Wave superposition type microcurrent biological application device

Abstract

The present invention superimposes a low-frequency standard wave microcurrent and a high-frequency main wave microcurrent in a set mode, or additionally superimposes multiple superimposed wave microcurrents with dispersed frequencies successively larger than the main wave microcurrent, and applies them to a biological body to activate various physiological functions through biological body stimulation; a multifunctional portable housing capable of selecting AC and DC electric stimulation is additionally provided for being worn on the human wrist, which can apply electrical stimulation to the user's body or disease / health condition, has multiple uses and can increase scalability.

Description

Technical Field

[0001] The present invention is an invention related to a wave superposition type microcurrent biological application device that generates an infiltration repetition frequency biological stimulation microcurrent and applies it to objects such as plants, fish, livestock, poultry, humans and animals. More specifically, a low-frequency standard wave microcurrent and a high-frequency main wave microcurrent are superimposed in a set mode, or multiple overlapping wave microcurrents with dispersed frequencies successively larger than the main wave microcurrent are superimposed and applied to a biological body to activate various physiological functions by stimulating the biological body. In addition, a microcurrent output control application based on a smart watch structure or installed on a smart phone can be used to apply to various body parts such as human wrists through various structures and methods. In particular, the user's disease can be inferred by detecting image information, iris feature information, vein feature information, etc. of the human body part, and then a microcurrent corresponding to the user's current state can be generated and output to activate the best physiological function that best suits the user's current state. When applied to plants, fish, livestock and poultry, their growth can be promoted and immunity against infectious diseases can be enhanced. At the same time, a multifunctional portable housing capable of selecting AC and DC electrical stimulation is provided, and a structure worn on the human wrist is provided, which can apply electrical stimulation to the user's body or disease / health condition. It is an invention related to a wave superposition type microcurrent biological application device with multiple uses and increased scalability. Background Art

[0002] Recently, people are paying more and more attention to health in the context of rich material civilization. In addition, changes in dietary culture and the occurrence of various adult diseases due to lack of exercise have made people more concerned about their health, so various beauty-related machines with multiple functions have been developed and widely used. Electrotherapy machines are one of them.

[0003] Electrotherapy can be defined as a field of medical science that uses electricity, such as direct current, current, or pulsating current, to diagnose and treat diseases.

[0004] Types of electrotherapy include medical galvanism, iontoporesis, electrical stimulation theraphy (EST), transcutanous electrical nerve stimulation (TENS) therapy, functional electrical stimulation therapy (FES), interferential current therapy (ICT), shortwave diathermy (SWD), microwave diathermy (MWD) and ultrasound therapy.

[0005] This type of electrotherapy is mainly used for the treatment of musculoskeletal injuries and diseases, nervous system injuries and diseases, circulatory system diseases, skin diseases, internal medicine diseases and chronic inflammatory diseases. The biggest advantage of this treatment method that uses electrical energy is that it uses body phenomena and characteristics to cause electrical changes in the human body through external electrical stimulation, which helps with treatment.

[0006] However, the functions of electrotherapy vary significantly depending on the frequency waveform, current, current intensity, applicable area, etc.

[0007] Conventional electrotherapy generally provides a regular low-frequency signal with the same frequency characteristics to transmit electrical stimulation to the body. However, since the low-frequency current is transmitted only through the patch-type electrode pad directly attached to the affected part, the transmission range of the electrical stimulation is narrow, and to some extent, it is not possible to expect the therapeutic effect and massage effect through electrical stimulation. Since the electrical stimulation transmitted through the electrode pad will be transmitted to the patient strongly, there is also the problem that the physical stimulation is directly transmitted to the patient. Summary of the invention

[0008] Technical issues

[0009] Therefore, the purpose of the present invention is to improve the problems existing in the conventional technology by superimposing a standard wave microcurrent having a very low frequency (VLF) range of 3 to 30 kHz and a main wave microcurrent having a low frequency (LF) range of 30 kHz to 300 kHz in a set mode, or by adding multiple superimposed wave microcurrents having dispersed frequencies successively larger than the main wave microcurrent, and applying them to organisms such as plants, fish, livestock, poultry and animals, with the aim of providing a new form of wave superposition type microcurrent biological application device that activates various physiological functions by stimulating the organism.

[0010] In addition, the purpose of the present invention is to provide a new form of wave superposition type microcurrent biological application device that generates standard wave microcurrent and main wave microcurrent, so that the trajectory of the bottom surface of the wave connecting the main wave microcurrent becomes the waveform of the standard wave microcurrent. The standard wave microcurrent can cope with diseases such as pain, cancer, dementia and viral infection, or increase the efficiency of human stimulation that helps promote human growth through the structure of waveforms such as direct current waves including triangular waves, square waves, sawtooth waves, sine waves and step waves; it can also cope with diseases and viral infections of plants cultivated in plastic greenhouses, greenhouses, fish in farms / aquariums, and livestock and poultry such as cattle / pigs / chickens / ducks, or increase the efficiency of biological stimulation that activates animal growth.

[0011] The purpose of the present invention also includes providing a structure for driving a microcurrent output device through a smart watch that is integrated with the microcurrent output device or a separate smart watch, or a microcurrent output control application installed on a smart phone, and applying it to various body parts such as human wrists through various structures and methods to provide a new form of wave superposition type microcurrent biological application device that can increase the use and scalability.

[0012] At the same time, the purpose of the present invention is to infer the user's disease by detecting image information, iris feature information, vein feature information, etc. of human body parts through a smart watch or smart phone, and then generate and output a microcurrent corresponding to the user's current state, providing a new form of wave superposition type microcurrent biological application device that activates the best physiological function that best suits the user's current state.

[0013] Problem Solving Methods

[0014] According to the features of the present invention aimed at achieving the above-mentioned purpose, the present invention comprises a biostimulation microcurrent generating unit (100) for generating a biostimulation microcurrent superimposed with a standard wave microcurrent and a main wave microcurrent; a biostimulation microcurrent output unit (200) connected to the above-mentioned biostimulation microcurrent generating unit (100), receiving the transmitted biostimulation microcurrent, outputting the biostimulation microcurrent to an external area, and stimulating a target organism in the external area; and a controller (300) for controlling the operation of the above-mentioned biostimulation microcurrent generating unit (100) and the biostimulation microcurrent output unit (200).

[0015] The microcurrent generating unit (100) generates a standard wave microcurrent having a frequency amplitude set to a very low frequency (VLF) of 3 to 30 kHz and belonging to a standard wave frequency range and having a current value within a biostimulation microcurrent value range, wherein the standard wave microcurrent has any selected waveform in a DC wave group including a triangle wave, a square wave, a sawtooth wave, a sine wave, and a step wave, and the standard wave microcurrent is composed of a standard wave microcurrent generating module (110) generated through an area having only a positive wave displacement value, a main wave microcurrent generating module (120) having a frequency amplitude within a main wave microcurrent frequency range that is greater than the standard wave microcurrent frequency and is set to a low frequency (LF) of 30 kHz to 300 kHz, and generating a main wave microcurrent having a current value within the set biostimulation microcurrent value range, and a microcurrent superposition module (130) superimposing the standard wave microcurrent and the main wave microcurrent.

[0016] The main wave microcurrent generating module (120) generates a main wave microcurrent that satisfies two conditions, namely: a first condition that the wave displacement value of the main wave microcurrent at each time does not exceed the wave displacement value of the standard wave microcurrent at the corresponding time, and a second condition that the wave displacement value of the main wave microcurrent at each time and the wave displacement value of the standard wave microcurrent at the corresponding time have the same sign; at the same time, the main wave microcurrent is generated so that the trajectory of the bottom surface of the wave connecting the main wave microcurrent becomes the waveform of the standard wave microcurrent, and a wave superposition type microcurrent biological application device with this feature is provided.

[0017] The wave superposition type microcurrent biological application device according to the present invention comprises a shell (400) worn on the human body and the animal body; the above-mentioned biostimulation microcurrent generation unit (100) is installed inside the above-mentioned shell (400); in the biostimulation microcurrent output unit, the above-mentioned biostimulation microcurrent generation unit (100) has a dispersed frequency that is successively larger than the above-mentioned main wave microcurrent; the above-mentioned standard wave microcurrent and the main wave microcurrent satisfy the above-mentioned first condition and the second condition; between the microcurrents paired in the order of frequency amplitude, one or more multiple superposition microcurrent modules (120') satisfying the same mode are generated; the above-mentioned microcurrent superposition module (130') can superimpose the paired main wave microcurrent and the multiple superposition wave microcurrent into paired multiple superposition waves.

[0018] The wave superposition type microcurrent biological application device according to the present invention also includes a housing (400) worn on a human or animal body part; a mainboard (500) on which a biostimulation microcurrent generating unit (100), a biostimulation microcurrent output unit (200), and a controller (300) installed inside the housing (400) are installed in the form of a chipset; and a control panel (600) exposed on the surface of the housing (400), receiving a control signal according to a user's operation and sending it to the controller (300), and receiving and outputting information from the controller (300).

[0019] In the wave superposition type microcurrent biological application device according to the present invention, the housing (400) is formed of a block shape with a set thickness corresponding to the shape of the watch body, including a watch body block (410) whose bottom central part in contact with the biological body is formed of an AC electric stimulation plate (430a), and a connecting belt (420) connected to both sides of the watch body block (410) and fixed to the human wrist.

[0020] The alternating current stimulation plate (430a) is connected to the biostimulation microcurrent output unit (200) to receive the biostimulation microcurrent.

[0021] Here, the phenotypic main body block (410) of the above-mentioned shell (400) is additionally formed with a direct current stimulation electrode (430b) at the edge of the bottom surface that contacts the biological body. The above-mentioned direct current stimulation electrode (430b) is connected to a direct current power generator (450) installed inside the above-mentioned shell (400) and can receive biological stimulation direct current.

[0022] In the wave superposition type microcurrent biological application device according to the present invention, the above-mentioned connecting belt (420) attaches the biological stimulating mineral (700) including germanium and crystal to the part in contact with the living being.

[0023] The wave superposition type microcurrent bio-applying device according to the present invention comprises a microcurrent output terminal (1) having the above-mentioned biostimulation microcurrent generating unit (100) and a biostimulation microcurrent output unit (200); a smart watch (2) in the shape of a wristwatch, which is worn on the wrist of a user and has the above-mentioned controller (300) and a database (2a) for generating a database of microcurrent setting information of the above-mentioned biostimulation microcurrent; a user-portable communication terminal (3) which can be carried by the user for mobile communication and has a microcurrent output control application (4) linked to the above-mentioned controller (300), wherein the above-mentioned microcurrent output control application (4) generates a database (2a) for generating a database of microcurrent setting information of the above-mentioned biostimulation microcurrent, and has any one or more of the selected ones,

[0024] The smart watch (2) is integrated with the microcurrent output terminal (1), has the controller (300) built in, and directly controls the microcurrent output terminal (1) of the smart watch; is separated from the microcurrent output terminal (1), has a communication unit (2b), and transmits the output terminal operation control information to the output terminal separated smart watch of the microcurrent output terminal (1) by wireless communication with the microcurrent output terminal (1),

[0025] The portable communication terminal (3) of the above-mentioned user can transmit the output terminal operation control information generated in the above-mentioned microcurrent output control application (4) to the above-mentioned smart watch (2) through wireless communication with the above-mentioned smart watch (2), thereby indirectly controlling the output terminal indirect control type communication terminal of the above-mentioned microcurrent output terminal (1); or transmit the output terminal operation control information generated from the above-mentioned microcurrent output control application (4) to the above-mentioned microcurrent output terminal (1) through wireless communication with the above-mentioned microcurrent output terminal (1), thereby directly controlling the output terminal direct control type communication terminal of the above-mentioned microcurrent output terminal (1).

[0026] In the wave superposition type microcurrent biological application device according to the present invention, the above-mentioned microcurrent output terminal (1) is connected to the user's wearable body including a small audio device worn on the ear, glasses worn on the eyes, a hat worn on the head, etc.; the user's body contact body including a bed, a mattress, an electric blanket, etc., to transmit the biostimulation microcurrent.

[0027] In the wave superposition type microcurrent biological application device according to the present invention, the above-mentioned output terminal integrated smart watch has a detachable connection structure between the above-mentioned smart watch (2) and the above-mentioned microcurrent output terminal (1). When outputting biostimulating microcurrent to a certain part of the biological body other than the user's wrist, the above-mentioned microcurrent output terminal (1) can be removed from the above-mentioned smart watch (2) and attached to a certain part of the corresponding biological body.

[0028] In the wave superposition type microcurrent biological application device according to the present invention, the above-mentioned microcurrent output terminal (1) is installed at a certain part of the biological body to detect the user's current physical condition. Any device selected from the above-mentioned smart watch (2) and the user-portable communication terminal (3) can receive the user's current physical information from the above-mentioned microcurrent output terminal (1), generate monitoring information and then output it.

[0029] In the wave superposition type microcurrent biological application device according to the present invention, one or more of the following can be selected and arranged in the smart watch (2) from the following: a solar cell (5) installed on the surface of the above-mentioned smart watch (2) and generating power after being irradiated by sunlight; a body temperature charging unit (6) generating power from the body temperature transmitted from the wrist of the wearer of the above-mentioned smart watch (2); a wireless wave charging unit (7) generating power through radio waves such as Wi-Fi communication waves, Bluetooth communication waves, LTE communication waves, etc. received by the above-mentioned smart watch (2); and a vibration charging unit (8) generating power by shaking the above-mentioned smart watch (2).

[0030] In the wave superposition type microcurrent biological application device according to the present invention, one of the products selected from the above-mentioned smart watch (2) and the communication terminal (3) carried by the user is equipped with one or more of a human body image information detector (9) for generating image information of body parts for diagnosing diseases; an iris recognition sensor (10) for detecting the user's iris feature information; and a vein recognition sensor (11) for detecting the user's vein feature information.

[0031] One of the products selected from the human body diagnosis unit (12) of the smart watch (2) and the microcurrent output control application (4) of the user-carried communication terminal (3) can infer the user's disease based on information input from one or more selected from the human body image information detector (9), the iris recognition sensor (10), and the vein recognition sensor (11).

[0032] The smart watch (2) and the microcurrent output control application (4) can obtain microcurrent setting information that can be used to infer a user's disease from the database (2a), generate output terminal operation control information, and then send it through the microcurrent output terminal (1).

[0033] In addition, the wave superposition type microcurrent biological application device according to the present invention suitable for human body and animal may include a fixing frame (800) set in a plant cultivation area and having a plurality of biostimulation microcurrent output units (200) fixed at intervals; a solar panel (900) installed at the setting location for solar power generation; a power supply device (1000) receiving and storing power from the above solar panel (900); a microcurrent generating unit large-capacity housing (1100) installed at the setting location, connected to the above power supply device (1000) and a public power supply device to receive power, and integratedly configuring a plurality of biostimulation microcurrent generating units (100); and a plurality of connection cables (1200) connecting the above microcurrent generating unit large-capacity housing (1100) and the plurality of biostimulation microcurrent output units (200),

[0034] The wave superposition type microcurrent biological application device according to the present invention suitable for fish may include a fixing frame (800) installed in a fish breeding area and having at least one biostimulation microcurrent output unit (200) fixed at intervals, so that the biostimulation microcurrent output unit (200) contacts a water tank (1300) in the fish breeding area; a solar panel (900) installed at the setting location for solar power generation; a power supply device (1000) receiving and storing power from the above solar panel (900); a microcurrent generating unit large-capacity housing (1100) installed at the setting location, connected to the above power supply device (1000) and a public power supply device to receive power, and integratedly configuring a plurality of biostimulation microcurrent generating units (100); and a plurality of connection cables (1200) connecting the above microcurrent generating unit large-capacity housing (1100) and at least one biostimulation microcurrent output unit (200),

[0035] In addition, the wave superposition type microcurrent biological application device of the present invention suitable for livestock and poultry may include a solar panel (900) set at a setting location in an animal breeding area for raising livestock and poultry, responsible for solar power generation; a power supply device (1000) that receives and stores power from the above-mentioned solar panel (900); a microcurrent generating unit large-capacity housing (1100) installed at the setting location, connected to the above-mentioned power supply device (1000) and a public power supply device to receive power, and integrated with multiple biostimulation microcurrent generating units (100); and multiple connecting cables (1200) of multiple biostimulation microcurrent output units (200) connecting the above-mentioned microcurrent generating unit large-capacity housing (1100) and a breeding shed (1400) in the animal breeding area.

[0036] Effects of the Invention

[0037] The wave superposition type microcurrent biological application device of the present invention superimposes a standard wave microcurrent with a very low frequency (VLF) range of 3 to 30 kHz and a main wave microcurrent with a low frequency (LF) range of 30 kHz to 300 kHz in a set mode, or additionally superimposes multiple superimposed wave microcurrents with dispersed frequencies successively larger than the main wave microcurrent, and applies them to organisms such as plants, fish, livestock, poultry and animals, so it has the effect of stimulating the organism and activating various physiological functions.

[0038] Furthermore, the wave superposition type microcurrent biological application device of the present invention generates a standard wave microcurrent and a main wave microcurrent, so that the trajectory of the bottom surface of the wave connecting the main wave microcurrent becomes the waveform of the standard wave microcurrent, and generates a standard wave microcurrent including a triangle wave, a square wave, a sawtooth wave, a sine wave, a step wave, and other waveforms of a direct current wave, so it can deal with diseases such as pain, cancer, dementia, and viral infection, or increase the efficiency of human stimulation that helps human growth; it also has the effect of dealing with diseases and viral infections of plants cultivated in plastic greenhouses, greenhouses, etc., fish in farms / aquariums, and livestock and poultry such as cattle / pigs / chickens / ducks raised, or increasing the efficiency of biological stimulation that activates animal growth. In particular, the wave superposition type microcurrent biological application device of the present invention is applied to farmed animals, which has the possibility of replacing antibiotics, and can also be used to treat animal wounds.

[0039] The wave superposition type microcurrent biological application device of the present invention drives the microcurrent output device through a smart watch that is integrated with the microcurrent output device or a separate smart watch, or a microcurrent output control application installed on a smart phone, and is applied to various body parts such as human wrists through various structures and methods, thereby increasing the use and expansibility.

[0040] The wave superposition type microcurrent biological application device of the present invention detects image information, iris feature information, vein feature information, etc. of human body parts through a smart watch or smart phone to infer the user's disease, and then generates and outputs a microcurrent corresponding to the user's current state, which has the effect of activating the best physiological function that best suits the user's current state. BRIEF DESCRIPTION OF THE DRAWINGS

[0041] Figure 1 (a) and (b) are block diagrams of the wave superposition type microcurrent biological application device according to the present invention;

[0042] Figure 2 It is a block diagram of the structure of a wave superposition type microcurrent biological application device according to an embodiment of the present invention applicable to human body and animals;

[0043] Figure 3 is a drawing of a phenotype main body block according to an embodiment of the present invention having only an AC stimulation plate;

[0044] Figure 4 (a) and (b) are drawings showing a phenotypic main body block according to an embodiment of the present invention additionally provided with direct current stimulation electrodes;

[0045] Figure 5 A wave superposition type microcurrent biological application device according to an embodiment of the present invention;

[0046] Figure 6 A wave superposition type microcurrent biological application device according to an embodiment of the present invention;

[0047] Figure 7 A wave superposition type microcurrent biological application device according to an embodiment of the present invention;

[0048] Figure 8 is a drawing showing a wave superposition type microcurrent biological application device according to an embodiment of the present invention applied to plants;

[0049] Fig. 9 is a drawing showing a wave superposition type micro-current biological application device according to an embodiment of the present invention applicable to fish;

[0050] Fig.10 is a drawing showing a wave superposition type microcurrent biological application device according to an embodiment of the present invention applicable to livestock and poultry;

[0051] Fig.11 (a) to (d) are waveform examples of standard wave microcurrent according to an embodiment of the present invention;

[0052] Fig.12 is an example diagram of a displacement value function of a standard wave microcurrent and a main wave microcurrent according to an embodiment of the present invention;

[0053] Fig.13 The main wave microcurrent generation module according to the embodiment of the present invention displays the waveform of the corresponding standard wave microcurrent and generates the main wave microcurrent drawing.

[0054] Figures 14 to 18 2 is an example diagram of microcurrent superposition in a microcurrent superposition module according to an embodiment of the present invention. DETAILED DESCRIPTION

[0055] In the following, reference will be made to the accompanying drawings. Figures 1 to 18 The embodiments of the present invention are described in detail. At the same time, in the drawings and detailed descriptions, the diagrams and descriptions of the structures and functions that can be easily understood by practitioners in the field, such as ordinary microcurrent, biostimulation by microcurrent, wave superposition, very low frequency (VLF), low frequency (LF), triangle wave, square wave, sawtooth wave, step wave, chipset, control panel, germanium, crystal, biostimulating mineral, solar panel, power supply device, connecting cable, smart watch, application, solar cell, body temperature charging technology, wireless wave charging technology, vibration charging technology, iris recognition technology, vein recognition technology, etc., are simplified or omitted. In particular, in the drawings and detailed descriptions of the drawings, the detailed descriptions and diagrams of the specific technical structures and functions of the elements that are not directly related to the technical features of the present invention are omitted, and only the technical structures related to the present invention are briefly illustrated or described.

[0056] The wave superposition type micro-current biological application device according to the present invention is composed of Figure 1The biostimulation microcurrent generating unit (100), the biostimulation microcurrent output unit (200) and the controller (300) are shown.

[0057] The biostimulation microcurrent generating unit (100) is a unit that generates a bioelectrode microcurrent by superimposing a standard wave microcurrent and a main wave microcurrent.

[0058] According to an embodiment of the present invention, a microcurrent generating unit (100) is composed of a standard wave microcurrent generating module (110), a main wave microcurrent generating module (120) and a microcurrent superposition module (130).

[0059] The standard wave microcurrent generation module (110) is a module for generating a standard wave microcurrent having a frequency amplitude set to 3 to 30 kHz very low frequency (VLF) and belonging to the standard wave frequency range and a current value belonging to the biostimulation microcurrent value range.

[0060] Standard wave microcurrent Fig.11 Like (a) to (d), it has waveforms such as direct current waves including triangular waves, square waves, sawtooth waves, sine waves and step waves, especially the standard wave microcurrent generating module (110) according to an embodiment of the present invention is generated by an area having only positive wave displacement values.

[0061] The main wave microcurrent generation module (120) generates a frequency amplitude within the main wave microcurrent frequency range that is greater than the standard wave microcurrent frequency and is set to a low frequency (LF) of 30kHz to 300kHz, and generates a current value within the set biostimulation microcurrent value range. The main wave microcurrent generation module (120) according to an embodiment of the present invention generates a main wave microcurrent that meets two conditions, namely, a first condition that the wave displacement value of the main wave microcurrent at each time does not exceed the wave displacement value of the standard wave microcurrent at the corresponding time, and a second condition that the wave displacement value of the main wave microcurrent at each time and the wave displacement value of the above-mentioned standard wave microcurrent at the corresponding time have the same sign. (Refer to Fig.12 The displacement value function of the standard wave microcurrent and the main wave microcurrent is also provided, and according to an embodiment of the present invention, the main wave microcurrent generating module (120) is as follows: Fig.13 As shown, a main wave microcurrent is generated such that the trajectory connecting the bottom surfaces of the waves forming the main wave microcurrent becomes the waveform of the standard wave microcurrent.

[0062] The microcurrent superposition module (130) is a module for superimposing the standard wave microcurrent and the main wave microcurrent. Figures 14 to 17 As shown, the standard wave microcurrent and the main wave microcurrent are superimposed by a structure in which the main wave microcurrent periodically vibrates within the waveform of the standard wave microcurrent.

[0063] In addition, the biostimulation microcurrent generating unit (100) is as follows Figure 1 As shown in (b), a multiple superimposed wave microcurrent generation mode (120') can be added. The multiple superimposed wave microcurrent generation mode (120') is as follows Fig.18 As shown, the first and second conditions mentioned above are satisfied by the standard wave microcurrent and the main wave microcurrent, which have dispersed frequencies that are successively larger than the above-mentioned main wave microcurrent. This is to generate more than one module of multiple superimposed microcurrents that satisfy the same pattern between the microcurrents paired in order of frequency amplitude.

[0064] Correspondingly, the microcurrent superposition module (130') superimposes the paired main wave microcurrent and the multiple superposition wave microcurrent into paired multiple superposition waves.

[0065] The biostimulation microcurrent output unit (200) is connected to the biostimulation microcurrent generation unit (100), receives the transmitted biostimulation microcurrent, outputs the biostimulation microcurrent to an external area, and stimulates the target organism in the external area.

[0066] The controller (300) controls the operations of the biostimulation microcurrent generating unit (100) and the biostimulation microcurrent output unit (200).

[0067] The wave superposition type microcurrent biological application device according to the present invention can be applied to human body and animals. Figure 2 As shown, it comprises a housing (400), a main board (500) and a control panel (600).

[0068] The housing (400) is worn on a human or animal body, and in particular, can be worn on a human wrist. Figure 3 and Figure 4 As shown, it includes a main body block (410) and a connecting belt (420).

[0069] The watch body block (410) has a block shape with a set thickness corresponding to the shape of the watch body, such as Figure 3 As shown in FIG. 4 , the central portion of the bottom surface that contacts the organism is formed by an AC electric stimulation plate (430a). Figure 4 As shown, a direct current stimulation electrode (430b) can be additionally formed at the edge of the bottom surface that contacts the living being.

[0070] The AC stimulation plate (430a) can be made into a circular plate. The DC stimulation electrode (430b) is composed of a pair of positive and negative electrodes. Here, the AC stimulation plate (430a) is connected to the biostimulation microcurrent output unit (200) to receive the biostimulation microcurrent, and the DC stimulation electrode (430b) is connected to the DC power generator (450) installed inside the housing (400) to receive the biostimulation DC current.

[0071] The direct current stimulation electrode (430b) is as follows Figure 4 As shown in (a), the DC stimulation electrode (430b) protrudes from the bottom surface of the phenotype main body block (410) that contacts the biological body. In this case, if the AC stimulation function / DC stimulation function is selected incorrectly, the user will suddenly receive DC stimulation when he / she inadvertently selects the DC stimulation function. For this reason, the DC stimulation electrode (430b) is as shown in FIG. Figure 4 As shown in (b), the DC stimulation electrode (430b) can be formed by being recessed from the bottom of the phenotype main body block (410) in contact with the organism. When the DC stimulation electrode (430b) is recessed from the bottom of the phenotype main body block (410), a separately prepared DC stimulation plate (440) is combined with the bottom surface of the phenotype main body block (410) and connected to the DC stimulation electrode (430b), so that the DC stimulation can be smoothly transmitted to the organism in contact with the bottom surface of the phenotype main body block (410).

[0072] Here, the DC electric stimulation plate (440) has a protrusion (441) protruding from the outer surface for applying electric stimulation, and an electrode connection protrusion (442) protruding from the inner surface for inserting the DC electric stimulation electrode (430b).

[0073] The connecting belt (420) is connected to both sides of the phenotypic main body block (410) and fixed to the wrist of the human body. According to the connecting belt (420) of the embodiment of the present invention, the biostimulating mineral (700) containing germanium and crystal is attached to the part that contacts the organism, and the biostimulating mineral (700) is simultaneously carried out.

[0074] The main board (500) is installed inside the housing (400) and is equipped with a biostimulation microcurrent generation unit chipset (100a), a biostimulation microcurrent output unit chipset (200a) and a controller chipset (300a).

[0075] The control panel (600) is exposed on the surface of the housing (400), receives control signals according to user operations, transmits them to the controller (300), and outputs information after obtaining information from the controller (300). To this end, the control panel (600) can be formed by using a touch screen (600a).

[0076] Furthermore, according to an embodiment of the present invention applicable to the human body, a wave superposition type microcurrent biological application device such as Figure 5As shown, the microcurrent output terminal (1) is used as a basic component, and the smart watch (2) or the user-carried communication terminal (3) is an additional component.

[0077] The microcurrent output terminal (1) has a biostimulation microcurrent generation unit (100) and a biostimulation microcurrent output unit (200), and is an element that is set on a user's body part (wrist, arm, shoulder, eye, face, body, leg, foot, etc.) to apply the biostimulation microcurrent to the corresponding body part. This microcurrent output terminal (1) is connected to a user's power distribution product that may include a small audio device worn on the ear, glasses worn on the eye, a hat worn on the head, etc., to transmit the biostimulation microcurrent. In addition, the microcurrent output terminal (1) may be connected to a user's body contact body including a bed, a mattress, an electric blanket, etc. to transmit the biostimulation microcurrent.

[0078] The smart watch (2) is in the shape of a wristwatch, is worn on the wrist of a user, and has a controller (300) and a database (2a) (DB for short). The database (2a) is a database for generating microcurrent setting information for biostimulation microcurrent, and the microcurrent setting information can be set in conjunction with user characteristic information (gender, age, etc.) and can be set according to a variety of user diseases.

[0079] The communication terminal (3) carried by the user is carried by the user and performs a mobile communication function, and a microcurrent output control application (4) linked to the controller (300) is installed. The controller (300) can be installed on the communication terminal (3) carried by the user, but can also be installed on a smart watch (2) or a microcurrent output terminal (1). In addition, the microcurrent output control application (4) includes a database (2a) that databases the microcurrent setting information for generating biostimulation microcurrent.

[0080] Here, the smart watch (2) is Figure 5 As shown in (a), it can be embodied in the form of an output terminal integrated smart watch, or it can also be embodied as Figure 5 The same as (b) and (c), is embodied by a smart watch with separated output terminals.

[0081] The output terminal integrated smart watch is a product that integrates a smart watch (2) and a microcurrent output terminal (1). The smart watch (2) has a built-in controller (300) that can directly control the microcurrent output terminal (1). The output terminal integrated smart watch has a detachable connection structure between the smart watch (2) and the microcurrent output terminal (1). When outputting biostimulating microcurrent to a certain part of a biological body other than the user's wrist (eyeball, wrist, shoulder, neck, face, trunk, leg, foot, etc.), the microcurrent output terminal (1) can be removed from the smart watch (2) and attached to a certain part of the corresponding biological body.

[0082] The output terminal separated type smart watch is separated from the microcurrent output terminal (1) and is provided separately. In this case, the smart watch (2) has a communication unit (2b) which transmits the output terminal operation control information to the microcurrent output terminal (1) through wireless communication with the microcurrent output terminal (1).

[0083] The communication terminal (3) carried by the user can be made into an output terminal indirectly controlled type communication terminal, or an output terminal directly controlled type communication terminal.

[0084] The output terminal indirect control type communication terminal transmits the output terminal operation control information generated by the microcurrent output control application (4) to the smart watch (2) through wireless communication with the smart watch (2), and indirectly controls the microcurrent output terminal (1).

[0085] The output terminal direct control type communication terminal transmits the output terminal operation control information generated by the microcurrent output control application (4) to the microcurrent output terminal (1) through wireless communication with the microcurrent output terminal (1), and directly controls the microcurrent output terminal (1).

[0086] At the same time, the microcurrent output terminal (1) is installed at a certain part of the biological body to detect the user's current physical condition. At this time, the smart watch (2) or the communication terminal (3) carried by the user can receive the user's current physical information from the microcurrent output terminal (1), generate monitoring information and then output it.

[0087] At the same time, smart watches (2) such as Figure 6 As shown, it is equipped with a solar cell (5), a body temperature charging unit (6), a wireless wave charging unit (7), and a vibration charging unit (8), and obtains power supply by generating electricity by itself. Here, the solar cell (5) is installed on the surface of the smart watch (2), and generates power after receiving solar energy. The body temperature charging unit (6) generates power from the body temperature transmitted from the wrist of the smart watch (2). The wireless wave charging unit (7) generates power from radio waves such as Wi-Fi communication waves, Bluetooth communication waves, and LTE communication waves received by the smart watch (2). The vibration charging unit (8) generates power from the operation of shaking the smart watch (2).

[0088] In addition, a smart watch (2) or a communication terminal (3) carried by a user may Figure 6 and Figure 7 As shown, it is equipped with a human image information detector (9), an iris recognition sensor (10), a vein recognition sensor (11), etc., which can detect the user's physical characteristic information and infer the user's disease.

[0089] The human image information detector (9) generates image information of a body part for diagnosing a disease, and can be composed of a camera (9a) or a visual sensor (9b). The human image information detector (9) can diagnose dementia by photographing the retina of the eyeball, or diagnose hair loss by photographing the head, and can also diagnose various diseases by photographing various other body parts. The iris recognition sensor (10) detects the user's iris feature information and can diagnose dementia, Parkinson's disease, diabetes, etc. The vein recognition sensor (11) detects the user's vein feature information and can diagnose varicose veins in the lower limbs, etc.

[0090] The human body diagnosis unit (12) of the smart watch (2) and the microcurrent output control application (4) of the user's portable communication terminal (3) can infer the user's disease based on the information input from the human body image information detector (9), the iris recognition sensor (10), and the vein recognition sensor (11); the smart watch (2) and the microcurrent output control application (4) can obtain the microcurrent setting information for inferring the user's disease from the database (2a), generate the output terminal operation control information, and send it through the microcurrent output terminal (1).

[0091] The wave superposition type microcurrent biological application device according to the present invention can be applied to plants. For this purpose, the wave superposition type microcurrent biological application device according to the embodiment of the present invention is as follows: Figure 8 As shown, it may include a fixing frame (800), a solar panel (900), a power supply device (1000), a large-capacity housing (1100) of a microcurrent generating unit, and a plurality of connecting cables (1200).

[0092] The fixing frame (800) is installed in a plant cultivation field, and a plurality of biostimulation microcurrent output units (200) are fixed at intervals.

[0093] The solar panel (900) is installed at the setting location to realize solar power generation.

[0094] The power supply device (1000) receives and stores power from the solar panel (900).

[0095] The microcurrent generating unit large-capacity housing (1100) is installed at the installation site, connected to the power supply device (1000) and the public power supply device, and supplies power. In order to cope with power outages, the public power supply device is connected, so that power can be stably received. The microcurrent generating unit large-capacity housing (1100) is integrated and installed with multiple biostimulation microcurrent generating units (100).

[0096] The plurality of connection cables (1200) are cables for connecting the microcurrent generation unit large capacity housing (1100) and the plurality of biostimulation microcurrent output units (200).

[0097] The wave superposition type microcurrent biological application device according to the present invention can be applied to fish. For this purpose, the wave superposition type microcurrent biological application device according to the embodiment of the present invention is as follows: Fig. 9 As shown, it may include a fixing frame (800), a solar panel (900), a power supply device (1000), a large-capacity housing (1100) of a microcurrent generating unit, and a plurality of connecting cables (1200).

[0098] The fixing frame (800) is installed in the fish breeding area, and more than one biostimulation microcurrent output unit (200) is fixed at intervals, and each biostimulation microcurrent output unit (200) is connected to a water tank (1300) in the fish breeding area.

[0099] The solar panel (900) is installed at the setting location to realize solar power generation.

[0100] The power supply device (1000) receives and stores power from the solar panel (900).

[0101] The microcurrent generating unit large-capacity housing (1100) is installed at the installation site, connected to the power supply device (1000) and the public power supply device, and supplies power. In order to cope with power outages, the public power supply device is connected, so that power can be stably received. The microcurrent generating unit large-capacity housing (1100) is integrated and installed with multiple biostimulation microcurrent generating units (100).

[0102] The plurality of connection cables (1200) are cables for connecting the microcurrent generating unit large-capacity housing (1100) and one or more biostimulating microcurrent output units (200).

[0103] The wave superposition type microcurrent biological application device according to the present invention can be applied to livestock and poultry. For this purpose, the wave superposition type microcurrent biological application device according to the embodiment of the present invention is as follows: Fig.10 As shown, it may include a solar panel (900), a power supply device (1000), a large-capacity housing (1100) of a microcurrent generating unit, and a plurality of connecting cables (1200).

[0104] The solar panel (900) is installed at a location in an animal breeding area where livestock and poultry are raised to generate solar power.

[0105] The power supply device (1000) receives and stores power from the solar panel (900).

[0106] The microcurrent generating unit large-capacity housing (1100) is installed at the installation site, connected to the power supply device (1000) and the public power supply device, and supplies power. In order to cope with power outages, the public power supply device is connected, so that power can be stably received. The microcurrent generating unit large-capacity housing (1100) is integrated and installed with multiple biostimulation microcurrent generating units (100).

[0107] The plurality of connection cables (1200) are cables for connecting the microcurrent generating unit large capacity housing (1100) and the plurality of biostimulation microcurrent output units (200) installed in the animal breeding area breeding shed (1400).

[0108] The feedlot shed (1400) herein is preferably made of or contains electrically conductive materials.

[0109] According to the above-mentioned embodiment of the present invention, the wave superposition type microcurrent biological application device superimposes a standard wave microcurrent with a very low frequency (VLF) range of 3 to 30 kHz and a main wave microcurrent with a low frequency (LF) range of 30 kHz to 300 kHz in a set mode, or additionally superimposes multiple superimposed wave microcurrents with dispersed frequencies successively larger than the main wave microcurrent, and applies them to organisms such as plants, fish, livestock, poultry and animals, so it can be expected to activate various physiological functions through biological stimulation. In addition, the wave superposition type microcurrent biological application device according to the embodiment of the present invention generates a standard wave microcurrent and a main wave microcurrent, so that the trajectory of the bottom surface of the wave connecting the main wave microcurrent becomes the waveform of the standard wave microcurrent. The standard wave microcurrent can respond to diseases such as pain, cancer, dementia and viral infection, or increase the human body stimulation efficiency that helps human growth through the structure of waveforms such as direct current (DC) waves including triangular waves, square waves, sawtooth waves, sine waves and step waves; it can also respond to diseases and viral infections of plants cultivated in plastic greenhouses, greenhouses, fish in farms / aquariums, livestock and poultry such as cattle / pigs / chickens / ducks, etc., or increase the biological stimulation efficiency that activates animal growth. According to the above-mentioned wave superposition type microcurrent biological application device of the embodiment of the present invention, the microcurrent output device is driven by a microcurrent output control application integrated with the microcurrent output device or installed on a smart watch or a smart phone, and is applied to various body parts such as human wrists in a variety of structures and ways, which can increase the use and expansibility. According to the above-mentioned embodiment of the present invention, the wave superposition type microcurrent biological application device detects image information, iris feature information, vein feature information, etc. of human body parts through a smart watch or smart phone to infer the user's disease, and then generates and outputs a microcurrent corresponding to the user's current state, activating the best physiological function that best suits the user's current state.

[0110] As mentioned above, although the wave superposition type microcurrent biological application device according to the above-mentioned embodiment of the present invention is illustrated through the above description and drawings, these are only examples, and various changes and modifications can be made without exceeding the technical idea of ​​the present invention, which should be understood by ordinary technicians in this field.

Claims

1. A wave superposition type microcurrent biological application device, characterized in that: include: A biostimulation microcurrent generating unit (100) for generating a biostimulation microcurrent in which a standard wave microcurrent and a main wave microcurrent are superimposed; A biostimulating microcurrent output unit (200) is connected to the biostimulating microcurrent generation unit (100), receives the transmitted biostimulating microcurrent, and outputs the biostimulating microcurrent to an external area to stimulate a target organism in the external area; and A controller (300) for controlling the operation of the biostimulation microcurrent generating unit (100) and the biostimulation microcurrent output unit (200); The above-mentioned biostimulation microcurrent generation unit (100) is composed of a standard wave microcurrent generation module (110), a main wave microcurrent generation module (120) and a microcurrent superposition module (130); The biostimulation microcurrent generating unit (100) generates a standard wave microcurrent having a frequency amplitude set to a very low frequency (VLF) of 3 to 30 kHz and belonging to a standard wave frequency range and a current value within a biostimulation microcurrent value range. The standard wave microcurrent has a waveform of a DC wave including a triangle wave, a square wave, a sawtooth wave, a sine wave, and a step wave. The standard wave microcurrent generating module (110) generates through an area having only a positive wave displacement value. The main wave microcurrent generating module (120) generates a frequency amplitude within a main wave microcurrent frequency range having a frequency greater than the standard wave microcurrent frequency and set to a low frequency (LF) of 30 kHz to 300 kHz, and generates a current value within the set biostimulation microcurrent value range. The microcurrent superposition module (130) superimposes the standard wave microcurrent and the main wave microcurrent. The main wave microcurrent generating module (120) generates the main wave microcurrent satisfying two conditions, namely, a first condition that the wave displacement value of the main wave microcurrent at each time does not exceed the wave displacement value of the standard wave microcurrent at the corresponding time, and a second condition that the wave displacement value of the main wave microcurrent at each time and the wave displacement value of the standard wave microcurrent at the corresponding time have the same sign, and at the same time, generates the main wave microcurrent so that the trajectory connecting the bottom surface of the wave of the main wave microcurrent becomes the waveform of the standard wave microcurrent; The microcurrent superposition module (130) superimposes the standard wave microcurrent and the main wave microcurrent through a structure in which the main wave microcurrent periodically vibrates within the waveform of the standard wave microcurrent; The biostimulation microcurrent generating unit (100) further comprises a multiple superposition wave microcurrent generating module (120'), which has dispersed frequencies successively greater than the main wave microcurrent, the standard wave microcurrent and the main wave microcurrent satisfying the first and second conditions, and further generates one or more multiple superposition wave microcurrents satisfying the same mode between the microcurrents paired in order of frequency amplitude, The microcurrent superposition module (130) superimposes the paired main wave microcurrent and the multiple superposition wave microcurrent into paired multiple superposition waves; The wave superposition type microcurrent biological application device also includes: A housing (400) worn on a human body part; A main board (500) is installed inside the housing (400) and is provided with the biostimulation microcurrent generating unit (100), the biostimulation microcurrent output unit (200) and the controller chipset (300a); The control panel (600) is exposed on the surface of the housing (400), receives control signals according to user operations, transmits them to the controller (300), and obtains information from the controller (300) and outputs it; The housing (400) comprises a watch body block (410) and a connecting band (420), wherein the watch body block (410) has a block shape with a set thickness corresponding to the shape of the watch body, and the central part of the bottom surface in contact with the living being is composed of an AC electric stimulation plate (430a); the connecting band (420) is connected to both sides of the watch body block (410) and fixed to the human wrist; The alternating current stimulation plate (430a) is connected to the biostimulation microcurrent output unit (200) to receive the biostimulation microcurrent.

2. The wave superposition type microcurrent biological application device according to claim 1, characterized in that: A direct current stimulation electrode (430b) is additionally formed at the bottom edge of the phenotypic main body block (410) of the above-mentioned shell (400) that contacts the biological body. The above-mentioned direct current stimulation electrode (430b) is connected to a direct current power generator (450) installed inside the above-mentioned shell (400) and can receive a biological stimulation direct current power supply.

3. The wave superposition type microcurrent biological application device according to claim 1, characterized in that: The connecting strip (420) attaches the biostimulating mineral (700) including germanium and crystal to the part that contacts the living organism.

4. The wave superposition type microcurrent biological application device according to claim 1, characterized in that: include: A microcurrent output terminal (1) having the above-mentioned biostimulation microcurrent generation unit (100) and the biostimulation microcurrent output unit (200); A smart watch (2) formed in the shape of a wristwatch and worn on a user's wrist, comprising the controller (300) and a database (2a) for databaseizing microcurrent setting information for generating the biostimulation microcurrent; and / or A user carries a communication terminal (3) which is carried by the user and performs mobile communication, and installs a microcurrent output control application (4) linked to the controller (300), wherein the microcurrent output control application (4) includes a database (2a) that databases microcurrent setting information for generating the biostimulation microcurrent; The smart watch (2) is integrated with the micro-current output terminal (1) to form an output terminal integrated smart watch, and the smart watch (2) has the controller (300) built in to directly control the micro-current output terminal (1); or The smart watch (2) is separated from the microcurrent output terminal (1) to form an output terminal separated type smart watch, and the smart watch (2) is provided with a communication unit (2b) for transmitting output terminal operation control information to the microcurrent output terminal (1) by wirelessly communicating with the microcurrent output terminal (1); The communication terminal (3) carried by the above-mentioned user is made into an output terminal indirectly controlled communication terminal or an output terminal directly controlled communication terminal. The output terminal indirectly controlled communication terminal is to transmit the output terminal operation control information generated in the above-mentioned microcurrent output control application (4) to the above-mentioned smart watch (2) through wireless communication with the above-mentioned smart watch (2), thereby indirectly controlling the above-mentioned microcurrent output terminal (1); the output terminal directly controlled communication terminal is to transmit the output terminal operation control information generated from the above-mentioned microcurrent output control application (4) to the above-mentioned microcurrent output terminal (1) through wireless communication with the above-mentioned microcurrent output terminal (1), thereby directly controlling the above-mentioned microcurrent output terminal (1).

5. The wave superposition type microcurrent biological application device according to claim 4, characterized in that: The above-mentioned output terminal integrated smart watch has a detachable connection structure between the above-mentioned smart watch (2) and the above-mentioned microcurrent output terminal (1). When outputting biostimulating microcurrent to a certain part of the biological body other than the user's wrist, the above-mentioned microcurrent output terminal (1) can be removed from the above-mentioned smart watch (2) and attached to a certain part of the corresponding biological body.

6. The wave superposition type microcurrent biological application device according to claim 4, characterized in that: The micro-current output terminal (1) mentioned above, Connecting to a user's wearable device, such as a small audio device worn on the ear, glasses worn on the eyes, or a hat worn on the head, to transmit biostimulation microcurrent; and / or It connects to the user's body contact parts including beds, mattresses, electric blankets, etc. to transmit bio-stimulating microcurrent.

7. The wave superposition type microcurrent biological application device according to claim 4, characterized in that: The microcurrent output terminal (1) is attached to a certain part of the biological body to detect the user's current body information. Any device selected from the above-mentioned smart watch (2) and the user-portable communication terminal (3) receives the user's current physical information from the above-mentioned microcurrent output terminal (1), generates monitoring information and then outputs it.

8. The wave superposition type microcurrent biological application device according to claim 4, characterized in that: The smart watch (2) also includes: A solar cell (5) mounted on the surface of the smart watch (2) and generating power after being irradiated by sunlight; A body temperature charging unit (6) that generates power from body temperature transmitted from the wrist of a person wearing the smart watch (2); A wireless wave charging unit (7) that generates power through radio waves such as Wi-Fi communication waves, Bluetooth communication waves, and LTE communication waves received by the smart watch (2); and / or A vibration charging unit (8) generates power by shaking the smart watch (2).

9. The wave superposition type microcurrent biological application device according to claim 4, characterized in that: The smart watch (2) or the communication terminal (3) carried by the user is also provided with a human body image information detector (9) for generating image information of body parts for diagnosing diseases, an iris recognition sensor (10) for detecting iris feature information of the user, and / or a vein recognition sensor (11) for detecting vein feature information of the user; The human body diagnosis unit (12) of the smart watch (2) or the micro-current output control application (4) of the user-carried communication terminal (3) infers the user's disease through the information input from the human body image information detector (9), the iris recognition sensor (10) and / or the vein recognition sensor (11). The smart watch (2) and the microcurrent output control application (4) obtain the microcurrent setting information for inferring the user's disease from the database (2a), generate the output terminal operation control information, and then send it through the microcurrent output terminal (1).

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