] The control target value can be set remotely via a communication device (not shown). It is also possible to remotely control the control parameters and control quantities of controllers 10A and 10B. This allows for centralized management of controllers 10A and 10B of multiple liquid control devices 1A from a remote management server 40, enabling appropriate control of each controller 10A and 10B. However, the control method for controllers 10A and 10B is not limited to remote control from the management server 40; for example, controllers 10A and 10B of each liquid control device 1A can also be controlled individually by directly setting control target values ​​or control parameters for each controller 10A and 10B.

[0121] The management server 40 can also be a cloud server located on the cloud. One or more liquid control devices are connected to the cloud server via a network, and control information from each liquid control device is managed by the cloud server. Optimal control parameters according to the target area and state are set based on the information from the cloud server. Control result data is also collected by the cloud server. For example, the cloud server stores data on voltage, current, frequency, and surface tension for the target object, target area, and state of the object. The cloud server sets the control parameters of the controller of each liquid control device according to this data. The cloud server may directly transmit target values ​​for the voltage and frequency applied to the electrodes as control parameters to the controller, or it may transmit data such as surface tension corresponding to the target object and its state, which is necessary for calculating the voltage and frequency applied to the electrodes, to the controller, allowing the controller to calculate the target values. In the former case, since the target values ​​can be set from the cloud server, the effort required for on-site operators to set them can be reduced. In this embodiment of the liquid control device, multiple types of controllers can be prepared depending on the object, target part, type and state of the object or target part, control objective, etc. However, by setting various target values ​​using the same controller, it becomes possible to apply it to the control of various objects. Using various historical data collected on the cloud server, the optimal control parameters can be determined by performing machine learning as described later. Furthermore, as described later, when setting control parameters, a dummy measuring instrument for parameter measurement that can sense the electric field applied from the electrodes of the liquid control device can be used.

[0122] In Figure 9, since an electromagnetic field is applied from two orthogonal pairs of electrodes (X-direction electrodes 13 and 14, and Y-direction electrodes 15 and 16), by controlling the current or voltage applied to each electrode, it is possible to adjust not only the strength of the electromagnetic field generated between the electrodes but also the direction of the electromagnetic field, thereby controlling the alignment direction of water molecules or water particles. The current or voltage applied to the X-direction electrodes 13 and 14 is controlled by controller 10A, and the current or voltage applied to the Y-direction electrodes 15 and 16 is controlled by controller 10B. For example, by adjusting the ratio of the voltage values ​​applied to the X-direction electrodes 13 and 14 to the voltage values ​​applied to the Y-direction electrodes 15 and 16, the strength and direction of the electromagnetic field generated by each electrode can be adjusted. This makes it possible to atomize the water inside or on the surface of a material placed in this electromagnetic field and to control the alignment of this atomized water in a desired direction. Since both AC and DC voltages can be applied to each electrode, by adjusting this DC voltage component, the arrangement of water molecules inside or on the surface of a material placed within the electromagnetic field generated by each electrode can be controlled in any direction in the two dimensions of the XY coordinate system. In addition to the two pairs of electrodes in Figure 9, X-direction electrodes 13 and 14, and Y-direction electrodes 15 and 16, by adding another pair of Z-direction electrodes (not shown) and a controller 10C, electromagnetic waves of a desired direction and strength can be generated in three-dimensional space, thus allowing the arrangement of water molecules inside or on the surface of a material placed within the electromagnetic field generated by each electrode to be controlled in any direction in three dimensions. As described later, the liquid control device of this embodiment makes it possible to improve the properties of a material by controlling the micronization of water molecules inside or on the surface of the material, the state of their bead-like arrangement in a specific direction, and the direction of this arrangement.

[0123] Figure 10 is a conceptual diagram of different electrodes in Modification 1, where Figure 10A shows an example using one electrode and Figure 10B shows an example using one electrode and two electrodes facing that electrode. Embodiment 1 describes an example using a pair of electrodes, and Embodiment 2 describes an example using two pairs of electrodes, but the present invention is not limited thereto, and it is also possible to use, for example, one electrode or an odd number of electrodes such as three. For example, as shown in Figure 10A, electromagnetic waves can be generated even with one electrode 17. Also, for example, when using three electrodes, as shown in Figure 10B, it is possible to face one electrode 18 with two electrodes 19 and 20, or to generate different electromagnetic waves from the three electrodes. Therefore, the number and arrangement of electrodes can be set arbitrarily and are not limited.

[0124] [Differentiation 2] A liquid control device according to Modification 2 of the present invention will be described with reference to Figures 11 and 12. Figure 11 is a waveform diagram when different frequency voltages are used according to Modification 2, and Figure 12 is a waveform diagram when different phase voltages are used according to Modification 2. The same reference numerals are used for components similar to those in Figures 11 to 12, and their descriptions are omitted. The liquid control device according to Modification 2 differs from Embodiment 1 and Modification 1 in that different electromagnetic waves are generated from a pair of electrodes.

[0125] In Figure 11, an electromagnetic wave with a frequency of 50 kHz (P wave) is generated from one electrode 21A of a pair of electrodes 21A and 21B, and an electromagnetic wave with a frequency of 47 kHz (Q wave) is generated from the other electrode 21B. Here, if the amplitude of the electromagnetic wave is A, the P wave and Q wave are expressed by the following equations, respectively. Note that these are expressed as the position where V(t)=0 for both at time t=0 (for example, the position exactly midway between electrodes 21A and 21B). P wave:V(t)=Asin(2πf1t),f1=50kHz Q wave: V(t)=Asin(2πf2t),f2=47kHz As a result, electromagnetic waves consisting of P-waves and Q-waves are applied between the pair of electrodes 21A and 21B, as shown in Figure 11C.

[0126] In Figure 12, an electromagnetic wave with a frequency of 50 kHz (P wave) is generated from one electrode 22A of a pair of electrodes 22A and 22B, and an electromagnetic wave with a frequency of 30 kHz (Q wave) is generated from the other electrode 22B. The phase α of both waveforms coincides at α=0. Here, if the amplitude of the electromagnetic wave is A, the P wave and Q wave are expressed by the following equations. Note that these are expressed as equations at a position where V(t)=0 for both at time t=0 (for example, exactly midway between electrodes 21A and 21B). P wave:V(t)=Asin(2πf1t),f1=50kHz Q wave: V(t)=Asin(2πf2t),f2=30kHz As a result, electromagnetic waves consisting of P-waves and Q-waves are applied between the pair of electrodes 22A and 22B, as shown in Figure 12B.

[0127] In Figure 12C, one electrode 23A of a pair of electrodes 23A and 23B generates an electromagnetic wave (P wave) with a frequency of 50 kHz and a phase α=0, while the other electrode 23B generates an electromagnetic wave (Q wave) with a frequency of 30 kHz and a phase α=π / 2. That is, the phase of both waveforms is set to π / 2. Here, if the amplitude of the electromagnetic wave is A, the P wave and Q wave are expressed by the following equations. Note that these are expressed as equations for the position where the P wave V(t)=0 and the Q wave V(t)=A at time t=0 (for example, the position exactly midway between the two electrodes 21A and 21B). P wave:V(t)=Asin(2πf1t),f1=50kHz Q wave: V(t)=Asin(2πf2t+π / 2),f2=30kHz As a result, electromagnetic waves consisting of P-waves and Q-waves are applied between the pair of electrodes 23A and 23B, as shown in Figure 12D.

[0128] In Figures 11-12, electromagnetic waves with different frequencies and / or phases are generated from both electrodes, but the present invention is not limited to this. For example, it is possible to control the peak-to-peak voltage of the electromagnetic wave by adjusting the AC component voltage applied to both electrodes, to apply the DC component voltage as an offset voltage to the AC component voltage by adjusting the DC component voltage applied to both electrodes, to make the DC component voltage applied to both electrodes different, or to make the peak-to-peak voltage value, frequency, and phase of the AC component voltage applied to both electrodes different.

[0129] [Difference 3] Referring to Figure 13, a liquid control device according to a modified example 3 of Embodiment 1 of the present invention will be described. Figure 13 is a block diagram of the liquid control device 1. The same reference numerals are used for components similar to those in Figures 1 to 12, and their descriptions are omitted.

[0130] Figure 13 is a block diagram corresponding to Figure 1. However, the communication unit 35, storage unit 37, and external power supply 39 are omitted. In other words, in reality, the control unit 36 ​​communicates with the management server 40 etc. via the communication unit 35, performs data input / output with the storage unit 37, receives power from the external power supply 39, and controls the current voltage application unit 11 via the current voltage control unit 33, but these operations are omitted in Figure 13. Also, in Figure 13, the controller 10 is shown outside the housing 50 (for example, a refrigerator, etc.), but it is not limited to this, and for example, the controller 10 can also be installed inside the housing 50.

[0131] Flows (a) to (h) in Figure 13 will be explained in order. In flow (a), settings for the controller 10, such as on / off status, operating mode, type and state of substance, and output voltage and / or output current of the current / voltage application unit 11, are input from the human-machine interface 31. Operating modes include, for example, automatic mode, substance input mode, and manual setting mode. In automatic mode, for example, the controller 10 is automatically controlled so that the substance is in an appropriate state according to detection signals from the substance detection unit 32, detection signals from the detection unit 38, and control parameters and control values ​​from the management server 40, as described later. In substance input mode, for example, the controller 10 is appropriately controlled according to the substance by inputting the type and state of substance from the human-machine interface 31. In manual setting mode, for example, the output voltage and / or output current of the current / voltage application unit 11 are manually set. In the following, unless otherwise specified, the automatic mode will be used as an example. Furthermore, in flow (a), if the chassis 50 has an automatic adjustment function, it may be possible to input setting values ​​for the chassis 50 from the man-machine interface 31.

[0132] In flow (b), information about a substance is collected from the substance detection unit 32 by a command from the control unit 36. For example, if the housing 50 is a refrigerator, the information about the substance collected by the substance detection unit 32 includes images from the in-floor camera, detection signals regarding the moisture content of food from the moisture sensor, and detection signals from temperature and humidity sensors (including detection signals from sensors built into the refrigerator). Also, for example, if the housing 50 is a container, the information about the substance collected by the substance detection unit 32 includes images from the in-container camera, detection signals from temperature and humidity sensors inside the container, and signals from a GPS installed in the container (it is also possible to install the GPS in the controller 10). Here, an example has been described in which the housing 50 is a refrigerator, but this embodiment is not limited to this, and the housing 50 can include, for example, a treatment table, a procedure table, a simple bed, an electromagnetic therapy device, an electric potential therapy device, a low-frequency therapy device, an EMS device, a massage device, a facial beauty device, a vibration device, a cavitation device, a microbubble device, a micro-nanobubble device, a nanobubble device, a fine valve device, a terahertz device, a high-frequency device, a quantum therapy device, a hair growth device, a cellulite device, a muscle relaxation device, an ultrasonic therapy device, an ozone generator, a hydrogen generator, an LED device, a beauty device, a slimming device, or a device, equipment, apparatus, or facility equipped with a storage container, etc. Information regarding substances collected by the substance detection unit 32 includes information from therapeutic or procedure cameras and sensors, information collected or processed by the above-mentioned various devices, and information from storage containers and storage devices.

[0133] In flow (c), information about the substance collected by the substance detection unit 32 in response to a command from the CPU 36 is transmitted to the management server 40 via the communication unit 35. If the setting in flow (a) is substance input mode, then information about the type and state of the substance, for example, entered from the human-machine interface 31, is transmitted to the management server 40.

[0134] Furthermore, if the setting in flow (a) is in manual setting mode, for example, information about the output voltage and / or output current of the current-voltage application unit 11 may be transmitted to the management server 40, the management server 40 may perform a predetermined correction, and then transmit predetermined control parameters and control values ​​from the management server 40 to the control unit 36. Alternatively, for example, for information collection by the management server 40, the output voltage and / or output current of the manually set current-voltage application unit 11 may be transmitted to the management server 40, and the control values ​​may be calculated by the control unit 36. Also, for example, if the above-mentioned correction of control values ​​and information collection are not required by the management server 40, it is not necessary to transmit the output voltage and / or output current information to the management server 40 in flow (c).

[0135] In the management server 40, appropriate control parameters and control values ​​are calculated for the type and state of the substance. Furthermore, when calculating control parameters and control values, the management server 40 can refer to information other than the type and state of the substance, such as season, weather, weather forecast, date and time, location, supply and demand forecast, refrigerator inbound and outbound and storage status, container transport route and traffic conditions, status of a group of containers related to the container in question, inventory management information, supply and demand status, economic indicators, and information on the web, by communicating with the database 43, etc. In addition, the management server 40 collects treatment or procedure information for each liquid control device, namely reservation information, treatment details, procedure details, treatment items, treatment items, target site, treatment purpose, and processing purpose.

[0136] Among the information about substances collected by the substance detection unit 32, the management server 40 can determine the type and state of a substance from the camera image using image recognition. For example, by using an AI trained with deep learning, the type and state of the substance can be accurately recognized. Specifically, a neural network trained on camera images of food and data on the actual type and state of that food can be used to accurately recognize the type and state of the substance from the camera image. The server can also communicate with other controllers 10 to accumulate a large amount of image recognition data, thereby improving the accuracy of image recognition for a variety of substances. Furthermore, if the controller 10 is equipped with an AI program, the control unit 36 ​​can perform image recognition using a pre-trained model from the management server 40, and in flow (c), the image recognition results can be transmitted to the server 40. Performing image recognition in this way on the controller 10 reduces the amount of data transmitted in flow (c).

[0137] In flow (d), the control parameters and control values ​​calculated by the management server 40 are sent to the control unit 36 ​​of the controller 10.

[0138] The management server can also be a cloud server located on the cloud. One or more liquid control devices are connected to the cloud server via a network, and control information from each liquid control device is managed by the cloud server. Appropriate control parameters according to the target area and state are set based on the information from the cloud server. Control result data is also collected by the cloud server. For example, the cloud server stores data on voltage, current, frequency, and surface tension for the target object, target area, and state of the target object, and the cloud server sets the control parameters of the controller of each liquid control device according to this data. The cloud server may directly transmit target values ​​for the voltage and frequency applied to the electrodes as control parameters to the controller, or it may transmit data such as surface tension according to the target object and its state, which is necessary to calculate the voltage and frequency applied to the electrodes, to the controller, and the controller will perform the calculation of the target values. In the former case, since the target values ​​can be set from the cloud server, the effort required for the operator to set them on-site can be reduced. In this embodiment of the liquid control device, multiple types of controllers can be prepared depending on the object, target part, type and state of the object or target part, control objective, etc. However, by using the same controller and setting various target values, it becomes possible to apply it to the control of various objects.

[0139] To set diverse target values ​​using the same controller, it is preferable to use AI for setting control parameters. Optimal control parameters can be determined by performing machine learning using diverse historical data collected on a cloud server. While the type of machine learning is not particularly limited, deep learning can be used, for example. As training data, data for each control parameter and its corresponding control result can be used. Since control result data from other liquid control devices connected to the network are also collected on the cloud server, in addition to data for each control parameter and its corresponding control result, various environmental data, mechanism data, target part data, and situation data, as well as big data, can be obtained. This big data can then be used as training data to train a learning model using machine learning. Using the trained learning model, it is possible to set appropriate control parameters according to the target object, target part, and the situation of the target. Data detected by the substance detection unit 32 and detection unit 38 in the modified example 3 described later can also be collected on the cloud server, and this data can also be used as training data for machine learning. Furthermore, the machine learning for image recognition in the substance detection unit 32 described later can be performed on the cloud server along with the calculation of control parameters.

[0140] As described above, settings for the controller 10, such as on / off status, operating mode, type and state of substance, and output voltage and / or output current of the current / voltage application unit 11, are input via the human-machine interface 31, for example, a PC, tablet terminal, smartphone, or mobile phone. Since the liquid control device of this embodiment can control a variety of objects, it is preferable to allow interactive input of the setting values ​​for the controller 10 via the human-machine interface 31. Furthermore, by connecting to a reservation system or management system installed in a facility, hospital, clinic, etc., where the liquid control device of this embodiment is installed, information such as the planned use, date and time, object, target area, state of the object and target area, and control goals can be input to the liquid control device from reservation information, schedule information, management information, etc. The information to be input is not particularly limited, but for the state of the object and target area, for example, information on the subject's physical condition and symptoms, including height, weight, body temperature, blood pressure, blood glucose level, etc., information from a medical questionnaire, medical record information, history information, etc., and for control goals, for example, information such as treatment goals, treatment policies, and treatment plans can be input. When inputting setting values ​​related to treatment content, input methods such as having a doctor or medical staff check and confirm the input from the subject, or having a doctor or medical staff input the results of a medical interview with the subject, can be adopted. As input information, it is preferable to input treatment system information, so information such as medical records and treatment history is also included. For machine learning to set the aforementioned control parameters, various input information such as this, information detected by the substance detection unit 32 and detection unit 38 in the modified example 3 described later, information and image information from treatment or procedure equipment used with the liquid control device installed in the facility, hospital, clinic, etc., control result data of the liquid control device, medical information and progress information of the subject after treatment, examination information and history information of the subject, and calibration information from the dummy measuring instrument described later can be used. For machine learning related to image recognition from image information input from the substance detection unit 32, etc., image recognition may be performed individually, or the image information may be performed collectively as machine learning for setting control parameters on the cloud server.

[0141] When setting control parameters, a dummy measuring instrument for parameter measurement can be used, which can sense the electric field applied from the electrodes of the liquid control device. The dummy measuring instrument is equipped with an electric field meter and can measure the electric field applied from the electrodes of the liquid control device. The controller of the liquid control device, or a cloud server, stores data such as the optimal electric field for the object according to the characteristics of the object, the target voltage and frequency of the electrodes, and the relationship between the electric field and the interfacial tension of the liquid. Based on this stored data, the voltage value and frequency of the voltage applied to the electrodes of the liquid control device can be calibrated using feedback data of the electric field detected by the dummy measuring instrument, so that an appropriate electric field is applied to the object according to the current type and arrangement of electrodes of the liquid control device. Information on the calibration of the appropriate electric field according to the type and arrangement of electrodes can also be collected on the cloud server and used for machine learning to determine the optimal control parameters. The control parameters include at least data such as the voltage, current, and frequency applied to the electrodes, and the electric field applied from the electrodes to the object. Alternatively, instead of using a dummy measuring instrument, the electrodes themselves may be equipped with an electric field measurement function. For example, it is possible to calculate the value of the electric field applied from the electrode based on the inductance, capacitance, and current flowing through the electrode.

[0142] When setting control parameters, various control targets and control goals can be set and are not particularly limited, but include, for example, the following: infarction, necrosis, pressure ulcers, burns, reactive oxygen species removal, lactic acid removal, improved blood flow, improved lymphatic fluid flow, cerebral infarction, myocardial infarction, thrombosis, embolism, arteriosclerosis, improvement or prevention of clogging of body fluids, drug solutions, cosmetics, or liquids, improvement of the fluidity of body fluids, drug solutions, cosmetics, or liquids, improvement or prevention of induration or hardening, improvement or prevention of syneresis of cells or tissues, cellular edema, neuronal edema, edema, pulmonary edema, joint edema, ascites, insulin secretion disorders, excretory disorders, difficulty excreting, constipation, urinary disorders, stasis, blisters, drug delivery - Improvement, reduction of viscosity of drug solutions or body fluids, cell culture, regenerative medicine, reduction of culture time in regenerative medicine, improvement of culture quality or improvement of culture efficiency, cell tissue regeneration, reduction of lactic acid, swelling, enlargement, edema, fluid retention, dehydration of extracellular or intracellular fluid, skin diseases, pigmentation disorders, melasma, freckles, epidermal wrinkles, dermal wrinkles, expression lines, xerosis, improvement of physical condition, induration, muscle induration, myofascial release, improvement of myofascial potential, neurodegenerative diseases, myofascial electromagnetic therapy, muscle imbalance, improvement of myofascial potential balance, improvement of body balance, myofascial balance improvement Benefits include: improved occlusion, improved bone alignment, improved body alignment, improvement or prevention of fractures or joint diseases, improved balance of endocrine, lymphatic, or meridian systems, fractures, joint diseases, skin care, moisturizing, improved fertility, infertility, improved sperm motility, sperm activity, egg activity, mitochondrial activity, autophagy activity, PMS, pain, itching, abnormal sensations, cold sensitivity, frigidity, spasms, anti-aging, hair follicle care, improvement of menopausal symptoms, improved cleansing, alopecia, AGA, ED, promotion of fat breakdown, improved contact lens comfort, dry eyes, and improved vision. , improved dynamic visual acuity, sleep disorders, improved sleep, sleep apnea syndrome, improved preventive medicine, improved nerve cells, improved cellular edema, countermeasures against viruses, bacteria, or fungi, cancer, glaucoma, cataracts, age-related macular degeneration, ophthalmic diseases, hearing loss, hearing impairment, visual impairment, dementia, Alzheimer's disease, Parkinson's disease, improved sleep, improved beauty, health promotion, improved motor function, fluid balance, gastrointestinal diseases, respiratory diseases, cardiovascular diseases, neurological diseases, hematological diseases, nephrological diseases, endocrine diseases, internal medicine diseases, improved or normalized blood pressure, pulse,Or improvement or enhancement of heart rate, improvement or enhancement of respiratory or lung function, improvement or enhancement of dialysis function, osteopathic treatment, improvement of rigor mortis, improvement of preservation, freezing, thawing, culture, or logistics of organs, body fluids, blood, cells, tissues, skin, teeth, bones, joints, hair, corpses, DNA, stem cells, sperm, eggs, drugs, cosmetics, or liquids, electrodes used for preservation, freezing, thawing, culture, or logistics of organs, body fluids, blood, cells, tissues, skin, teeth, bones, joints, hair, corpses, DNA, stem cells, sperm, eggs, drugs, cosmetics, or liquids. This relates to improvements in containers, the efficacy or quality of pharmaceuticals, cosmetics, or liquids, the extraction of bodily fluids, pharmaceuticals, cosmetics, or liquids, the formation of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, or organs, the improvement or enhancement of emulsion properties, the improvement or enhancement of drug delivery properties, the improvement or enhancement of the efficacy or performance of pharmaceuticals, the prevention or control of the growth of microorganisms, bacteria, fungi, or viruses, the prevention of their transfer, the reduction of the viscosity of drug solutions, or the control of liquid vibrations, ectoplasm, etc.

[0143] In flow (e), the control unit 36 ​​controls the output voltage and / or output current of the current voltage application unit 11 using control parameters and control values ​​transmitted from the management server 40.

[0144] In flow (f), the control unit 36 ​​provides feedback control to at least one of the current value, voltage value, frequency, and phase applied to each electrode 13, 14 based on the detection signal detected by the detection unit 38. The detection signal detected by the detection unit 38 includes at least one of the voltage applied to the electrode, the current applied to the electrode, the frequency and / or phase of the voltage and / or current applied to the electrode, the magnetic field between the two electrodes 13, 14, the electric field between the two electrodes 13, 14, and the sound waves and / or ultrasound between the two electrodes 13, 14. At this time, the feedback control value may be a control value calculated by the control unit 36, or it may be a control value calculated by the management server 40.

[0145] Here, if the control value to be fed back is the control value calculated by the control unit 36, the control target value is transmitted from the management server 40 to the control unit 36 ​​in flow (d). Alternatively, in manual mode, the set value as the control target value is input in flow (a). The control target value can be set variably over time according to the information about the substance collected by the substance detection unit 32. Furthermore, if the control value to be fed back is the control value calculated by the management server 40, the management server 40 transmits the detection signal detected by the detection unit 38 to the management server 40 in flow (c) in order to calculate the control value to be fed back, the management server 40 calculates the control value to be fed back, and the control value is transmitted from the management server 40 to the control unit 36 ​​in flow (d).

[0146] In this embodiment, an example using the detection unit 38 has been described, but control without the detection unit 38 is also possible. In this case, flow (f) is omitted, and the output voltage and / or output current of the current-voltage application unit 11 are controlled by flow (e). In this case, various control methods such as sensorless control and open-loop control can be applied.

[0147] Flow (g) may be configured such that, if the enclosure 50 has an automatic adjustment function, control commands from the control unit 36 ​​are sent to the enclosure 50. If the enclosure 50 is a refrigerator, the control commands are, for example, set values ​​for the temperature and humidity inside the refrigerator. If the enclosure 50 is a container and the container has a function to adjust the temperature and humidity, the control commands are, for example, set values ​​for the temperature and humidity for the container. Furthermore, if the enclosure 50 is a container and the container is stored in a warehouse where the temperature and humidity can be adjusted, then, as described later, flow (i) transmits information regarding the temperature and humidity adjustment of the container to an external server and a management server of the warehouse, which acts as a database 43, and is used to appropriately adjust the temperature and humidity of all containers, including other containers. Note that if the enclosure 50 does not have an automatic adjustment function, flow (g) is not a mandatory configuration, and in this case, for example, in flow (h) described later, information regarding the control commands from the control unit 36 ​​is displayed on the man-machine interface 31.

[0148] In flow (h), the control status of the control unit 36 ​​is displayed on the man-machine interface 31, including, for example, the control status of the output voltage and / or output current of the current voltage application unit 11, information on the type and state of the substance currently being handled, the status of the housing 50 (detection information from the substance detection unit 32), and, if the housing 50 does not have an automatic adjustment function, information on control commands from the CPU 36 to the housing 50. In addition to this information, the man-machine interface 31 can also display information sent from the management server 40 in flow (d) in addition to control parameters and control values, such as season, weather, weather forecast, date and time, location, supply and demand forecast, refrigerator inbound and outbound and storage status, container transport route and traffic conditions, status of a group of containers related to the container, inventory management information, supply and demand status, economic indicators, and information on the web. By taking this information into consideration, the operator can appropriately manage treatment and procedures.

[0149] The human-machine interface 31 can be integrated with the controller 10. Alternatively, the human-machine interface 31 can be separate from the controller 10, or separate from some of the functions of the controller 10. In this case, the human-machine interface 31 can be configured as a mobile terminal with communication capabilities, such as a smartphone, mobile phone, tablet, or PC. When the human-machine interface 31 is separate from some of the functions of the controller 10, at least one of the functions of the communication unit 35, the memory unit 37, and the calculation function of the control unit 36 ​​within the controller 10, or a part thereof, can be separated from the human-machine interface 31. Furthermore, it is also possible to integrate the functions of the substance detection sensor 32 and the detection unit 38, or a part thereof, with the human-machine interface 31. For example, the camera function built into a smartphone, mobile phone, tablet, or PC can be used as the substance detection unit 32.

[0150] In flow (i), the management server 40 communicates with the database 43 to send and receive information and collect data necessary for managing materials. The management server 40 can communicate with necessary external servers via the internet. Therefore, if the enclosure 50 is a container, it can access, for example, the management database and management server of the warehouse managing the container.

[0151] Furthermore, the controller may, with the electrodes positioned facing the target area, adjust at least one of the voltage value, current value, frequency, or phase of the DC and / or AC component voltage or current applied to the electrodes, control at least one of the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from the electrodes, and, depending on the target area facing the electrodes, change over time the frequency, voltage applied to the electrodes, and at least one of the emission angles of the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from the electrodes, or control the duration of voltage application to the electrodes. When information about an object is input from a detection signal from the material detection unit 32, a detection signal from the detection unit 38, or a setting signal from the human-machine interface, the controller controls at least one of the following, depending on the type and state of the object: changing the frequency and voltage applied to the electrodes over time, changing the emission angle of the electric field, magnetic field, electromagnetic field, or electromagnetic wave generated from the electrodes, i.e., the angle of the electrodes over time, or controlling the time for which voltage is applied to the electrodes. The predetermined settings for the temporal changes in voltage and / or frequency are not particularly limited, but a sweeping characteristic as shown in Modification 4 below can also be adopted.

[0152] [Differentiation Example 4] Using Figure 14, a liquid control device, quality control method, program, and storage medium according to Modification 4 of the present invention will be described. The same reference numerals are used for components similar to those in Figures 1 to 13, and their descriptions are omitted. In the liquid control device 1 of Embodiment 1 and Modifications 1 to 3, the current or voltage, the current value or voltage value, and the frequency were set to predetermined values. However, in Modification 4, the current value or voltage value, and / or frequency are changed according to a predetermined rule and within a predetermined range, i.e., swept. Figure 14A shows an example of linearly and continuously sweeping the voltage value, current value, or frequency. Figure 14B shows an example of linearly and step-wise changing the voltage value, current value, or frequency. Furthermore, Figure 14C shows, for example, a step-wise change in the voltage value and linearly and continuously sweeping the frequency, or for example, a step-wise change in the frequency and linearly and continuously sweeping the voltage value. This makes it possible to automatically generate electromagnetic waves of appropriate current value or voltage value, and / or appropriate frequency, for any target. In other words, appropriate current, voltage, or frequency values ​​are generated at predetermined timings within the sweep range. Note that Figure 14C is merely an example and is not limited to it. In Figure 14C, one value remains constant while the other value cycles back and forth from 0 to its peak, but this is not the only example. For example, one value may remain constant while the other value increases from 0 to its peak, then one value may change in a step-like manner until it becomes constant, at which point the other value may decrease from its peak to 0, and this cycle may be repeated. Furthermore, in Figure 14C, one value changes in a step-like manner while the other value continuously and frequently cycles between 0 and its peak, but this is not the only example. For instance, one value may change slowly and continuously while the other value continuously and frequently cycles between 0 and its peak.

[0153] The sweeping rules are not limited to those shown in Figure 14. In addition to linear and step-like changes, other sweeping rules may include curved changes, sinusoidal changes, smooth analog changes, discrete changes, random changes, etc. The AC voltage value, DC voltage value, AC current value, DC current value, frequency, etc., can be changed one value at a time, multiple values ​​can be changed in relation to each other (see, for example, the example in Figure 14C), or multiple values ​​can be changed simultaneously. The sweeping range can be, for example, within the range defined in Modifications 1 to 3, or it can be extended to an even wider range.

[0154] For any given target, an appropriate current, voltage, or frequency is generated at predetermined timings within the sweep range. However, the controller 10 can automatically detect an appropriate (or optimal) current, voltage, or frequency by understanding the target's state through feedback from the substance detection sensor 32, etc., and analyzing it in correspondence with the sweep change pattern, or by analyzing it on the server side. The detected appropriate values ​​are used for subsequent control of the controller 10 and can also be shared with other controllers 10 via the server.

[0155] The following describes an example of blood flow improvement using the liquid control device of Embodiment 1. In the liquid control device of this embodiment, for example, with the subject placing both feet on a rectangular plate-shaped electrode placed on the floor, the device controls the subject's blood flow by adjusting the electromagnetic waves that act on the subject by generating electromagnetic waves from the electrode. The electrode may be unipolar or bipolar. If the electrode is bipolar, it has a positive electrode and a negative electrode. Although not particularly limited, the negative electrode can be at ground potential. The positive electrode and negative electrode may be arranged so that they are divided in the front-to-back direction or width direction of the rectangular electrode.

[0156] While not particularly limited, a preferred arrangement of two electrodes is one in which each electrode is comb-shaped, and the two electrodes are positioned opposite each other so that the comb teeth of both electrodes are arranged alternately. Although the term "comb teeth" is used, the shape of the comb teeth is not limited to multiple vertical rectangles; the geometric shape is arbitrary, and a variety of shapes combining appropriate bumps and spaces can be adopted. The dimensions of each comb-shaped electrode are arbitrary as long as the conductivity of the electrodes and insulation between the two electrodes are ensured, but for example, the clearance between the two electrodes can be set to about 0.5 mm to 50 mm, and the width of the conductive part can be set to about 0.5 mm to 50 mm.

[0157] Figure 15 shows the results of blood flow improvement after 30 minutes. Figure 15 shows the results of blood flow improvement in the capillaries of the fingertips of the hands when electromagnetic waves were applied to the electrodes from a controller at 50 kHz and 100 V for 30 minutes. The left side shows the data without electromagnetic wave application, and the right side shows the data after electromagnetic waves were applied for 30 minutes. The average blood flow velocity at each location (1) to (4) is improved after 30 minutes of electromagnetic wave application by the liquid control device of this embodiment.

[0158] Although not particularly limited, in this embodiment, blood flow velocity was measured by capturing the movement of blood through image analysis and calculating the blood flow velocity.

[0159] Figure 16 shows the results of blood flow improvement over four weeks. Figure 16 confirms that blood flow improves when the subject is subjected to electromagnetic waves for 30 minutes daily by applying 50kHz, 100V from a controller to electrodes. The four bar graphs from the top of Figure 16 represent blood flow velocity over a 5-second period, and from top to bottom, they are data for day 3, week 1, week 2, and week 4. The bottom graph shows the change in the average blood flow velocity over four weeks, confirming that blood flow improves over time by continuing the treatment of applying electromagnetic waves to the subject for 30 minutes daily using the liquid control device of this embodiment.

[0160] The experimental results for improving blood flow shown in Figures 15 and 16 demonstrate that the liquid control device of this embodiment can control the heart rate or pulse to improve or increase it, blood pressure to improve or normalize it, dialysis function to improve or increase it, and the permeability of drug delivery systems or cosmetics to improve it. Furthermore, since the effects of improving blood flow contribute to improving the fluidity of not only blood but also other bodily fluids such as plasma and lymph, improving bodily fluid metabolism, and stabilizing the water balance, the liquid control device of this embodiment can control the visual acuity and dynamic visual acuity to improve or increase it, ophthalmic diseases to improve or prevent them, internal medicine diseases to improve or prevent them, and immune function to improve or increase it.

[0161] Figure 17 shows the results of the revival of "ghost vessels." In one subject (a woman in her 40s), when electromagnetic waves were applied for 30 minutes using the liquid control device of this embodiment, the ghost vessels in her fingertips were revived, as shown in the upper right photograph of Figure 17. In another subject (a man in his 70s), when electromagnetic waves were applied for 10 minutes using the liquid control device of this embodiment, the blood flow in the capillaries of his fingertips improved, as shown in the lower right photograph.

[0162] In Figures 15 to 17, the subject placed both feet on rectangular plate electrodes on the floor, and electromagnetic waves were generated from the electrodes. By adjusting the electromagnetic waves acting on the subject, the subject's blood flow was controlled to improve. The voltage applied to the electrodes was set to 50kHz and 100V, but the voltage conditions for generating the electromagnetic waves acting on the subject are not limited to these. The frequency and voltage value of the voltage applied to these electrodes can be appropriately adjusted for each subject or according to the subject's condition. It is also possible to control the frequency and voltage value to change over time. The lower limit of the frequency is approximately 1Hz, which is roughly equivalent to the heart rate, and the upper limit is not particularly limited. For example, the setting condition can be up to 1MHz, but it is not limited to this, and the upper limit of the frequency can also be set in the terahertz wave range (0.1THz to 100THz). The range of the voltage value is not particularly limited except for the constraints of the power supply unit of the liquid control device. For example, the lower limit can be set to about 5V and the upper limit to about 2000V.

[0163] Figure 18 shows the results of blood flow improvement in a mouse lower limb ischemia model. When electromagnetic waves were applied to a mouse lower limb ischemia model (N=7) by applying a voltage of 50 kHz and 100 V to the electrodes using the liquid control device of this embodiment, the blood flow ratio was significantly improved after 14 days.

[0164] Experiments in Figures 15-18 demonstrated that applying an electric field with the liquid control device of this embodiment can improve or prevent clogging of body fluids, drug solutions, cosmetics, or liquids; improve or enhance the fluidity of body fluids, drug solutions, cosmetics, or liquids; improve or prevent induration or hardening; improve or prevent syneresis of cells or tissues; and remove reactive oxygen species or lactic acid. Furthermore, it was shown that by improving body fluid metabolism in the brain, applying an electric field with the liquid control device of this embodiment can improve or prevent dementia, Alzheimer's disease, and Parkinson's disease. It was also shown that by improving immune function through improved body fluid metabolism, it is possible to prevent metastasis.

[0165] [Embodiment 2] Referring to Figure 19, the liquid control device according to Embodiment 2 will be described. Figure 19 shows the result of a decrease in the viscosity of the contrast agent. In Figure 19, for a contrast agent administered by intravenous infusion, when a voltage of 50 kHz and 100 V was applied to the electrode using the liquid control device of this embodiment to apply electromagnetic waves to the contrast agent before infusion, it was confirmed that the viscosity of the contrast agent decreased after applying electromagnetic waves to the contrast agent for 5 minutes, as shown in Figure 19. In Figure 19, the horizontal axis is shear rate and the vertical axis is viscosity. For each shear rate, the bar graph on the right is the data after applying electromagnetic waves to the contrast agent for 5 minutes using the liquid control device of this embodiment, and the bar graph on the left is the control data. From Figure 19, it can be seen that the viscosity of the contrast agent decreased in the data after applying electromagnetic waves to the contrast agent for 5 minutes using the liquid control device of this embodiment.

[0166] In Figure 19, Table 1 shows that even at shear rates of around 100 to 1000, the viscosity of the contrast agent in this embodiment is lower than that of the control. Table 1 is a tabular representation of the data from Figure 19, and it can be seen that even at shear rates in the range of 100 to 1000, the viscosity of the contrast agent in this embodiment is lower than that of the control.

[0167] [Table 1]

[0168] In this embodiment, the voltage applied to the electrode from the controller was set to 50kHz and 100V. However, this embodiment is not limited to this, and the electromagnetic waves acting on the contrast agent can be controlled by adjusting the frequency and voltage value of the voltage applied to the electrode from the controller according to the type and state of the contrast agent.

[0169] [Embodiment 3] A liquid control device according to Embodiment 3 will be described. Embodiment 3 describes the improvement of cellular edema in nerve cells. The liquid control device of this embodiment can miniaturize water in cells by applying electromagnetic waves to the target area. By applying a voltage of, for example, 50 kHz and 100 V from the controller to the electrodes using the liquid control device of this embodiment, electromagnetic waves are applied to the target area, miniaturizing the water particles in cells to 8 μm or less. This miniaturized water then becomes easier to pass through the cell membrane. Cellular edema in nerve cells is caused by the accumulation of water inside the cell due to a disruption of the ion balance across the cell membrane. However, by miniaturizing water molecules inside the cell using the control device of this embodiment, water can be more easily expelled from the cell through the cell membrane, thereby improving cellular edema. From the above, it has been shown that by controlling the miniaturization of body fluids using the liquid control device of this embodiment, it is possible to improve or prevent edema, cellular edema, or nerve cell edema. Furthermore, it has been shown that by controlling the minimization of body fluids using the liquid control device of this embodiment, in addition to improving edema, it is possible to improve body fluid metabolism, improve body fluid fluidity, stabilize the water balance, control the balance of hormones, endocrine, lymphatic, or meridians, control mitochondrial activity, autophagy activity, oocyte activity, or sperm activity, and improve or prevent burns, necrosis, or pressure ulcers.

[0170] [Embodiment 4] A liquid control device according to Embodiment 4 will now be described. Embodiment 4 will explain how the liquid control device of this embodiment suppresses the proliferation of viruses, bacteria, fungi, or cancer cells. When the body's immunity is high, the internal electrical potential is stable, and interstitial fluids bind together, causing quasi-bound liquefaction, making it difficult for viruses, bacteria, fungi, or cancer cells to proliferate. In contrast, when the internal electrical potential is disrupted and the body's immunity decreases, the electrical potential between interstitial fluids is disrupted, resulting in individual nutrient-rich water droplets (sometimes called "extracellular free fluid"), and viruses, cells, fungi, or cancer cells proliferate by binding to the extracellular free fluid. Therefore, by applying a voltage of, for example, 50kHz, 100V from the controller to the electrodes using the liquid control device of this embodiment, electromagnetic waves are applied to the target area, causing the interstitial fluid to form a beaded structure, thereby suppressing the proliferation of viruses, bacteria, fungi, or cancer cells.

[0171] [Embodiment 5] A liquid control device according to Embodiment 5 will be described. Embodiment 5 will describe the antibacterial and infection prevention effects of the liquid control device of this embodiment against bacteria and viruses.

[0172] First, we will explain the antibacterial effect against enveloped viruses, such as influenza virus (H1N1) and coronavirus. By applying a voltage of, for example, 50kHz and 100V from the controller to the electrodes using the liquid control device of this embodiment, electromagnetic waves are applied to the target area. This reduces the interfacial tension of the water, which destroys the envelope of the enveloped virus, thus the liquid control device of this embodiment exhibits an antibacterial effect against enveloped viruses. As shown in Table 2, the antibacterial activity of the liquid control device of this embodiment against the H1N1 virus was 1.12 (antibacterial activity rate of 92.45%).

[0173] [Table 2]

[0174] Next, when electromagnetic waves are applied to the affected area of ​​the body using the liquid control device of this embodiment, the transportability of immune cells is improved due to improved blood flow, as described above, thereby enhancing immune function and making it effective in preventing infection.

[0175] Furthermore, when electromagnetic waves are applied to the treatment area using the liquid control device of this embodiment, the free water molecules within the cells bind together to form a beaded arrangement, creating a stable state similar to bound water, thus hindering the supply of water to bacteria and viruses. Figure 20 shows the antibacterial effect of the liquid control device of this embodiment against anthrax bacteria. When treated with the liquid control device of this embodiment for one day, the antibacterial effect against FI anthrax bacteria is clear, as shown in the upper graph of Figure 20. Also, when treated with the liquid control device of this embodiment for two days, the antibacterial effect against both FI anthrax bacteria and FK anthrax bacteria is clear, as shown in the lower graph of Figure 20.

[0176] [Embodiment 6] A liquid control device according to Embodiment 6 will be described. Embodiment 6 will describe the use of the liquid control device of this embodiment. In this embodiment, the voltage and frequency applied to the electrodes in each experimental example are 50 kHz and 100 V unless otherwise specified. However, this embodiment is not limited to these values, and the target values ​​are appropriately set by the cloud server and controller from, for example, within the range of 0 to 1 MHz and 0 to 7000 V, depending on the object, target area, condition of the target area, and treatment or procedure.

[0177] By applying an electric field from an electrode to a target area using the liquid control device of this embodiment, the interfacial polarization of the liquid increases and the interfacial tension decreases, causing the liquid particles to become micronized, and the micronized liquid particles are controlled to bead-like arrangements. Furthermore, the emulsion state of the micronized liquid is controlled to improve. In other words, by micronizing two liquids and improving the degree of mixing between the two liquids, it becomes possible to achieve a state where, for example, oil is well dispersed in water, or water is well dispersed in oil. It is also possible to control the mixing of three or more phases to be well-controlled. According to the liquid control device of this embodiment, for example, by controlling the miniaturization of body fluids, it is possible to improve the fluidity of body fluids, improve the metabolism of body fluids, stabilize the water balance, etc., thereby improving physical condition. In addition, by arranging the liquid particles in a bead-like arrangement, the proliferation of microorganisms, bacteria, fungi, and viruses is prevented. Furthermore, by improving the quality of the emulsion and ensuring good mixing, it is possible to control the generation of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, or organs to improve or enhance them. The following describes the broad range of applications of the liquid control device of this embodiment, as well as its functions, operation, and effects, along with various experimental examples.

[0178] By applying an electric field using the liquid control device of this embodiment, the interfacial tension of the liquid is reduced, and the liquid particles become micronized, enabling the following control. • Improvement of blockage, edema, stagnation, swelling, blockage, and infarction. • Promotes growth, improves germination rate, and increases water content. • Maintains freshness, enhances taste and aroma ·Oxidation inhibition, aging inhibition ·Quality maintenance, deterioration prevention, strength improvement, fluidity improvement, clogging prevention • Reduced oil penetration, reduced steam explosions • Removes reactive oxygen species and improves oxidation-reduction.

[0179] Furthermore, by applying an electric field using the liquid control device of this embodiment, the atomized liquid particles are controlled to be arranged in a chain-like pattern, thereby enabling the following control. Dry skin, always moisturized skin · Inhibiting the growth of viruses and microorganisms, inhibiting decay, necrosis, and preventing bedsores · Inhibiting miscellaneous bacteria, mold, algae, and odors · Reducing water separation, maintaining fragrance, freshness, quality, inhibiting oxidation, and extending the shelf life · Improving strength, maintaining quality, and preventing deterioration · Separating and inhibiting water separation

[0180] Furthermore, by applying an electric field with the liquid control device of the present embodiment, the emulsification property of the atomized liquid particles is improved, enabling the following controls. · Improving quality, performance, and effectiveness · Maintaining quality, preventing deterioration, and improving strength · Separating and inhibiting water separation

[0181] The liquid control device of the present embodiment performs body fluid minimization control using the technology that by applying an electric field, the surface tension of the liquid decreases and the liquid particles are atomized. By body fluid minimization control, the following symptoms can be improved. · The metabolism of body water is improved · One of the causes is blockage of blood vessels and organs and cell edema · Cerebral infarction, myocardial infarction, blood vessels are blocked · Water accumulates in the lungs, knees, ascites, and lactic acid accumulates · Insulin, urine, and feces do not come out · Edema, swelling, and stagnation of cells and nerve cells · Swelling after sprains and surgeries · Bedsores, pressure ulcers, and necrosis · Itching, pain, numbness, coldness, and stiffness · The face swells, wrinkles, and dry skin · Insomnia and apnea

[0182] By controlling to minimize body fluids with the liquid control device of the present embodiment, the following symptoms can be improved (Since it minimizes body fluids, it is called "Body Fluids Micronization (BFM) Therapy"). · Improving blockage of blood vessels and organs and cell edema • Improvement of circulatory disorders • Suppression of water convection • Improvement of blood sugar levels, urine, and valves • Disease control in the initial stages • Suppress swelling early • Prevention of bedsores, pressure ulcers, and necrosis • Suppression of itching, pain, numbness, coldness, and stiffness • Suppresses swelling, wrinkles, and dry skin. • Improved sleep quality and suppression of sleep apnea

[0183] The fluid control device of this embodiment can be used to minimize bodily fluids, and symptom improvement can be controlled using the following five approaches. (1) Health (Health Tech) Approaches to maintaining health This method aims to improve blockages in blood vessels and organs by minimizing interstitial fluid, lymphatic fluid, and cellular fluid within the body, without relying on scalpels, injections, or medications. • Improvement of cardiovascular disorders ·Maintenance of health ·Anti-aging, beautiful skin (2) Sleep (Sleep Tech) Approaches to high-quality sleep • By relaxing the throat muscles and improving blood flow, it improves sleep apnea syndrome, and by minimizing water in the brain and improving blood flow, it achieves high-quality sleep. • High-quality sleep • Exacerbation of sleep apnea • Improvement of depression (3) PMS and Menstrual Pain (Fem Tech) Approaches to Solving PMS and Menstrual Pain Problems ·Improvement of menstrual pain • Mental stability before menstruation • Shortening of menstrual cycle duration • Reduce the use of birth control pills and painkillers. (4) Anti-aging, rejuvenation, and beauty (Beauty Tech) approaches By using radio wave vibrations to minimize internal moisture in facial stiffness and myofascial release, it transforms cells into moisturized ones, achieving muscle relaxation in a short time, resulting in improved wrinkles, finer skin texture, and reduced pore size. • Smaller face • Beautiful skin, fair skin • Rejuvenation ·Anti-aging (5) Athletes (Sport Tech): Approaches to improving athletic performance and recovery from fatigue • By minimizing interstitial fluid, lymph, and cellular fluid in the body, it improves blockages in blood vessels and organs. It prevents lactic acid buildup and improves problems with reactive oxygen species in the body. It keeps muscles in peak condition. • Improves muscle fatigue • In the best condition • Reduced rehabilitation time

[0184] The human body is 60-70% water, and for example, muscles are 76% water. By improving the circulation, metabolism, and balance of this water, the fluid control device of this embodiment controls the body to maintain health and improve physical condition. Through fluid minimization control, it controls the body to improve symptoms such as edema and stagnation of cells and nerve cells, blockage of blood vessels and organs, impaired circulation, prevention of viral proliferation, and decreased viscosity. Conventional treatments aim to solve the following problems, but the fluid control device of this embodiment can solve all of these problems through fluid minimization control. • Solving the problem of harmful bacteria • Solves the problem of not being able to deliver oxygen and nutrients to cells all over. • Solves the problem of being unable to release carbon dioxide and waste products. • Solves the problems of aging and oxidation. • Solves the problem of blockages in organs and blood vessels. • Solves the problem of things disappearing, rotting, and not being able to be restored. • Solving the problems of body temperature and energy • Solving problems related to mind, energy, stress, and hormones

[0185] According to the fluid minimization control by the liquid control device of this embodiment, the following control becomes possible. • The linked binding of moisture prevents the coronavirus from multiplying. • By preventing blood from clotting and miniaturizing it, blockages such as blood clots are cleared. • By creating cells that can maintain their freshness, organ transplantation becomes easier. · Improve the flow of body fluids, interstitial fluid, and blood, and improve bedsore and necrosis. · Minimize body fluids for easy circulation, improve the metabolism of body fluids, maintain water balance, discharge waste products, prevent the growth of bacteria and viruses, and eliminate blockages in organs and blood vessels, thereby continuously maintaining and enhancing health. · The scope of application includes general surgery, general internal medicine, general dentistry, general beauty and plastic surgery, general dermatology, gynecology, health care, kinesiology, chiropractic, massage, esthetics, basic medicine, traditional Chinese medicine, and veterinary medicine.

[0186] Figure 21 shows the measurement results of the particle size of water droplets. When changing from the state of OFF electric field in Image A to the state of ON electric field in Image B by the liquid control device of this embodiment, water is split into small water droplet particles by the application of an electric field. The particle size of one drop of water droplet particles held on the platinum electrode in Screen A is about 4.5 mm in diameter, and its volume is about 0.05 cm . In the state of Image C, the average particle size of the split water droplet particles is 8 μm in diameter. In this case, one drop of water droplet particles held on the platinum electrode is divided into about 180 million water droplet particles. Furthermore, in Image D, the particle size of the water droplet particle group with the smallest particle size is finer than the combined particle size of Image C above, and is 2.5 μm in diameter. In this case, one drop of water droplet particles held on the platinum electrode is divided into about 6.1 billion water droplet particles.

[0187] Conventionally, as technologies for vibrating water droplets, technologies using EMS, radio waves, ultrasonic waves, facial beauty devices, Indiva, electrotherapy devices, magnets, ores, terahertz waves, etc. are known. The particle size of the water droplets vibrated by these technologies is 4500 μm. The particle size of raindrops is 1000 μm. The particle size of drizzle is 100 - 300 μm. The particle size of mist (smoke) is 10 μm. The particle size of steam is 8 μm. In this embodiment, the size of the water droplet particles obtained by applying an electric field is 2.5 - 8 μm. Since the interval between cells in a living body is 12 μm or less, the water droplets with a particle size of 12 μm or less obtained in this embodiment have the property of easily penetrating between cells in a living body. In this embodiment, the water particle fine particles atomized by applying an electric field penetrate between cells in the living bodies of animals and plants, thereby generating various effects.

[0188] Figure 22 shows the improved results of hydroponic cultivation of green leaf lettuce. In particular, the comparative photographs taken on day 7, day 11, and day 13 demonstrate that the liquid control device of this embodiment contributes to promoting the growth of green leaf lettuce.

[0189] Figure 23 shows the results of improvements in the preservation of shiso leaves. Figure 23 shows a comparison of water turbidity and shiso growth when two batches of shiso leaves of the same size and quantity were stored at room temperature for two months with the same amount of water supplied. One batch was stored with an electric field applied using the liquid control device of this embodiment, while the other batch was stored without an electric field. It can be seen that the roots of the shiso leaves developed better when an electric field was applied. It can also be seen that the water turbidity was reduced when an electric field was applied. Figure 23 shows that the liquid control device of this embodiment contributes to the preservation of shiso leaves and the improvement of water turbidity.

[0190] Figures 22 and 23 show that the liquid control device of this embodiment can control the growth promotion of not only animals but also plants by modifying and atomizing water. The liquid control device of this embodiment can be applied to control the improvement of all living organisms and cells.

[0191] Figure 24 shows the improvement in the edema rate in rheumatoid arthritis. When the radio wave vibrations of the liquid control device of this embodiment were applied to a rheumatoid arthritis model mouse, the edema rate decreased by approximately 15-20% between days 38 and 49, improving rheumatoid arthritis. Figure 24 shows that the edema improvement effect is greater than that of the anti-rheumatic drug methotrexate.

[0192] Figure 25 shows the effect of improving blood flow in a lower limb ischemia model mouse. When radio wave vibrations were applied to the lower limb ischemia model mouse using the liquid control device of this embodiment, an improvement in blood flow was observed on day 14. The lower limb ischemia model mouse used in the experiment (exp. no. P180110, N=7) was created from BALB / c male, 8-week-old mice. Blood flow was measured using a blood flow imaging device moorFLPI (Moor Instruments Ltd.) to measure blood flow in both limbs. By smoothing the flow of interstitial fluid using the liquid control device of this embodiment, cell metabolism can be promoted and cell vitality can be maintained. As the flow of interstitial fluid improved, it took about two weeks for the blood flow improvement effect to be detected as data.

[0193] Figure 26 shows the viscosity reduction effect of a highly viscous agent. MRI and X-ray contrast agents such as iomeprole are viscous, which can make injection into patients difficult, and their low fluidity can sometimes cause strong irritation in the patient's body. Increasing the fluidity of highly viscous drugs contributes to reducing the burden on healthcare workers and patients. Using the liquid control device of this embodiment, changes in viscosity were observed by applying an electric field, as shown in Figure 26. A decrease in viscosity was observed with application for 1 to 30 minutes. The decrease was most significant with application for 5 minutes. By applying an electric field using the liquid control device of this embodiment, the viscosity of iomeprole decreased to about 60%, meaning that the viscosity decreased by a maximum of about 40%. By applying an electric field using the liquid control device of this embodiment, the fluid resistance decreased, and a change in the high-speed shear state was observed. Since the electrodes of the liquid control device of this embodiment can apply an electric field without contact, there is no need to directly contact the drug solution with metal electrodes, making it hygienic.

[0194] Figure 27 shows the effect of improving blood CPK levels in heart-transplant mice. When heart-transplant mice were irradiated with radio wave vibrations using the liquid control device of this embodiment, an improvement in blood CPK, an indicator of tissue cell damage such as muscle, was observed. In the central graph of Figure 27, the average blood CPK level was 1400 without electric field application, while the average level with electric field application was reduced to 200. CPK is an enzyme necessary for the energy metabolism of muscle cells and is present in large quantities in muscles such as skeletal muscle, cardiac muscle, and smooth muscle, as well as in the brain. When there is muscle damage, blood CPK levels rise, and for example, they rise significantly in acute myocardial infarction and muscular dystrophy. The upper graph of Figure 27 shows the measurement results of blood LDH. The average level without electric field application was 2200, while the average level with electric field application was approximately 1400. Applying an electric field with the liquid control device of this embodiment also lowered blood LDH levels. The lower graph of Figure 27 shows the measurement of the re-beating start time of the transplanted heart, and it was found that there was no effect from the liquid control device of this embodiment. With the liquid control device of this embodiment, radio wave vibrations have been shown to enhance the energy metabolism of muscle cells and have a positive effect on the repair of muscle tissue damage, making it applicable to the treatment of myocardial infarction and angina pectoris.

[0195] The experimental results in Figures 26 and 27 demonstrate that the liquid control device of this embodiment can improve or increase heart rate or pulse, and can improve or prevent heart disease.

[0196] Figure 28 shows the results of the verification of side effects caused by electrical stimulation using radio wave vibrations. Figure 29 shows the experimental conditions for Figure 28. The treatment group with applied electric field was measured approximately 2m away from the control group without applied electric field to avoid the influence of the electric field. When radio wave vibrations were irradiated onto normal mice using the liquid control device of this embodiment, there were no effects on their physical condition, and there were no changes in weight or food intake, confirming its safety. The mice used in the experiment (Scl:ddY) were 9 weeks old (8 weeks old upon arrival), with a weight of 32.66±1.09g for the control group and 33.16±1.02g for the stimulation group, all male, from breeder Nippon SLC, and the stimulation time was from 8:30 to 15:30, performed daily for 7 days. As shown in Figure 28, there were no changes in weight or food intake, confirming that the electrical stimulation caused by radio wave vibrations generated by the liquid control device of this embodiment does not affect the weight or food intake of the mice.

[0197] Figure 30 shows the results of improving rigor mortis and blood coagulation in fish. Figure 31 shows a device for preventing the decay of carcasses. As shown in Figure 30, a pair of flat electrodes were set horizontally on a case containing dead fish, and when radio wave vibrations were applied to the fish immediately after death using this physical liquid control device, rigor mortis, blood coagulation, and the odor of death were prevented (verification location: Furubira-cho, Hokkaido). In addition, when radio wave vibrations were applied for 5 minutes to fish two days after purchase using this physical liquid control device, a reduction in fishy odor, improvement in texture (chewiness), and recovery of freshness were confirmed. An incision was made only at the base of the tail of the fish immediately after purchase to sever the artery, and the fish was placed upright in a plastic case with ice placed at an angle, and radio wave vibrations were applied using this physical liquid control device. When fish were placed in the same position as a comparison subject, the blood had already coagulated, and it was not possible to drain the blood. For this reason, in the comparison subject, it is necessary to remove the internal organs from the gills and drain the blood with water pressure. On the other hand, when radio wave vibrations were applied using the liquid control device in this embodiment, the viscosity of the fish's blood decreased, and it was possible to drain the blood from the incision at the base of the tail.

[0198] The effects confirmed in the experiment shown in Figure 30—prevention of rigor mortis, blood coagulation, and odor in fish, restoration of freshness, and reduction of blood viscosity during bleeding—can be applied to meats other than fish, and furthermore, to methods of storing corpses. By installing electrodes of the liquid control device of the present invention as shown in Figure 31 and applying radio wave vibrations to the corpse, it is possible to prevent decay and odor, suppress bacterial growth and the progression of decay in the corpse bag, and even extend the storage period until cremation.

[0199] Figure 32 shows a blood coagulation inhibitory device. The effects confirmed in the experiment in Figure 30, such as the prevention of rigor mortis, blood coagulation, and odor in fish, the restoration of freshness, and the reduction of blood viscosity during blood draining, are applicable not only to meats other than fish, but also to blood coagulation inhibitory devices. As shown in Figure 32, when using an extracorporeal membrane oxygenation (ECMO) machine, by installing the electrodes of the liquid control device of the present invention and applying radio wave vibrations, blood coagulation can be suppressed and the risk of blood coagulation can be reduced. This reduces the monitoring burden on medical personnel, such as periodic blood coagulation checks, when using ECMO. Furthermore, in an artificial dialysis machine, by installing the electrodes of the liquid control device of the present invention and applying radio wave vibrations, blood coagulation in the dialysis machine can be suppressed, the risk of blood coagulation can be reduced, and in addition, combined with the effect of improving blood flow, it contributes to shortening dialysis time and improving safety during dialysis.

[0200] Figure 33 shows the mold-inhibiting effect on strawberries. The electrodes of the liquid control device of the present invention were installed, and radio wave vibrations were applied for one hour, after which the strawberries were stored in a refrigerator for one month. The comparison strawberries were stored in a refrigerator for one month without being subjected to radio wave vibrations. As shown in Figure 33, in the strawberries that were subjected to radio wave vibrations by the liquid control device of the present invention (strawberries on the right in Figure 33), the free water within the strawberries becomes linked together by the radio wave vibrations. As a result, there is no free water to which mold, microorganisms, and bacteria can bind, so even if mold, microorganisms, and bacteria are present on the surface of the strawberries, they do not proliferate, no mold grows on the strawberries, and no spoilage occurs. On the other hand, in the comparative example strawberries (strawberries on the left in Figure 33), mold proliferates and mold grows on the strawberries.

[0201] Figure 34 shows the inhibitory effect on the proliferation of anthrax bacteria. Anthrax bacteria were cultured for two days with electrodes of the liquid control device of the present invention installed and radio wave vibrations applied. As a comparative example, anthrax bacteria were cultured for two days without radio wave vibrations. Applying radio wave vibrations with the liquid control device of the present invention suppressed the proliferation of anthrax bacteria more effectively than the comparative example.

[0202] From the experimental results in Figures 30 to 34, it was shown that the liquid control device of this embodiment can improve the control of preservation, freezing, thawing, culture, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, or liquids by applying an electric field from electrodes, or it can improve electrodes or containers used for preservation, freezing, thawing, culture, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, or liquids.

[0203] Furthermore, Figures 33 and 34 show that applying radio wave vibrations using the liquid control device of the present invention can suppress the growth of mold and anthrax bacteria. It was confirmed that even in the presence of mold, microorganisms, bacteria, germs, and viruses, the device can suppress the proliferation of these organisms. When radio wave vibrations are applied to the human body using the liquid control device of the present invention, the vibrations act on the free water within the body and cells, causing the free water to form a beaded state, which is expected to suppress the proliferation of bacteria and viruses in the body. Therefore, even in the presence of bacteria and viruses, the device can suppress their proliferation, thereby providing an effect to prevent infection by bacteria and viruses.

[0204] Conventional measures to prevent viral infections, for example, aim to reduce the risk of infection by using existing COVID-19 vaccines. However, if the coronavirus continues to mutate, it will be necessary to develop a vaccine effective against each mutated strain. In contrast, by using the technology of the liquid control device of this embodiment, shown in Figures 33 and 34, which applies radio wave vibrations to suppress the growth of mold and anthrax bacteria, it is expected that even if infected with various mutated coronaviruses, the coronavirus will not multiply in the body, such as in the lungs, thus contributing to the suppression of initial symptoms caused by the coronavirus and preventing the symptoms from becoming severe.

[0205] Figure 35 shows the effect of reducing tension in the masticatory muscles on improving chewing balance. By applying an electric field to the masseter muscle (masticatory muscle) of the jaw for 5 minutes using the liquid control device of this embodiment, the values ​​of the EMG electromyograph decreased, confirming muscle relaxation. As can be seen from Figure 35, the values ​​of the EMG electromyograph decreased in both the cervical spine and the upper thoracic spinal cord.

[0206] Figures 36-40 show the effect of improving the left-right balance of the body. Channel 1 of the EMG electromyograph was attached to the left side of each part of the body, and channel 2 to the right side, and the balance of muscle strength on the left and right sides was measured. Figure 36 shows the measurement result for the sacral vertebra 1, and the acupoint at this location is related to the bladder / ovaries or prostate. In the graph on the left side of Figure 36, before use, there is variation in the muscle strength on the left and right sides. However, after applying an electric field to the masseter muscle of the jaw for 5 minutes using the liquid control device of this embodiment, the difference in muscle strength on the left and right sides decreased in both Mr. Kamata's and Mr. Tanaka's cases, as shown in the graph on the right, indicating an improvement in the balance of muscle strength on the left and right sides. In particular, in Mr. Tanaka's graph, the values ​​in the graph on the right side are significantly reduced compared to the graph on the left side, indicating that the balance of muscle strength on the left and right sides improved along with muscle relaxation. In Mr. Kamata's case as well, after the application of the electric field, the muscle strength was balanced at the lower value.

[0207] Figure 37 shows the measurement results for the 12th thoracic vertebra, an acupuncture point at this location that is related to the kidneys. In the graph on the left side of Figure 37, before use, there is variation in muscle strength between the left and right sides, and the EMG electromyograph readings are higher compared to the graph on the right side after electric field application. After applying an electric field to the masseter muscle of the jaw for 5 minutes using the liquid control device of this embodiment, in both Mr. Kamata's and Mr. Tanaka's cases, the values ​​decreased as shown in the graph on the right, and the difference in muscle strength between the left and right sides also decreased, indicating that muscle relaxation occurred and the balance of muscle strength between the left and right sides improved.

[0208] Figure 38 shows the measurement results for the 8th thoracic vertebra, and the acupoint at this location is related to the liver. In the graph on the left side of Figure 38, before use, there is a variation in muscle strength between the left and right sides, especially in Mr. Tanaka's case, and the EMG electromyograph values ​​are high in both cases compared to the graph on the right side after the application of the electric field. After applying an electric field to the masseter muscle of the jaw for 5 minutes using the liquid control device of this embodiment, the values ​​decreased in both Mr. Kamata's and Mr. Tanaka's cases, as shown in the graph on the right. In particular, in Mr. Tanaka's case, the difference in muscle strength between the left and right sides decreased, indicating that muscle relaxation occurred and the balance of muscle strength between the left and right sides improved.

[0209] Figure 39 shows the measurement results for the first thoracic vertebra, where the acupoint is related to the heart and lungs. In the graph on the left of Figure 39, before use, the EMG electromyograph values ​​show a large variation in both values ​​compared to the graph on the right, after the electric field is applied. After applying an electric field to the masseter muscle of the jaw for 5 minutes using the liquid control device of this embodiment, the difference in muscle strength between the left and right sides decreases in both cases, and the values ​​themselves stabilize at a low level.

[0210] Figure 40 shows the measurement results for the third cervical vertebra, and the acupoint at this location is related to the throat and paranasal sinuses. In the graph on the left side of Figure 40, before use, the EMG electromyograph values ​​show a large variation between the left and right sides, especially in Mr. Tanaka's case, when compared to the graph on the right side after electric field application. After applying an electric field to the masseter muscle of the jaw for 5 minutes using the liquid control device of this embodiment, the difference in muscle strength between the left and right sides decreases in both cases, and the values ​​themselves stabilize at a low level.

[0211] The measurement results from the EMG electromyograph shown in Figures 35 to 40 demonstrate that applying an electric field to the masseter muscle of the jaw for 5 minutes using the liquid control device of this embodiment relaxes the tension of the entire muscle through the masticatory muscles, thereby balancing the left and right sides of the body. Figures 35 to 40 show that applying an electric field using the liquid control device of this embodiment improves or prevents muscle imbalance by adjusting masticatory balance, muscle balance, and skeletal balance, and also improves or enhances body balance, fascial balance, occlusion, osteopathy, and body alignment.

[0212] The following were some of the evaluation comments from subjects regarding the control method using the liquid control device of this embodiment, which involves applying an electric field from electrodes. In the evaluation comments, "Bodystation" refers to the liquid control device of this embodiment. • The range of motion of the deep fascia increased, and muscle tension decreased. The area where the insulin was injected subcutaneously was hardened, but the skin in that area has softened. • Diabetes for 20 years, pancreatic function tests were performed three times, but the results were normal. I had severe heartburn, likely due to cachexia from uterine cancer, which caused me to lose a lot of weight. I tried everything, but nothing helped. After just one hour on the Bodystation, my heartburn completely disappeared, and I was able to enjoy my meals again. • The pain in my left ovary subsided. I was scheduled to take methimazole for a year for Graves' disease, but my Bodystation test results were normal only once during a 1.5-hour session, which the doctor said was inexplicable. • I had involuntary movements (my legs would jump up uncontrollably) due to Parkinson's disease, but they disappeared after just one 1-hour session at Bodystation. • People with bone pain experienced relief from their pain. • Reduces swelling in the hands and feet. • Someone who had experienced a stroke once said their head felt much lighter. • Fluid drainage in the semicircular canals of people with Meniere's disease improved. • People who have suffered from rheumatoid arthritis for many years experience pain relief and find it easier to grip things with their hands. With just three 1-hour sessions of Bodystation, the need for an oxygen carrier machine was eliminated. I severely sprained my right ankle, resulting in a card-sized bruise. Although I applied tape two hours later, the pain was so intense that night I couldn't sleep. The next day I was limping, but two days later I could walk normally and even go down stairs without any problems. Furthermore, there was absolutely no swelling. I had been suffering from diabetes for two years, but after just one hour on the BodyStation, my blood sugar level dropped significantly from 252 to 113 the next day, and then to 102 a month later. A person who was paralyzed on their left side due to a stroke recovered to the point where they could travel alone after just six months of using BodyStation under their pillow. I was unable to bend my right middle finger due to rheumatism, but after using BodyStation for an hour, I was able to bend it to a right angle. I had suffered from rheumatism for many years and could only go down stairs one step at a time, but after using BodyStation for the first time for an hour, I was thrilled to be able to go down the stairs continuously. I have had diabetes for 10 years and have been receiving insulin injections and undergoing hemodialysis, but thanks to BodyStation, my blood sugar level dramatically dropped from 650 to 150 in six months. I suffered from early-onset Parkinson's disease and needed medication, but just one hour on the BodyStation stopped my seizures. • Just one hour on the BodyStation relieved the pain in my lower left inner leg, which was affected by shingles. Twelve years ago, as a complication of surgery for varicose veins in my right thigh, I developed pain and swelling from the inside to the outside of my leg, making it look like an elephant's leg. Just one hour on the BodyStation relieved the swelling and pain, and my leg felt lighter. • Just one hour on the BodyStation increased the range of motion in my frozen shoulder. For a person with lumbar spinal stenosis, where all five vertebrae were narrowed, inserting needles next to the spine and applying electrical stimulation to the needles for one hour allowed them to jog, play a round of golf, and feel completely normal the next day. • Diagnosed with Graves' disease based on a blood test for left thyroid enlargement. BodyStation was applied to the left side of the neck, thyroid gland, swelling, and lymphatic congestion. The swelling decreased, and at a follow-up examination at the prefectural hospital two days later, the doctor was surprised, saying, "Huh?" The pain in my right arm, caused by using a chainsaw for farm work, disappeared after an hour of using the BodyStation. Before that, my elbow had been hurting so much at night for about half a month that I couldn't sleep. • My entire right arm was aching from weeding, and I couldn't even bend or straighten my elbow, but now it's pain-free. • Your body will feel lighter. My legs used to be heavy and thick, and my ankles were barely visible, but now they're thin and light. • Stiff neck due to shoulder stiffness. Shoulder stiffness, slight headache in the back of the head. I fall asleep with the BodyStation on my shoulders and back from 1 AM. I wake up in the morning feeling like I can breathe easily. It feels like a lot of air is coming in. My neck and shoulders feel soft and supple. All the pain is gone. Since I started using BodyStation, my personal trainer has been surprised at how well I've been able to release the fascia in my thighs. After just one hour on the BodyStation, I started urinating once a day. For a week, I've been urinating more than three times a day. The swelling and fatigue in my legs have disappeared, and my legs feel lighter. • I had fluid regularly accumulating in my knee, and had it drained at the hospital each time. However, it started accumulating again and causing pain, so I was on a body station on my way to the hospital when the doctor told me the fluid was gone. • The gums have receded due to age, and a surgical procedure will be performed to graft mucous membrane from the upper jaw. I was scheduled for implant surgery, but after using it for a month, my gums returned to their normal position. This is impossible with current medical technology. My knee, which was previously unable to bend due to rheumatoid arthritis and was scheduled for surgery, can now bend 90 degrees. • My serum lipid level (TG) had been consistently 380 for many years (most recent data is from November of last year), but after two weeks of riding, it dropped to 130 on July 8th. My doctor said this is usually impossible. I contracted cellulitis, and my right foot swelled up like an elephant's. The swelling subsided within two weeks, whereas it usually takes more than a month to subside.

[0213] Figure 41 shows the effect of improving the viability of human cultured cells. Peripheral blood mononuclear cells are expected to play an important role in regenerative medicine, but it is difficult to preserve them in an active state for more than 48 hours. Although cryopreservation is sometimes performed using preservation solutions such as DMSO, washing is required before injection. Applying an electric field can extend the preservation period. In some cases, the viability of CD206 was improved by applying radio wave vibrations. The graph in the upper left shows the target value, with a target viability of 14.9% for CD206. In contrast, the viability without electric field application in the upper right was 8.0%, and when an electric field was applied for 30 seconds in the lower left, the viability of CD206 improved to 11.1%. Furthermore, when an electric field was applied for 1 minute in the lower right, the viability of CD206 improved to 13.3%. CD206 is a type of macrophage and plays a significant role in angiogenesis, which is important during tissue regeneration. Regarding (1) in Figure 41, the sample subjected to 1 minute of electromagnetic vibration showed approximately 1.7 times more CD206 cells compared to the untreated sample. Regarding (2) in Figure 41, comparing the pre-adjustment sample, i.e., a fresh sample before storage, with the sample subjected to 1 minute of electromagnetic vibration, the decrease in cell count was limited to 1.6%. Figure 41 confirms that the application of an electric field by the liquid control device of this embodiment has the effect of improving the viability of human cultured cells. This demonstrates that the liquid control device of this embodiment can provide control to improve or enhance the generation of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, or organs; control to improve the storage, freezing, thawing, culturing, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, drugs, cosmetics, or liquids; or improve electrodes or containers used for the storage, freezing, thawing, culturing, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, drugs, cosmetics, or liquids.

[0214] Figure 42 shows the observation results of peripheral blood mononuclear cells. When radio wave vibrations are applied, the cells aggregate on the culture dish. By applying an electric field with the liquid control device of this embodiment, it is possible to control the cells to bead up. As shown in Figure 41, the survival rate of macrophage CD206, which is important for angiogenesis, may increase. Although the effect varied among subjects, a significant effect was confirmed. From Figures 41 and 42, it was demonstrated that by applying an electric field with the liquid control device of this embodiment, cells can be controlled to bead up, thereby enabling the formation of organs and tissues.

[0215] Figure 43 shows sleep improvement example 1, and Figure 44 shows sleep improvement example 2, both demonstrating the improvement in the apnea-hypopnea index. Wearing CPAP (Continuous Positive Airway Pressure) during sleep resulted in a decrease in the number of apneas and AHI (Apnea-Hypopnea Index, the combined number of apneas and hypopneas per hour). However, after discontinuing CPAP use, the number of apneas and AHI increased again. Therefore, instead of CPAP, an electric field was applied from electrodes using the liquid control device of this embodiment, and when the number of apneas and AHI were measured, a decrease in the number of apneas and AHI similar to that observed with CPAP was observed. When the application of an electric field using the liquid control device of this embodiment was started after September 2021 in Figure 43, the number of apneas and AHI decreased significantly. Furthermore, it was observed that using CPAP in addition to applying an electric field from electrodes using the liquid control device of this embodiment suppressed the number of apneas and AHI more than when CPAP was used alone. Figure 44 shows data for another subject from Figure 43, in which the number of apnea episodes and AHI decreased significantly after the application of an electric field using the liquid control device of this embodiment was started in October 2021.

[0216] In this embodiment, the key point for promoting improvement of sleep apnea syndrome is that by applying an electric field from the electrodes using the liquid control device of this embodiment, the water content of the blood in the carotid and venous arteries and spinal arteries and veins is minimized, improving blood flow around the neck, relieving tension in the muscles around the trachea, and returning the cervical vertebrae to their normal position. This prevents the lower jaw from rising too high, suppresses tongue collapse, and alleviates tracheal constriction, resulting in smoother breathing. As a result, apnea symptoms are alleviated. The area where the electrodes of this embodiment are applied is not particularly limited, but for example, it can be 5 centimeters to the left and right of the center of the most protruding part of the Adam's apple.

[0217] The experimental results in Figures 43 and 44 demonstrate that the liquid control device of this embodiment can improve respiration and control respiratory or lung function by applying an electric field from electrodes, and can also control sleep.

[0218] Figure 45 shows an experiment on improving menstrual pain. Figure 45 shows the effect of improving menstrual pain. Fourteen women (ages 25-53) who were taking painkillers for menstrual pain were given the liquid control device shown in Figure 45 of this embodiment, and a questionnaire was administered about changes in their menstrual cycle before and after using the device. The results are shown in Figure 46. As shown in Figure 46, significant improvements were obtained in the frequency of painkiller use, abdominal bloating, lower back pain, swelling, abdominal pain, headache, fatigue, drowsiness, irritability, emotional instability, and constipation / diarrhea by applying an electric field from the electrodes using the liquid control device of this embodiment.

[0219] Conventional methods for relieving pain have included warming the body, bathing, exercise, localized cooling, massage, stretching, relaxation, counseling, acupressure, pelvic care, the use of analgesics and anesthesia, and enduring the pain. However, the liquid control device of this embodiment can control fluid minimization to improve fluid fluidity and fluid metabolism, thereby improving symptoms such as menstruation, PMS, infertility / fertility, menopause, pregnancy, postpartum care, overall women's health, stress, and anxiety. Furthermore, the following evaluations were received from subjects regarding the effect of fluid minimization control by the liquid control device of this embodiment on improving women's physical condition. My daughter's menstrual cramps disappeared. • The pain in my left ovary has subsided. • My monthly ovulation pain has disappeared. • My cold sensitivity might have improved? I was skeptical before trying it, but after applying it to my lower abdomen for an hour every day, the menstrual cramps that I had suffered from for over 20 years completely disappeared. I no longer needed to take painkillers every month, and my period, which used to last 6-7 days, shortened to 4 days. I thought it might have been a fluke after just one use, so I tried it for three months, and the effects lasted. My gloomy mood caused by menstrual cramps improved. My period, which usually lasts 7 days each month, ended in 4 days. My menstrual period went from 5 days to 3 days. • After using it starting two days before my period began, I no longer needed the painkillers I normally take every month. In a test conducted over just a few days, the pain level after using the WOW200 was reduced to about 30% compared to the normal pain level (100%). Previously, my period would linger even after it was almost over, but now it ends abruptly. My makeup seems to be going on better than usual? • My legs and face seem less swollen? I wasn't able to do it every day, but I still felt a significant change. In the first month, it ended after 3 days, then I bled again on the 5th day but it also ended after 3 days. A total of 6 days. In the second month, it came after 20 days. It ended cleanly in 3 days. Usually, I can't take off my sanitary pads for a week, so I was surprised that it ended so cleanly. I had no menstrual cramps (I usually have almost none), and the amount of menstrual blood on the first day was heavier than before, but it was clean. I usually get constipated before my period, but in the second month, I had a normal bowel movement and my period started, which I was grateful for.

[0220] Figure 47 shows the improvement effect of the contrast agent. Using the liquid control device of this embodiment, an electric field was applied to the contrast agent from the electrode for 24 hours. Then, the contrast agent was injected from the mouse cisterna magna, and the degree of contrast agent penetration into the cerebral cortex was confirmed by imaging 30 minutes after injection. As a comparative example, a contrast agent without applied electric field was used. When the average brightness was measured for three mice, the average brightness of the group injected with the contrast agent to which an electric field was applied using the liquid control device of this embodiment was 19.7, while the average brightness of the group injected with the contrast agent without applied electric field was 8.8. This confirmed that applying an electric field to the contrast agent using the liquid control device of this embodiment has the effect of making it easier for the contrast agent to penetrate into the cerebral cortex of mice. The effect of this embodiment is not limited to the cerebral cortex of mice, but is also expected to improve the penetration of contrast agents into other cells, tissues, and organs.

[0221] Figure 48 shows the mold and corrosion prevention effect. It compares photographs of strawberries that were exposed to an electric field for 1 hour from the electrodes of the liquid control device of this embodiment and then stored in a refrigerator for 30 days. The photograph on the right shows the strawberries exposed to the electric field, and it can be seen that the strawberries are fresh, without corrosion or mold growth. On the other hand, the comparative example photograph on the left shows strawberries that were stored in a refrigerator for 30 days without the application of an electric field. In the comparative example, corrosion and mold growth are observed. This shows that applying an electric field with the liquid control device of this embodiment has the effect of preventing corrosion and mold growth.

[0222] Figure 49 shows the effect of preventing fish spoilage. It compares photographs of sea bream that were subjected to an electric field for 1 hour from the electrodes of the liquid control device of this embodiment and then stored in a refrigerator for 5 days. The photograph on the right shows the sea bream with the electric field applied; the flesh is moist, there is no spoilage in the internal organs, and the fish remains fresh. In contrast, the comparative example in the photograph on the left shows a sea bream that was stored in a refrigerator for 5 days without the application of an electric field. In the comparative example, moisture has been lost from the flesh, spoilage has occurred in the internal organs, and the freshness has deteriorated. In the comparative example, the internal organs of the sea bream spoil because bacteria, viruses, and reactive oxygen species combine with free water (hydrogen bonds), allowing the bacteria and viruses to multiply, and the reactive oxygen species then act on them. In contrast, when an electric field is applied using the liquid control device of this embodiment, the free water inside the sea bream is controlled to form a beaded arrangement, becoming bound water. This separates the bacteria, viruses, and reactive oxygen species from the free water, preventing the multiplication of bacteria and viruses and reducing reactive oxygen species. This demonstrates that applying an electric field using the liquid control device of this embodiment has the effect of inhibiting the growth of microorganisms, bacteria, fungi, and viruses, preventing corrosion, and reducing reactive oxygen species.

[0223] Figure 50 shows the freshness preservation effect. The leftmost image in Figure 50 shows sardines that were stored in a refrigerator for 3 days after an electric field was applied for 1 hour using the liquid control device of this embodiment. The second image from the left in Figure 50 shows sea urchins that were stored in a refrigerator for 7 days after an electric field was applied for 1 hour using the liquid control device of this embodiment. The rightmost and second images from the right in Figure 50 show rockfish that were stored in a refrigerator for 7 days after an electric field was applied for 1 hour using the liquid control device of this embodiment. As a comparative example not shown, when compared with samples stored in a refrigerator for the same number of days without an electric field being applied, it was shown that the samples treated with an electric field using the liquid control device of this embodiment retained more freshness, with no spoilage in the internal organs. When an electric field is applied using the liquid control device of this embodiment, the free water inside the tissues and cells is controlled to form a beaded arrangement, becoming bound water. This separates bacteria, viruses, and reactive oxygen species from the free water, preventing the proliferation of bacteria and viruses and reducing reactive oxygen species. This demonstrates that applying an electric field using the liquid control device of this embodiment has the effect of inhibiting the growth of microorganisms, bacteria, fungi, and viruses, preventing corrosion, and reducing reactive oxygen species.

[0224] Figure 51 shows the mold prevention effect on bread. The right side of Figure 51 is a photograph of rye bread that was stored at room temperature for 13 days after an electric field was applied for 1 hour using the liquid control device of this embodiment. No mold has grown on the rye bread in the photograph on the right. In contrast, the comparative example on the left is a photograph of rye bread that was stored at room temperature for the same 13 days without an electric field being applied. Mold has grown on the comparative example. In the comparative example, mold grows on the rye bread because the mold combines with the free water (hydrogen bonds) in the rye bread and proliferates. When an electric field is applied using the liquid control device of this embodiment, the free water in the rye bread is controlled to form a beaded arrangement, becoming bound water, which separates the mold from the free water and prevents mold growth. Thus, it can be seen that applying an electric field using the liquid control device of this embodiment has the effect of suppressing the growth of microorganisms, bacteria, fungi, and viruses, as well as preventing corrosion and reducing reactive oxygen species.

[0225] Experiments in Figures 48 to 51 demonstrated that by applying an electric field with the liquid control device of this embodiment, it is possible to control the growth of microorganisms, bacteria, fungi, or viruses; to improve the storage, freezing, thawing, culturing, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, or liquids; to improve electrodes or containers used for the storage, freezing, thawing, culturing, or logistics of organs, body fluids, blood, cells, tissues, skin, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, or liquids; and to control the removal of reactive oxygen species.

[0226] Figure 52 shows a device for improving blemishes and wrinkles. Figures 53, 54, and 55 are comparative photographs before and after applying an electric field for 20 minutes using the electrodes of the liquid control device of this embodiment. The left side of Figure 52 shows the device used. The center side of Figure 52 shows the electrode arrangement for nasolabial fold care. The right side of Figure 52 shows the electrode arrangement for lifting the outer corners of the eyes. From the comparative photographs in Figures 53, 54, and 55, it can be seen that wrinkles are improved and the outer corners of the eyes are lifted after applying an electric field using the electrodes of the liquid control device of this embodiment. In addition to improving wrinkles, it is also effective in removing blemishes. At the same time, because the liquid control device of this embodiment improves the metabolism of bodily fluids, it is also effective in reducing swelling and improving skin luster through improved blood flow, thus demonstrating a cosmetic improvement effect.

[0227] Figure 56 shows electrode structure example 1, Figure 57 shows electrode structure example 2, Figure 58 shows electrode structure example 3, Figure 59 shows electrode structure example 4, Figure 60 shows electrode structure example 5, Figure 61 shows electrode structure example 6, Figure 62 shows electrode structure example 7, Figure 63 shows electrode structure example 8, and Figure 64 shows electrode structure example 9. In electrode structure example 1 in Figure 56, the upper left is a cylindrical electrode, which is suitable for applying an electric field to a cylindrical liquid container, such as a bottle-shaped container. The upper right is a pair of plate-shaped electrodes, on which a part of the body, such as a foot, can be placed, or on which a person can lie. The lower left is two or four plate-shaped or flexible sheet-shaped electrodes. Plate-shaped electrodes can be placed on or attached to the target area, and a part of the body can be placed on top of the plate-shaped electrodes. The shape of the flexible sheet-shaped electrodes is not particularly limited, but they can be glove-shaped or pad-shaped, so a shape can be selected according to the target area. The lower right shows an example of two plate-shaped electrodes, which can be placed on or attached to the treatment area. The method of fixing the electrodes to the treatment area is not particularly limited and can be fixed with bands, bandages, nets, supports, etc. In the electrode structure example 2 in Figure 57, there are two electrode panels, which are plate-shaped, and the orientation of the electrode panels is arbitrary. For example, they can be used with the electrode surface vertical, horizontal, or tilted at any angle. The electrode panels can also be placed on the treatment area, or the treatment area can be placed on the electrodes. The electrode structure example 3 in Figure 58 shows further examples of use of the electrode panels in Figure 57. In the upper right diagram, the electrode panel can be placed on the head portion of the bed like a pillow, with the electrode surface horizontal, and the head, which is the treatment area, can be placed on top of it. In the lower left diagram, the electrode panel can be placed on the waist, back, legs, etc. portion of the bed, with the electrode surface horizontal, and the waist, back, legs, etc., which are the treatment areas, can be placed on top of it. In the diagram at the bottom center, the electrode panel is laid on the floor so that the electrode surface is horizontal, and the target area, the foot, is placed on top of it so that the sole of the foot is in contact with the electrode surface.In the lower right diagram, one electrode panel is placed on the bed so that its electrode surface is horizontal, following the contours of the back. The target area, the back, is then placed on top of the panel, and another electrode panel is used on the abdominal side, also with its electrode surface horizontal. Thus, the placement and orientation of the electrode panels, and how they are applied to the target area, are arbitrary as long as the electric field generated by the electrode panels can be applied. The number of electrode panels is not limited to two; it can be one, three, four or more. Electrode structure example 4 in Figure 59 shows an example where a sheet-like electrode is placed on a bed. While not particularly limited, the sheet-like electrode is made of a flexible material, and for example, a pair of comb-shaped electrodes can be placed close together so that they interlock with each other's teeth. Therefore, multiple electrodes can be integrated using a single sheet-like electrode. Electrode structure example 5 in Figure 60 shows a sheet-like or plate-shaped electrode placed on the top surface of a treatment bed, therapy bed, or simple bed. Figure 61 shows an example of electrode structure 6 in which a sheet-shaped or plate-shaped electrode is placed in the driver's seat of a car. Applying an electric field to electrodes placed in the seat of a vehicle improves the fluidity and metabolism of bodily fluids, which is effective in preventing economy class syndrome. Figure 62 shows another use example of the electrode panel in Figure 57, in which two electrodes are placed parallel to each other along the back on a bed, and the target area, the back, is placed on top of them. Figure 63 shows an example of electrode structure 8 which is equipped with two adhesive terminals. Since the electrode surface of the adhesive terminal is adhesive, the electrode can be attached to the target area without using a separate band or the like. Figure 64 shows an example of electrode structure 9 which uses a needle-shaped electrode. The electrode is needle-shaped, and by applying voltage to the needle that has been inserted into the target area in the same manner as acupuncture, an electric field is applied from the needle to the target area. Thus, the form of the electrode can be, for example, plate-shaped, rod-shaped, sheet-shaped, needle-shaped, comb-shaped, or a shape in which two or more electrodes are combined with each other.

[0228] Figure 65 illustrates the extraction of green tea. Green tea was extracted for 3 hours while applying an electric field using the electrodes of the liquid control device of this embodiment. The left figure shows the case without electric field application, the center figure shows the case where an electric field was applied for only 1 hour, and the right figure shows the case where an electric field was applied for 3 hours. As is clear from the figures, the highest degree of green tea extraction and the highest concentration were achieved when the electric field was applied for 3 hours, the second highest extraction was achieved when the electric field was applied for only 1 hour, and the lowest extraction was achieved when no electric field was applied. Figure 65 demonstrates that the degree of green tea extraction can be increased by applying an electric field using the liquid control device of this embodiment.

[0229] Figure 66 is a diagram illustrating the extraction of kelp. Kelp was extracted for 3 hours while applying an electric field using the electrodes of the liquid control device of this embodiment. The left figure shows the case without electric field application, and the right figure shows the case with electric field application for 3 hours. As is clear from the figures, the degree of kelp extraction is higher when an electric field is applied for 3 hours, the kelp expands more, and the amount of water absorbed is also greater. Figure 66 demonstrates that the degree of kelp extraction can be increased by applying an electric field using the liquid control device of this embodiment.

[0230] Figure 67 illustrates the extraction of broth. Ramen soup broth was extracted for 4 hours while applying an electric field using the electrodes of the liquid control device of this embodiment. The left figure shows the case without electric field application, and the right figure shows the case with electric field application for 4 hours. As is clear from the figures, the broth extracted for 4 hours was more concentrated and the concentration of the broth was higher. When the concentration of the broth was measured, the broth extracted for 4 hours was 15% more concentrated. Although Figure 67 uses a pork bone-based broth, the type of broth is not particularly limited; the fluid control device of this embodiment can be used to enhance the extraction of any broth, whether seafood-based or vegetable-based. Figure 67 demonstrates that the extraction of broth can be enhanced by applying an electric field using the liquid control device of this embodiment.

[0231] Figure 68 is a diagram illustrating the maturation of noodles. In this embodiment, noodles were matured for two days while an electric field was applied using the electrodes of the liquid control device, and ramen was cooked. The water absorption, texture, and taste of the noodles were then examined. The left figure shows noodles matured for two days while an electric field was applied, the center figure shows noodles cooked using water to which an electric field was applied for one hour, and the right figure shows noodles without an electric field. Amylase contained in wheat flour is an enzyme that breaks down starch, and protease is an enzyme that breaks down proteins. These enzymes are activated by moisture and an appropriate temperature, resulting in the formation of gluten, which gives the noodles firmness and improves taste such as sweetness and umami. In addition, ramen noodles require an appropriate amount of water absorption, so if the maturation is insufficient, they will absorb a large amount of water, quickly become soggy, and the texture and taste will be compromised. The noodles that were most appropriately aged and least prone to stretching were those aged for two days with an electric field applied, as shown in the left diagram. Not only were the noodles less prone to stretching, but their water absorption was also just right, resulting in the best texture and taste. Although aging is usually required for 5 to 7 days, even with an aging period of only two days, the application of an electric field using the liquid control device of this embodiment allowed for the achievement of an appropriate degree of aging. The second most appropriately aged and least prone to stretching were the noodles cooked using water to which an electric field had been applied for one hour, as shown in the center diagram. Although the degree of aging was insufficient due to the two-day aging period, compared to the noodles without an electric field applied, the degree of expansion of the noodles in the right diagram shows that stretching was suppressed. Furthermore, considering that the noodles were aged for two days, it can be seen that using water treated with an electric field by the liquid control device of this embodiment contributed to improving the quality of the noodles. When ramen noodles are matured while an electric field is applied using the electrodes of the liquid control device of this embodiment, the surface tension of the water contained in the ramen noodles decreases, causing the water to become micronized and activating enzymes, thereby promoting maturation such as gluten formation.

[0232] Experiments in Figures 65 to 68 demonstrate that applying an electric field using the electrodes of the liquid control device of this embodiment can enhance the degree of extraction and maturation. This indicates that applying an electric field with the liquid control device of this embodiment can improve or enhance the extraction of bodily fluids, pharmaceuticals, cosmetics, or liquids, and can also improve or enhance the efficacy or quality of pharmaceuticals, cosmetics, or liquids. Furthermore, by improving emulsion properties and atomizing and arranging the liquid into microparticles, it has been shown that applying an electric field using the electrodes of the liquid control device of this embodiment can improve or enhance the generation of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, or organs.

[0233] Figures 69 to 72 show the measurement results of water wave energy. Not only living organisms, but all substances possess a weak energy that contributes to the health of living organisms. Water also possesses wave energy that contributes to human health, and by measuring the wave energy of water as a relative value of its contribution to the human body (wave energy measurement value), it is possible to understand the state of human health and the quality of water. The wave energy of water is quantified relatively as its contribution to human health, depending on the state of the water, the energy state of the water, and the quality of the water. The larger the positive value, the greater the wave energy, and the higher the total score, the higher the quality of the water. Negative values ​​are undesirable as they may be detrimental to human health. Each score quantifies the effect on the human body when the water is ingested, and is quantified using relative positive or negative values ​​for each item: overall, kidney, liver, intestines, immune function, allergies, blood circulation, and hormone balance. In Figures 69 to 72, the upper tables show the wave measurement values ​​for each time interval when an electric field is applied to water by the electrodes of the liquid control device of the present invention, while the lower tables show the wave measurement values ​​for each elapsed time interval after the electric field has been applied to water for 24 hours by the electrodes of the liquid control device of the present invention and then turned off. The retention rate is also shown, with the total score at the 24-hour electric field application point set to 100%. The measurement results in Figures 69 to 72 demonstrate that the liquid control device of this embodiment can improve the wave energy of a liquid by applying an electric field from the electrodes, that is, it can control the liquid to increase its contribution to human health. The liquid control device of this embodiment can improve the quality of not only drinking liquids but also bodily fluids present in cells, organs, and tissues in the body by applying an electric field from the electrodes. Therefore, in addition to improving bodily fluid fluid fluidity, improving bodily fluid metabolism, and stabilizing the water balance as described above, it also contributes to improving the quality of the bodily fluids themselves. Furthermore, since the liquid control device of this embodiment controls the water to enhance its wave energy, it has been shown that it can also control energy present in nature, including water waves, such as ectoplasm.

[0234] The embodiments described above are not limiting to the present invention, and are equally applicable to other embodiments included in the claims. Furthermore, each embodiment can be modified or combined as appropriate.

[0235] In the explanation of the principle of interfacial tension reduction control in Embodiment 1, the interfacial tension between the aqueous phase and the oil phase was described. However, the interfacial tension in this embodiment is not limited to the interfacial tension between the aqueous phase and the oil phase, but also includes the interfacial tension between any two phases including a liquid, the interfacial tension between two types of liquids, the interfacial tension between a liquid and a solid, the interfacial tension between a liquid and a gas, and so on. The liquid control device of this embodiment can control any interfacial tension.

[0236] In Figure 13, the configuration shown as the housing 50 does not specify the shape of a box, but rather refers to any device. Therefore, it includes not only refrigerators and storage containers, but also a variety of equipment and devices that utilize the electrodes of the liquid control device of this embodiment, such as treatment tables, procedure tables, simple beds, electromagnetic therapy devices, electrotherapy devices, low-frequency therapy devices, EMS devices, massage devices, facial beauty devices, vibration devices, cavitation devices, microbubble devices, micro-nanobubble devices, nanobubble devices, fine valve devices, terahertz devices, high-frequency devices, quantum therapy devices, hair growth devices, cellulite devices, muscle relaxation devices, ultrasound therapy devices, ozone generators, hydrogen generators, LED devices, beauty devices, slimming devices, or equipment, devices, or facilities that include storage containers, etc.

[0237] In each experimental and measurement example of the above embodiment, the voltage and frequency applied to the electrodes were set to 100V and 50KHz respectively for easier comparison. However, this is merely an example of target values ​​for the liquid control device in this embodiment and does not limit the target values ​​of this embodiment. For example, within the voltage range of 0 to 7000V and the frequency range of 0 to 100THz as described in this embodiment, the cloud server (management server 40) and controller 10 can appropriately set the parameters using various calculations such as machine learning, pre-stored control parameters, and pre-input or set control parameters, as described in Embodiment 1. While there are diverse control targets and controlled objects, the optimal control parameters vary. However, using the procedure shown in Embodiment 1, appropriate control parameters can be set according to the object, target part, type and state of the object and target part, liquid control target, electrode configuration, etc. Although not particularly limited, for example, for the control of electroencephalograms, nerves, and sleep, a frequency band of 1Hz to 50Hz may be used, while terahertz devices use frequencies in the terahertz range. Regarding the voltage range, for safety reasons, the voltage range has been described as 7000V or less. However, if safety measures such as insulation can be implemented, extra-high voltage exceeding 7000V may be adopted as the target value. However, as shown in the experimental example, the liquid control device of this embodiment exhibits sufficient performance even in the voltage and frequency range of approximately 50KHz and 100V. Therefore, it is also possible to implement it in the low-voltage range of the power classification, i.e., AC 600V or less and DC 750V or less. [Explanation of symbols]

[0238] 1. Liquid control device 10 Controllers 11 Current and voltage application section 13~29 electrode 30 Reactive Oxygen Species 31. Human-Machine Interface (PC) 32 Substance detection sensors 33 Current-Voltage Control Unit 35 Communications Department 36 Control Unit 37 Memory section 38 Detection unit 40 Management Server 41 Connector 43 Databases 45 Communication Networks 50 cabinets

Claims

1. At least one electrode, A controller that controls at least one of the voltage value and frequency of a voltage applied to the electrode, which includes at least one DC component and at least one AC component. A control device that includes and controls the state of vibration corresponding to the state of matter, The control device has a detection unit that detects an electrically detected value corresponding to the vibration state corresponding to the state of the material, The electrically detected value corresponding to the vibration state includes at least one of the following electric quantities: voltage value, voltage frequency, current value, and current frequency. The control device controls, based on the electrically detected value, at least one of the voltage value and frequency of the voltage applied from the electrodes so that the vibration state corresponding to the state of the material is an appropriate value according to the type of material. The electrode is (a) The electrode is a detection unit, (b) The electrode is in contact with the substance, and (c) The electrode applies electromagnetic waves to space and generates a spatial potential, It is at least one of the following: (1) The controller includes a learning model for determining the controller's control parameters, which takes detection data, including an electrically detected value corresponding to the vibration state corresponding to the state of the substance detected by the detection unit, as input, and the learning model is trained by machine learning using at least the detection data of the detection unit, and the control parameters are calculated by inputting the detection data into the trained learning model. And, (2) The detection unit sends detection data including an electrical detection value corresponding to the vibration state corresponding to the state of the substance detected by the detection unit to the controller and at least one of the clouds that communicate with the controller. At least one of the controller and the cloud includes a storage device, the storage device stores control parameter calculation information including at least the voltage value, frequency, and application time of a target voltage corresponding to an electrically detected value corresponding to an electrical detection, the control parameter of the controller is calculated using the control parameter calculation information. A control device characterized by controlling at least one of the voltage value and frequency of the voltage applied to the electrode based on the control parameter set by at least one of the following, applying at least one of the electromagnetic field, electromagnetic wave, sound wave, and ultrasonic wave corresponding to the voltage from the electrode to the substance, and controlling the substance so that the vibration state corresponding to the state of the substance becomes an appropriate value.

2. At least one electrode, A controller that controls at least one of the voltage value and frequency of a voltage applied to the electrode, which includes at least one DC component and at least one AC component. A control device that includes and controls the state of vibration corresponding to the state of matter, The control device controls at least one of the voltage value and frequency of the voltage applied from the electrodes so that the vibration state corresponding to the state of the material is at an appropriate value according to the type of material, based on control parameters corresponding to an appropriate value of at least one of the electrically detected values, which are the voltage value, voltage frequency, current value, and current frequency, which are electrically detected values ​​corresponding to the vibration state corresponding to the state of the material. The electrode is (a2) The electrode is facing the substance, (b2) The electrode is in contact with the substance, and (c2) The electrode applies electromagnetic waves to space and generates a spatial potential, It is at least one of the following: The control parameters corresponding to the appropriate values ​​of the vibration state corresponding to the state of the substance are set based on information about the substance, including at least one of temperature, humidity, atmospheric pressure, body temperature, blood pressure, pulse rate, age, DNA, and blood glucose level, and time information, including at least the time the voltage is applied to the electrodes. The controller controls at least one of the voltage value, frequency, and voltage application time of the voltage applied to the electrodes based on the set control parameters. A control device characterized by applying at least one of an electromagnetic field, electromagnetic wave, sound wave, and ultrasonic wave corresponding to the voltage to the substance from the electrode, and controlling the substance so that the vibration state corresponding to the state of the substance becomes an appropriate value.

3. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. Control of blood flow velocity in blood vessels, Controlling edema by minimizing the amount of fluid inside the edema. Vascular improvement control by minimizing blood flow in blood vessels or ghost vessels, and Minimizing at least one of the interstitial fluid, lymphatic fluid, and body fluids to improve and control at least one of the endocrine, metabolic, hormonal, lymphatic, meridian, mitochondrial, and autophagy functions. The control device according to claim 1 or 2, characterized by controlling at least one of the following.

4. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. To control the disruption of ion balance across the cell membrane, thereby improving or preventing at least one of edema, cellular edema, and neuronal edema. To control the balance of at least one of the hormones, endocrine system, lymphatic system, and meridians, Controlling at least one of mitochondrial activity, autophagy activity, oocyte activity, and sperm activity. The control device according to claim 1 or 2, characterized by controlling at least one of the following.

5. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. To improve or prevent clogging in body fluids, medicinal solutions, cosmetics, and other liquids. Controlling the fluidity of bodily fluids, medicinal solutions, cosmetics, and at least one other liquid to improve or enhance it. Controlling or preventing at least one of induration and hardening, Controlling the process to improve or prevent syneresis (water separation) of cells or tissues. Controlling the removal of reactive oxygen species and at least one of lactic acid. To control or improve muscle imbalances, To improve or enhance at least one of the following: body balance, fascial balance, occlusion, osteopathy, and bodywork. To control or improve fractures or joint diseases, Controlling at least one of the heart rate and pulse rate, To improve or normalize blood pressure through control. Controlling respiratory or lung function to improve or enhance it. To improve or enhance dialysis function through control, Controlling or improving visual acuity or dynamic visual acuity. To control or improve ophthalmic diseases, To control or improve internal medicine diseases, To improve or enhance immune function through control, To control at least one of the drug delivery system and the permeability of cosmetics, Controlling the efficacy or quality of at least one aspect of a drug, cosmetic, or liquid. To improve or enhance the extraction of bodily fluids, drugs, cosmetics, and at least one liquid, and, Controlling the vibrational state corresponding to the state of the material, and at least one of the ectoplasm. The control device according to claim 1 or 2, characterized by controlling at least one of the following.

6. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. To control the growth of at least one of the microorganisms, bacteria, fungi, and viruses. To control or improve at least one of burns, necrosis, and pressure ulcers. To control the metastasis, To improve or prevent at least one of dementia, Alzheimer's disease, and Parkinson's disease. To control at least one of the following: improved sleep, improved beauty, PMS, menstrual cramps, pain, itching, health promotion, improved motor function, and anti-aging. To improve or enhance the production of at least one of the following: teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, and organs. To improve control over at least one of the preservation, freezing, thawing, culture, and logistics of at least one of organs, bodily fluids, blood, cells, tissues, skin, hair, cadavers, DNA, stem cells, sperm, eggs, drugs, cosmetics, and liquids, and To improve the control of electrodes or containers used for at least one of the storage, freezing, thawing, culturing, and logistics of organs, bodily fluids, blood, cells, tissues, skin, hair, cadavers, DNA, stem cells, sperm, eggs, drugs, cosmetics, and liquids. The control device according to claim 1 or 2, characterized by controlling at least one of the following.

7. The control device according to claim 1 or 2, characterized in that at least one of the voltage value and frequency of the voltage fluctuates smoothly or in a step-like manner over time within a predetermined range.

8. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. Controlling at least one of the beaded arrangement, arrangement direction, water bonding, and water activity of water molecules in the substance. Controlling at least one of the interfacial polarization, interfacial tension, and emulsion state between the aqueous phase and other phases in the substance, To control the state of reactive oxygen species in the aforementioned substance, The control device according to claim 1 or 2, characterized by controlling any one of the following.

9. The control device according to claim 1 or 2, characterized in that, after generating at least one of an electromagnetic field, electromagnetic wave, sound wave, and ultrasonic wave from the electrode for a predetermined time, the control effect is maintained for a predetermined time even after at least one of the electromagnetic field, electromagnetic wave, sound wave, and ultrasonic wave is released.

10. The control device according to claim 1 or 2, characterized in that the voltage applied to the electrode includes the AC component in addition to the DC component.

11. The control device according to claim 1 or 2, characterized in that the electrode is in the shape of a plate, rod, sheet, needle, or comb, or a shape obtained by combining two or more of the above shapes.

12. Old claim 10 The control device according to claim 1 or 2, characterized in that the controller is managed by at least one of a cloud, a server, and a network.

13. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. Infarction, necrosis, pressure ulcers, burns, removal of reactive oxygen species, removal of lactic acid, improvement of blood flow, improvement of lymphatic fluid flow, cerebral infarction, myocardial infarction, thrombosis, embolism, arteriosclerosis, improvement or prevention of clogging of at least one body fluid, drug solution, cosmetic, and liquid, improvement of the fluidity of at least one body fluid, drug solution, cosmetic, and liquid, improvement or prevention of at least one induration and hardening, improvement or prevention of syneresis of cells or tissues, cellular edema, nerve cell edema, edema, pulmonary edema, joint edema, ascites, insulin secretion disorder, excretory disorder, difficulty excreting, constipation, urinary disorder, stasis, blisters, At least one of the following: improved drug delivery, reduced viscosity of drug solutions or body fluids, cell culture, regenerative medicine, shortened culture time in regenerative medicine, improved culture quality, and improved culture efficiency; cell tissue regeneration, lactic acid reduction, swelling, enlargement, edema, fluid retention, dehydration of extracellular or intracellular fluid, skin diseases, pigmentation disorders, melasma, freckles, epidermal wrinkles, dermal wrinkles, expression lines, xerosis, improved physical condition, induration, muscle induration, myofascial release, improved myofascial potential, neurodegenerative diseases, myofascial electromagnetic therapy, muscle imbalance, improved myofascial potential balance, improved body balance, fascia Improved balance, improved occlusion, improved osteopathy, improved body alignment, improvement or prevention of fractures or joint diseases, improvement of balance of at least one of the endocrine, lymphatic, and meridian systems, fractures, joint diseases, skin care, moisturizing, improved fertility, infertility, improved sperm motility, sperm activity, egg activity, mitochondrial activity, autophagy activity, PMS, pain, itching, paresthesia, cold sensitivity, frigidity, spasms, anti-aging, hair follicle care, improved menopausal symptoms, improved cleansing, alopecia, AGA, ED, promotion of fat breakdown, improved contact lens comfort, dry eyes, vision Improvement, improved dynamic visual acuity, sleep disorders, improved sleep, sleep apnea syndrome, improved preventive medicine, improved nerve cells, improved cellular edema, countermeasures against at least one virus, bacteria, and fungus, cancer, glaucoma, cataracts, age-related macular degeneration, ophthalmic diseases, hearing loss, hearing impairment, visual impairment, dementia, Alzheimer's disease, Parkinson's disease, improved sleep, improved beauty, health promotion, improved motor function, fluid balance, gastrointestinal diseases, respiratory diseases, cardiovascular diseases, neurological diseases, hematological diseases, nephrological diseases, endocrine diseases, internal medicine diseases, improved or normalized blood pressure, pulse,The control device according to claim 1 or 2, characterized in that it controls the device to have at least one efficacy among treatments for improving or enhancing at least one of the following: improvement or enhancement of heart rate, improvement or enhancement of respiratory or pulmonary function, improvement or enhancement of dialysis function, osteopathic treatment, improvement of rigor mortis, and improvement of rehabilitation medicine.

14. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. Improvement of at least one method of preservation, freezing, thawing, culturing, and logistics of organs, body fluids, blood, cells, tissues, skin, teeth, bones, joints, hair, corpses, DNA, stem cells, sperm, eggs, pharmaceuticals, cosmetics, and liquids; improvement of electrodes or containers used for at least one method of preservation, freezing, thawing, culturing, and logistics of The control device according to claim 1 or 2, characterized in that it controls the device to have at least one of the following effects: improvement or enhancement of extraction of at least one substance; improvement or enhancement of the production of at least one of teeth, bones, joints, blood vessels, lymphatic vessels, nerves, cells, skin, hair, and organs; improvement or enhancement of emulsion properties; improvement or enhancement of drug delivery properties; improvement or enhancement of the efficacy or performance of a drug; prevention or control of the growth of at least one of microorganisms, bacteria, fungi, and viruses; prevention of transfer; reduction of the viscosity of a drug solution; control of the state of vibration corresponding to the state of the substance; and control of ectoplasm.

15. Based on control parameters corresponding to appropriate values ​​of at least one of the electrical detected values, such as voltage value, voltage frequency, current value, and current frequency, which are electrical detected values ​​corresponding to the vibration state corresponding to the state of the material, the voltage value and at least one of the voltage values ​​and frequency of the voltage applied to the electrode are controlled. A control device according to claim 1 or 2, characterized by controlling the performance of at least one of the following devices: electromagnetic therapy devices, electrotherapy devices, low-frequency therapy devices, EMS devices, massage devices, facial beauty devices, vibration devices, cavitation devices, microbubble devices, micro-nanobubble devices, nanobubble devices, fine valve devices, terahertz devices, high-frequency devices, quantum therapy devices, hair growth devices, cellulite devices, muscle relaxation devices, ultrasonic therapy devices, treatment machinery and devices, artificial intelligence machinery and devices, ozone generators, hydrogen generators, LED devices, beauty devices, and slimming devices.

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