Device for energizing cells in respective body regions

Abstract

The present invention relates to a device for energizing cells in respective body regions and, more specifically, to a device for energizing cells in respective body regions, which measures the decibel scale of friction when a high-voltage microcurrent is applied to an affected area, so as determine whether treatment is necessary according to a result value, and can energize and regenerate cells if treatment is required. To this end, the present invention comprises: a main body for generating a high-voltage microcurrent; a touch screen, which is formed on the upper end of the main body, and through which an output voltage, an output time and the like are set and the overall operations are controlled and managed; and a handpiece, which outputs a potential generated by the main body while being electrically connected to the main body, so as to find and treat pain trigger points when the current is applied to the affected area.

Description

Cell charging device for each body part

[0001] The present invention relates to a body part-specific cell charging device, and more specifically, to a body part-specific cell charging device that measures the decibel level of friction when a high-voltage microcurrent is applied to the affected area, determines whether treatment is necessary or unnecessary based on the result, and, if treatment is necessary, charges and regenerates cells.

[0002] The human body is generally composed of 70 trillion cells. Cellular electrophysiology requires energy for cells to survive, and 50-60% of cellular metabolic energy is used to maintain the cell membrane's electrical potential through the exchange of mineral ions. In other words, all cell tissues in the human body can be considered to be like batteries from an electrophysiological perspective. Electrobiologically, normal cells maintain a resting membrane potential of around -70 mV due to the ion pumping action of sodium and potassium. This 70 mV difference between the outside and inside of the cell means that the inside of the cell is 70 mV lower electrically. The membrane potential of normal cells is maintained at -70 to -100 mV, while the resting membrane potential of cardiac muscle cells is maintained at -90 to -100 mV. Because they have sufficient electrical capacity, cancer cells do not develop in the heart.

[0003] However, when cells become sick, not enough electrical energy is generated, so the resting membrane potential drops to -30 to -50 mV, cell activity decreases, pain begins to be felt, and capillary circulation decreases. If the membrane potential is left in a low state of -30 to -40 mV for a long time, the cells cannot function normally, chronic fatigue occurs, and it progresses to chronic disease. In other words, when electricity is discharged, the muscles and tissues of our body cannot function smoothly, cells change into different shapes, red blood cells clump together to form blood clots (Rouleaux phenomenon), circulatory disorders occur, and pain, numbness, and tingling appear.

[0004] When the membrane potential drops to -15 to -20 mV, cells die. Cancer cells and necrotic tissues become almost devoid of electrical energy.

[0005] When the potential drops, microcirculation is impaired, causing lymphatic sludge to accumulate inside and outside the cell, impairing cell function. Because lymphatic sludge acts as an electrophysiological insulator, discharging cells can cause them to lose their natural functions and lead to disease.

[0006] Therefore, various symptoms can appear depending on the function of the approximately 256 types of cells in the human body due to decreased cell function, such as acute pain, back pain, fibromyalgia, joint pain, chronic pain such as plantar fasciitis, chronic fatigue, muscle cramps, headache, nausea, insomnia, depression, dizziness, nerve paralysis, paresthesia, skin trouble, accelerated skin aging, cognitive impairment, and behavioral disorders in children.

[0007] For this purpose, technology to measure cell potential is widely used, but there was a problem in that it could not effectively measure potential because the potential measurement technology had limitations.

[0008] The purpose of the present invention is to provide a body part specific cell charging device that can indicate the potential state of cells by applying a high voltage microcurrent to the affected area, measuring the friction decibel level (sound level) during application of the current, and indicating the potential state of cells based on the result.

[0009] Another object of the present invention is to provide a cell charging device for each body part that can determine whether treatment is necessary or unnecessary based on the decibel level of friction during application of electricity, and, if treatment is necessary, can charge and regenerate cells.

[0010] The present invention is a means for achieving the above-mentioned purpose, comprising: a main body generating a high-voltage microcurrent; a touch screen formed on the upper part of the main body and controlling and managing the overall operation by setting the output voltage and output time; and a handpiece that outputs the potential generated from the main body while being electrically connected to the main body and searches for and treats pain trigger points when current is applied to the affected area.

[0011] The touch screen has a status display window, time display window, operating time display bar, setting time display, output voltage setting, AUTO mode ON / OFF, START / STOP button, current graph, and current High, Low display.

[0012] A current-carrying electrode is connected to the front of the handpiece, and when this current-carrying electrode is connected to the patient's affected area, the handpiece measures the friction decibel level and determines whether treatment is necessary or unnecessary based on the result.

[0013] The electrodes are divided into large, medium, and small and are replaced according to the area of ​​the patient's body skin. They are replaced on the front of the handpiece.

[0014] The friction decibel size formed on the front of the handpiece is converted into a percentage when the current is passed through the affected area, and if the friction decibel size is 10% or less, treatment is judged unnecessary, and if it is 10% or more, treatment is judged necessary.

[0015] The main body is connected to a foot switch, and the basic feature of the technical configuration is that when the AUTO mode on the touch screen of the main body is OFF, the output is generated only when the foot switch is pressed, and when the AUTO mode is ON, the output is automatically generated when the current-carrying electrode is brought into contact with the affected area, and when the contact is released, the output is stopped.

[0016] As described above, according to the present invention, when a high-voltage microcurrent is applied to the affected area after the current-conducting electrode is brought into contact with the affected area, the friction decibel size is measured, and the potential state of the cell can be indicated based on the result.

[0017] In addition, since it is possible to determine whether treatment is necessary or unnecessary based on the decibel level of friction during application, it has the effect of being able to charge and regenerate cells if treatment is necessary.

[0018] Figure 1 is a configuration diagram of a body part-specific cell charging device according to the present invention.

[0019] Figure 2 is an operation diagram of a body part-specific cell charging device according to the present invention.

[0020] Figure 3 is a configuration diagram of a touch screen according to the present invention.

[0021] Figure 4 is a diagram showing the configuration of large, medium, and small electrodes that are interchangeably used on the front of the handpiece according to the present invention.

[0022] Figure 5 is a flow chart of a body part-specific cell charging device according to the present invention.

[0023] Figure 6 is a cell charging diagram using a cell charging device according to the present invention.

[0024] The present invention is susceptible to various modifications and embodiments, and thus specific embodiments will be described in detail in the detailed description. This is not intended to limit the present invention to specific embodiments, but rather to encompass all modifications, equivalents, and alternatives falling within the spirit and technical scope of the present invention. In describing the present invention, detailed descriptions of related known technologies will be omitted if they are deemed to obscure the gist of the present invention.

[0025]

[0026] FIG. 1 is a perspective view of a body part-specific cell charging device according to the present invention, FIG. 2 is an operation system diagram of a body part-specific cell charging device according to the present invention, FIG. 3 is a configuration diagram of a touch screen according to the present invention, FIG. 4 is a configuration diagram showing large, medium, and small current electrodes that are interchangeably used on the front of a handpiece according to the present invention, FIG. 5 is a flow chart of a body part-specific cell charging device according to the present invention, and FIG. 6 is a cell charging diagram using a cell charging device according to the present invention.

[0027] Before describing the present invention in detail, cells experiencing pain generally have a reduced electrical potential. This means that they are in a state of near-zero electrical energy, which leads to decreased microcirculation, lymphatic sludge accumulating inside and outside the cell, and impaired cell function. Furthermore, this lymphatic sludge acts as an electrophysiological insulator, causing cells to discharge, losing their inherent functions and becoming diseased.

[0028] Therefore, in the present invention, it is required to accurately detect pain trigger points by measuring the friction decibel size using electrotraction and electrofriction phenomena that occur only when high-voltage microcurrent is applied to the human body, and to simultaneously perform pain treatment when treatment is necessary.

[0029] That is, when the high-voltage microcurrent according to the present invention is applied to the human body, the cells that experience pain are in a state of low potential, so they attract the potential generated in the body, increasing the coefficient of friction and generating a sound (squeaking sound). In the case of normal cells, the electric potential is zero, so the electric friction phenomenon is not induced and thus no friction sound is generated.

[0030] Accordingly, the present invention aims to provide a principle in which, by applying a high-voltage alternating current to a cell, ion channels are activated through an ionization phenomenon centered on the cell membrane, and as lymph sludge is decomposed into ions, a rearrangement of cations and anions occurs, allowing electricity to flow normally again, and the difference in cell membrane potential increases, thereby charging the cell.

[0031] Friction decibel magnitude can be classified by converting it to a percentage and specifying it as, for example, 0-100%, and specifying it as a normal cell if it is 10% or less, a cell that is expected to be sick if it is 10% or more and 20% or less, a sick cell if it is 30-50%, and a severely sick cell if it is 50% or more.

[0032] Here, the pain trigger point is defined as the point where the friction decibel is 30% or more, which is the loudest sound, when scanning the skin area while narrowing the area of ​​the skin while applying current to the affected area with the electric electrode (310).

[0033] Referring to FIGS. 1 and 2 of the present invention, the device includes a main body (100) that generates a high-voltage microcurrent, a touch screen (200) formed on the upper part of the main body (100) and configured to set an output voltage and an output time, etc., and control and manage the overall operation, and a handpiece (300) that outputs an electric potential generated in the main body (100) while being electrically connected to the main body (100) to search for and treat pain-inducing points when current is applied to the affected area.

[0034] Additionally, a separate foot switch (400) is connected and used in the main body (100).

[0035] The foot switch (400) is configured so that output is generated only when the foot switch (400) is pressed when the AUTO mode is OFF on the touch screen (200) of the main body (100), and output is automatically generated when the current electrode (310) is contacted with the affected area when the AUTO mode is ON, and output is stopped when the contact is released.

[0036] Referring to FIG. 3, the touch screen (200) includes a status display window (210), a time display window (220), an operating time display bar (230), a set time display (240), an output voltage setting (250), an AUTO mode ON / OFF (260), a START / STOP button (270), a current graph (280), a current High, Low display (290), etc.

[0037] The configuration of the touch screen (200) is described in more detail as follows.

[0038] Status display window (210): Displays the current status, such as PLEASE SET PARAMETER, STANDBY, READY, RUN, and warning display.

[0039] Time display window (220): When touched, a number pad appears, allowing you to set the single operation time from 1 to 99 minutes. When it reaches 0, output is cut off.

[0040] Operating time display bar (230): The gauge fills with color according to the accumulated operating time.

[0041] Setting time display (240): Displays the set operating time.

[0042] Output voltage setting (250): This button sets the output voltage. LOW is set to 2000 Vrms, MlD is set to 2500 Vrms, and HIGH is set to 3000 Vrms.

[0043] AUTO mode ON / OFF (260): Turns AUTO mode ON or OFF.

[0044] START / STOP button (270): When the START button is pressed, the status changes from “STANDBY” to “READY” and the output method changes depending on manual or AUTO mode.

[0045] - Manual mode (AUTO mode OFF): Output occurs only when the foot switch is pressed.

[0046] - AUTO mode: When the current electrode (310) of the handpiece (300) comes into contact with the affected area, output is automatically generated, and when the contact is released, output is automatically stopped.

[0047] Current graph (280): Displays the output current in real time.

[0048] Current High, Low Display (290): If the current applied to the affected area is high, the phrase "Current too high!" is displayed, and if the current is low, the phrase "Current too low!" is displayed. At this time, the output is stopped, a warning sign appears on the status display window, and touching it returns it to the "READY" state.

[0049] Referring to FIG. 4, a current-carrying electrode (310) is connected to the front of the handpiece (300), and when this current-carrying electrode (310) is connected to the patient's affected area, the handpiece (300) is configured to measure the friction decibel level and determine whether treatment is necessary or unnecessary based on the result.

[0050] The above-mentioned conducting electrode (310) is divided into large, medium, and small. Accordingly, the conducting electrode (310) of large, medium, and small is used interchangeably according to the area of ​​each part that comes into contact with the affected area. The above-mentioned conducting electrode (310) is replaced on the front of the handpiece (300).

[0051] Meanwhile, the electric current electrode (310) formed on the front of the handpiece (300) determines the friction decibel size to be 10, 20, and 30 when the electric current is applied to the affected area, and if the friction decibel size is 10 or less, treatment is determined to be unnecessary, and if it is 10 or more, treatment is determined to be necessary.

[0052] The sound transmission method (friction decibel size) through the handpiece (300) uses a known wireless Bluetooth device, and the auditory diagnosis method can be diagnosed through a sound transmitter, sound receiver, amplifier, and speaker.

[0053] Visual diagnostic methods can include hardware configurations such as received sound and LED db level meters.

[0054] Therefore, according to the present invention, the cell charging level can be indirectly known by expressing the electric friction phenomenon as sound, and by expressing it as light, quantitative analysis is possible through LED SOUND monitoring, so that audiovisual diagnosis using sound and light is possible.

[0055] Referring to Figure 5, when measuring the Friction decibel during the application of electric current, if the decibel level is 30% or higher, treatment is deemed necessary and this is visually or audibly communicated to the practitioner. The practitioner then regenerates the cells by charging the cells that are expected to be in pain and the sick cells.

[0056] As shown in Fig. 6, when the current electrode (310) of the handpiece (300) is applied to the affected area, the lymphatic debris is broken down and the cells are filled.

[0057] If the decibel level is less than 10%, treatment is considered unnecessary or treatment is complete.

[0058] The above description is merely an illustrative description of the technical idea of ​​the present invention, and those skilled in the art will appreciate that various modifications and variations can be made without departing from the essential characteristics of the present invention. Therefore, the embodiments and drawings disclosed in the present invention are not intended to limit the technical idea of ​​the present invention, but rather to explain it, and the scope of the technical idea of ​​the present invention is not limited by these embodiments and drawings. The protection scope of the present invention should be interpreted by the following claims, and all technical ideas within a scope equivalent thereto should be interpreted as being included in the scope of the rights of the present invention.

Claims

1. Main body that generates high voltage microcurrent; A touch screen formed on the top of the main body that sets the output voltage and output time, and controls and manages the overall operation; Including a handpiece that outputs the potential generated from the main body while being electrically connected to the main body and searches for and treats pain trigger points when the body is energized. The above touch screen further includes a status display window, a time display window, an operating time display bar, a set time display, an output voltage setting, an AUTO mode ON / OFF, a START / STOP button, a current graph, and a current High, Low display. When the AUTO mode is ON on the above touch screen, when the current electrode is touched to the affected area, an output is automatically generated, and when the contact is released, the output is stopped. A current-carrying electrode is connected to the front of the handpiece, and when this current-carrying electrode is connected to the patient's affected area, the handpiece measures the friction decibel level and determines whether treatment is necessary or unnecessary based on the result. The friction decibel size is converted to a percentage and designated as 0~100%, and if it is 10% or less, it is designated as a normal cell, if it is 10% or more and 20% or less, it is designated as a cell that is expected to be sick, if it is 30~50%, it is designated as a sick cell, and if it is 50% or more, it is designated as a severely sick cell, and if it is 30% or more, it is determined that treatment is required. A body part-specific cell charging device in which a foot switch is connected and used on the above main body, and the foot switch generates output only when the foot switch is pressed when the AUTO mode on the touch screen of the main body is OFF.

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