KR200236006Y1 - A thermo/electric potential therapy apparatus for individual - Google Patents

Abstract

According to the personal heat / potential treatment device according to the present invention, it receives power from the controller and radiates far infrared rays from the left and right heat mats to promote blood circulation, and is separately mounted to be movable on the left and right heat mats. Receives high voltage from the first transformer secondary coil of the controller to treat pain and outputs high voltage from the potential generator, and receives high voltage applied from the secondary side of the second transformer of the controller from the electro-needle • It is configured to output medium and weak voltages.

Therefore, the present invention can promote blood circulation and heat the body, can not only heal pain, but also easily repair and repair, and shorten repair and repair time.

Description

Personal Heat / Potentiometer {A THERMO / ELECTRIC POTENTIAL THERAPY APPARATUS FOR INDIVIDUAL}

The present invention relates to a personal heat / potential treatment device, and in particular, it releases heat and far-infrared rays to promote blood circulation, heat the body, and can easily cure pain, as well as easily repair and repair, and repair ㆍ It relates to a personal heat / potential treatment device which can shorten repair time.

As such a conventional home heating / potential treatment device, the present applicant has a home heating blood circulation promoting / pain treatment device described in Korean Registered Utility Model Publication No. 20-0180832 (Utility Model Publication No. 1998-0024782 (Published Date; 1998). July 25).

The domestic heated blood circulation promoting / pain treatment device disclosed in the Korean Utility Model Utility Model is equipped with a negative potential generating layer in the thermal mat.If the negative potential generating layer is broken, remove the thermal mat and replace it with a new one. In addition, there is a problem in that the heating mat needs to be sewn again, and thus, a lot of repair and repair costs are required, and a lot of time is required for repair and maintenance.

Accordingly, the present invention has been made to solve the above various problems, the object of the present invention is to provide a personal heat / potential therapy device that can promote blood circulation and heat the body.

Another object of the present invention is to provide a personal heat / potential treatment device that can easily treat pain.

Another object of the present invention is to provide a personal heat / potential treatment device that can be easily repaired and repaired.

Still another object of the present invention is to provide a personal thermal / potential treatment device that can shorten repair and maintenance time.

In order to achieve the above object, a personal heat / potential treatment device according to the present invention includes a controller, left and right heating mats radiating far infrared rays receiving power from the controller to promote blood circulation while treating pain, and A potential generator that is separately mounted on the far-infrared radiation layer above the left and right heating mats and receives a high voltage applied from the secondary side of the first transformer of the controller to generate an electric potential to treat pain; An electronic needle is provided for receiving the high voltage applied from the secondary side of the second transformer and outputting strong, medium and weak voltages to the pain area.

1 is a perspective view schematically showing a personal heat / potential treatment device according to an embodiment of the present invention,

FIG. 2 is a longitudinal sectional view taken along the line II-II in FIG. 1;

3 is an enlarged perspective view showing a state in which a carbon plate and an electrode of an electric potential therapy device in the personal thermal / potential therapy device shown in FIG. 1 are combined;

4 is a cross-sectional view taken along the line IV-IV in FIG.

FIG. 5 is a circuit diagram of a controller for controlling power supply switching means, electronic needle power supply switching means, and potential treatment power supply switching means of the left and right thermal mats in a personal thermal / potential treatment device according to an embodiment of the present invention;

6 is a detailed circuit diagram of a control unit for controlling an input unit, an output display unit, a set value display unit, and left and right LED driving units in a personal thermal / potential treatment apparatus according to an embodiment of the present invention.

<Explanation of symbols for the main parts of the drawings>

100a: left side heating mat 100b: right side heating mat

101: Far-infrared ray emitting layer 102: 5 m / m Riddle punching face layer

104: potential generator 106: fiber glass layer

108: aluminum alloy layer 110: insulating layer

111: insulated wire 112: carbon fiber layer

114: high-elasticity layer 116: waterproofing monolayer

130a: first connector 130b: second connector

130c: Third connector 134: Temperature detector for right side thermal mat

136: temperature detector 200 for the left heat mat: controller

210: first controller 220: potential generator

230: electronic needle 240: input unit

250: Set value display section 260: Left and right heating mat power supply switching section

270: second controller 280: power switching unit

290: electronic needle power supply switching unit 300: output display unit

Hereinafter, with reference to the accompanying drawings for a personal heat / potential therapy device according to an embodiment of the present invention will be described in detail.

1 is a perspective view schematically showing a personal heat / potential treatment device according to an embodiment of the present invention, FIG. 2 is a longitudinal sectional view taken along the line II-II in FIG. 1, and FIG. 3 is shown in FIG. 1. 4 is an enlarged perspective view showing a state in which a carbon plate and an electrode of an electric potential therapy device are combined in a personal thermal / potential therapy device, FIG. 4 is a cross-sectional view taken along the arrow IV-IV in FIG. 1, and FIG. 5 is one of the present inventions. FIG. 6 is a circuit diagram of a control unit for controlling power supply switching means, electronic needle power supply switching means, and electric potential therapy power supply switching means of the left and right thermal mats according to the embodiment. The detailed circuit diagram of the control part which controls an input means, an output display means, a set value display means, and left and right LED drive means in a personal thermal / potential therapy apparatus according to an embodiment.

1 to 2, the personal heat / potential therapy device according to an embodiment of the present invention, the power to the controller 200, and at the same time to treat the pain, to promote blood circulation from the controller 200 The left and right heating mats 100a and 100b which receive and emit far infrared rays, and are separately mounted to be movable on the far infrared emitting layer 101 of the left and right heating mats 100a and 100b. A potential generator 220 that receives the high voltage output from the secondary side of the first transformer T1 and generates a potential to treat pain, and a high voltage output from the secondary side of the second transformer T2 of the controller 200. The electronic needle 230 is provided to receive the strong, medium, and weak voltage at the pain site.

The left and right thermal mats 100a and 100b are braided with fiberglass to radiate far-infrared rays, and the carbon fiber layer 112 is coated with silicon and is disposed on the carbon fiber layer 112 to receive heat. The radiating heating wires 111a and 111b, the insulating plate 110 stacked on top of the heating wires 111a and 111b and electrically insulated, and stacked on top of the insulating plate 110 to block water waves and harmful waves (electromagnetic waves). At the same time, the aluminum alloy layer 108 for uniformly distributing heat over the entire area, the far-infrared radiation layer 101 for receiving the heat radiated from the heating wires 111a and 111b and emitting the far-infrared infrared rays having strong penetration, It is laminated on the aluminum alloy layer 108 and woven with fiber glass to prevent fire due to overheating of the heating wires 111a and 111b and prevent deformation of the aluminum alloy layer 108 due to external pressure. PVC which is installed between the fiber glass layer 106 and the fiber glass layer 106 and the far-infrared radiation layer 101 and which is an outer skin of the far-infrared radiation layer 101 by heat generated by the heating wires 111a and 111b. Alternatively, the 5 m / m rind punching layer 102 to prevent deformation of the urethane and the carbon fiber layer 112 is disposed below to disperse weight, and at the same time, the heat emitted from the heating wires 111a and 111b is lowered. It is composed of a high elastic face layer 114 to prevent the release, and a waterproof fabric layer 116 is installed below the high elastic face layer 114 to prevent the penetration of moisture.

Near the heating wires 111a and 111b in the left and right heating mats 100a and 100b, a voltage of + 5V is received through pull-up resistors R22 and R20, respectively, and the temperature in the left and right heating mats 100a and 100b is measured. First and second temperature detectors 103 and 105 are provided to detect and output to the first controller 210 through the resistors R21 and R19, respectively, and the temperature of the left and right heating mats 100a and 100b is increased. When the temperature is higher than a predetermined temperature, the first and second bimetals between the heating wires 111a and 111b to block currents applied to the heating wires 111a and 111b respectively installed in the left and right heating mats 100a and 100b. 107a and 107b are connected in series, respectively.

In FIG. 2, reference numeral 120 denotes a fabric cover which integrally seals the far-infrared radiation layer 101 and the waterproof fabric layer 116.

As shown in FIGS. 5 and 6, the controller 200 includes the left and right heating mats 100a and 100b, the potential generator 210, and the electronic needle 230 according to a control signal input from the input unit 240. Control of the set value display unit 250, the output display unit 300, the second controller 270, the left and right LED array driving means 280a and 280b, and the left and right LED arrays 290a and 290b.

In other words, the controller 200 may control first and second controllers 210 and 270 to control the overall operation as shown in FIGS. 5 and 6, and a user's control command to the first and second controllers 210 and 270. When the heat radiating temperature of the left and right heating mats (100a, 100b) is set by pressing the input unit 240 for inputting the input and the left and right heating temperature setting switches (241,242) of the input unit 240, the first controller The left and right thermal mat power supply switching unit which is switched to apply power to the left and right thermal mats 100a and 100b respectively by the control signals for the left and right thermal mats 100a and 100b output from the 210 ( 260 and the power supply command are inputted by the left and right heating mat power supply switching unit 260, and the left and right heating mat 100a is pressed by pressing the heat time setting switch 243 of the input unit 240. When the heat dissipation time of, 100b) is set, the left and right heating medium Left and right sides that drive the LED arrays 270a and 270b sequentially to receive the control signals output from the second controller 270 to indicate that power is applied to the 100a and 100b. When the power supply is applied to the potential generator 220 by pressing the LED array driving means 270a and 270b and the potential output setting switch 244 of the input unit 240, the first controller 210 outputs the power. The electronic needle by pressing the potential switch 280 and the electronic needle output setting switch 246 of the input unit 240 is switched to output a high voltage of a predetermined level to the potential generator 220 by the potential output control signal When the application of power to the 230 is set, the electronic needle switching unit is switched to output a predetermined level of voltage from the electronic needle 220 by the electronic needle output control signal output from the first controller 210 ( 290 and the input unit 240 User's command signal by left and right warm temperature setting switch (241,242), warm time setting switch (243), potential output setting switch (244), potential output time setting switch (245) and electronic needle output setting switch (246). Output display unit 300 including a plurality of light emitting diodes (LED40 to LED45), left and right heat temperature setting switches (241 and 242), heat time setting switch (243), and potential output of the input unit (240). When the user's command signal is inputted by the setting switch 244, the potential output time setting switch 245, and the electronic needle output setting switch 246, the heat setting temperature and the heat of the left and right heating mats 100a and 100b. A set value display unit 310 for displaying a time and a current temperature, a potential output time and a potential output voltage of the potential generator 220, and an output voltage of the electronic needle 230, and a main switch for controlling the power on / off. 315).

As shown in FIGS. 3 and 4, the potential generator 220 includes a fibrous plate 221, a carbon layer 222 having carbon powder deposited on both surfaces of the fibrous plate 221 together with an adhesive, and the fibrous plate 221. ) And the electrode terminal 223 fixed by the rivet pin 223a to electrically connect the carbon layer 222 and the shock absorbing layer 224 covering both surfaces of the electrode terminal 223 so as not to be shorted by an impact. A lead wire 225 having one side clamped by the electrode terminal 223 and a jack fixed to the other side to a potential output terminal, and lower and inner vinyl layers 226a and 226b covering the lower portion of the carbon layer 222. ), An adhesive tape layer 227 adhering the carbon layer 222 and the inner vinyl layer 226 to fix the carbon layer 222 placed on the inner vinyl layer 226b, and the lower portion And an upper vinyl layer 228 whose edge is adhered to the inner vinyl layers 226b and 226a by ultrasonic bonding. The.

In the present invention, the first and second controllers 210 and 270 use a macro computer (microcomputer) or a microprocessor.

When the input unit 240 is pressed once, the set temperature increases by 5 ° C. and is set to 75 ° C., and a control signal for applying power to heat the left and right heating mats 100a and 100b is connected to the connector 130b. The left and right heat temperature setting switches 241 and 242 inputted to the P and R terminals of the first and second controllers 210 and the set time are increased by 1 hour each time and are set up to 8 hours. A heat time setting switch 243 for inputting a control signal for setting the heat dissipation time of the left and right heat mats 100a and 100b to the O terminals of the first and second controllers 210 through the connector 130b; Each press of the output voltage increases by 400 Vac to 200 Vac to increase to 1000 Vac, and the first and second controllers through the connector 130b to selectively output a high voltage of 400 Vac to 1000 Vac from the potential generator 220. Potential output setting input to T terminal of 210) The first and second controllers are connected to the switch 244 and through the connector 130b to set the output time of the high voltage at the potential generator 220 by increasing the output time by one hour and increasing by eight hours with each press. The potential output time setting switch 245 input to the R terminal of 210 and the output voltage are set to about (400 Vac), medium (800 Vac), and strong (1000 Vac) each time the electronic needle 230 is pressed. The electronic needle output setting switch 246 is input to the U terminal of the first and second controllers 210 through the connector 130b to output the strong, medium, and weak voltages.

The set value display unit 250 increases the heat temperature by 5 ° C each time the left and right heat temperature setting switches 241 and 242 of the input unit 240 are pressed once, from the second controller 270. The left and right warm temperature display segments are displayed, and the left and right warm temperature display segments display the temperature detected by the first and second temperature detectors 103 and 105 when a predetermined time (for example, 5 seconds) elapses after setting. Each time 251, 252 and the heat time setting switch 243 of the input unit 240 are pressed, the heat setting time is increased by 1 hour to receive and display the heat time set up to 8 hours from the second controller 270. Each time the time display segment 253 and the potential output setting switch 244 of the input unit 240 are pressed, the output voltage increases from 400 Vac to 200 Vac to receive a high voltage from the second controller 270 up to 1000 Vac. Potential output voltage display Each time the segment 254 and the potential output time setting switch 245 of the input unit 240 are pressed once, the output time is increased by 1 hour to increase the potential output time from the second controller 270 up to 8 hours. Is displayed at any time of pressing the potential output time display segment 255 and the electronic needle output setting switch 246 of the input unit 240 one time (400 Vac, medium (800 Vac) and steel (1000 Vac). It is composed of an electronic needle output display segment 256 for receiving one from the second controller 270 to display the electronic needle output.

The left and right thermal mat power supply switching unit 260 applies the left and right thermal mat power supply control signals output from the output terminals E and F of the first controller 210 to the bias resistors R1 and R2 ( Transistors Q1 and Q2 respectively received and switched through R3 and R4, and current flows when switching on the transistors Q1 and Q2, so that the heating wires 111a and 100b of the left and right heating mats 100a and 100b are turned on. Relays RY1 and RY2 for connecting the movable contacts RY1A and RY2A to the fixed contacts RY1B and RY2B so that current flows through 111b), and a diode for preventing reverse current from flowing to the relays RY1 and RY2. D1, D2).

The left and right LED arrays 270a and 270b are formed by a plurality of light emitting diodes LED1- 1 by the left and right LED array driving means 270a and 270b according to control signals output from the first and second controllers 210 and 270. As the LED 32 emits light sequentially, the left LED array 280a includes light emitting diodes LED1 to LED16, and the right LED array 270b includes light emitting diodes LED17 to LED32.

The potential switching unit 280 may output an output control signal of 400 Vac, 600 Vac, 800 Vac, and 1000 Vac output from the output terminals A, B, C, and D of the first controller 210 to the bias resistors R5 and R6 ( Transistors Q3, Q4, Q5 and Q6 that are received and switched respectively through R7 and R8 (R9 and R10) (R11 and R12), and currents are switched on when the transistors Q3, Q4, Q5 and Q6 are switched on. The relays (RY3, RY4, RY5, RY6) for connecting the movable contacts (RY3A, RY4A, RY5A, RY6A) to the fixed contacts (RY3B, RY4B, RY5B, RY6B) respectively, and the relays (RY3, RY4, RY5, RY6). 40Vac, 60Vac, through the first connector 130a when current flows through the diodes D3, D4, D5, D6, and the relays RY3, RY4, RY5, and RY6, respectively. It is composed of a first transformer (T1) that receives any one of the voltage of 80Vac, 100Vac from the primary coil and boosts it, and outputs one of the voltages of 400Vac, 600Vac, 800Vac, 1000Vac from the secondary coil from the potential generator 220. have.

The electron needle switching unit 290 receives the output control signals of HV, MV, and LV output from the output terminals X, Y, and Z of the first controller 210, and outputs bias resistors R13, R14, R15, and R16. Transistors Q7, Q8 and Q9 respectively received and switched through R17 and R18, and currents flow when switching on the transistors Q7, Q8 and Q9 to fix the movable contacts RY7A, RY8A and RY9A. Relays RY7, RY8, RY9 connected to the contacts RY7B, RY8B, RY9B, diodes D7, D8, D9 for preventing the flow of reverse current to the relays RY7, RY8, RY9, and When a current flows through any one of the relays RY7, RY8, and RY9, the voltage of any one of 40 Vac, 60 Vac, and 100 Vac is received from the primary coil through the first connector 130a, and the voltage is boosted to about (400 Vac). ), The second transformer T2 outputs the voltage of the medium (800 Vac) or the steel (1000 Vac) from the electron needle 230.

The output display unit 300 receives the temperature setting signals of the left and right heating mats 100a and 100b input from the left and right heating temperature setting switches 241 and 242 of the input unit 240, respectively, in the third connector 130c. Light emitting diodes LED41 and LED42 respectively received through the P and Q terminals of the display unit and the left and right heating mats 100a and 100b input from the left and right heating time setting switches 243 of the input unit 240. A light emitting diode (LED40) for receiving the heat setting time signal of the first through the second connector (130b) and the potential output of the potential generator 220 input from the potential output setting switch 244 of the input unit 240; Set the potential time of the light emitting diode LED43 for receiving and displaying a setting signal through the R terminal of the third connector 130c and the potential generator 220 input from the potential time setting switch 245 of the input unit 240. Receives signals through the S terminal of the third connector 130c and displays them, respectively. The light emitting diode LED44 and the output setting signal of the electronic needle 230 input from the electronic needle output setting switch 246 of the input unit 240 are received through the T terminal of the third connector 130c, respectively. It consists of a light emitting diode (LED45).

In FIG. 5, T3 is a down transformer that receives 220 Vac and down-converts to 40 Vac, 60 Vac, 80 Vac, 100 Vac, and reference numeral 320 denotes an overheating occurrence of the left and right heating mats 100a and 100b and the controller 200. A buzzer outputs an alarm sound when an abnormality occurs, and R29, R30, and R31 are current limiting resistors for preventing electric shock by limiting the current flowing through the electronic needle 230 and the potential generator 220.

Next, the operation and effects of the personal thermal / potential treatment device according to the embodiment of the present invention configured as described above will be described.

The present invention plugs the plug 231a installed on the cord 225 of the electric needle 230 and the plug 225a installed at one end of the cord 225 of the potential generator 220 to the controller 200 and the main switch 315 ), The temperature is set by pressing the left and right warm temperature setting switches (241,242) of the input unit 240, the time is set by pressing the left and right warm time setting switches 243 and the potential output setting switch is pressed. When the potential output time and the potential output time are set by pressing the potential output time setting switch 244 and the potential output time, respectively, the power is received from the sub-controller 200 to radiate far infrared rays from the left and right heating mats 100a and 100b to the user's body. Far-infrared rays are applied to promote blood circulation, and are separately mounted so as to be movable on upper left and right heating mats 100a and 100b, and a high voltage is applied from the secondary coil of the first transformer T1 of the controller 200. Take a high voltage at the potential generator 220 The high voltage output from the secondary side of the second transformer T2 of the controller 200 is received by the electronic needle 230, and the strong, medium, and weak voltage is output to the pain area by the electronic needle 230. Treat and relieve pain

In other words, first, when a power plug (not shown) is connected to the AC220V line, and then the heat is required to be radiated to a necessary temperature, for example, 45 ° C, to radiate the left and right heat temperature setting switches 241 and 242 of the input unit 240. Since the left and right heat temperature setting switches 241 and 242 increase by 5 ° C each time, the left and right heat temperature setting switches 241 and 242 are pressed nine times to dissipate the left and right heat mats 100a and 100b. When the temperature is set to 45 ° C. and the heat time setting switch 243 is pressed 8 times to set the heat dissipation time of the left and right heat mats 100a and 100b to 8 hours, the set time is 1 hour for each press. The heat dissipation time is set to 8 hours because of the increment.

At the same time, since the signals related to the left and right warm temperature and the heat time are also input to the first controller 210 through the P, Q, and O terminals of the second connector 130b, E, A control signal is output so that a current is applied to the left and right heating mats 100a and 100b through the F terminal, and the bias resistors R1 and R2 (R3 and R4) of the left and right heating mat power supply switching unit 260 are output. The transistors are applied to the base terminals of the transistors Q1 and Q2 through the transistors Q1 and Q2, respectively. The current flows through the relays RY1 and RY2 according to the switching on of the transistors Q1 and Q2. Since RY1A and RY2A are connected to the fixed contacts RY1B and RY2B, AC220V is applied to the heating wires 111a and 111b of the left and right heating mats 100a and 100b, respectively, and thus to the heating wires 111a and 111b. Electric current flows through each of them.

Temperatures in the left and right side heating mats 100a and 100b in which heat is radiated by the current flowing through the heating wires 111a and 111b are detected by the first and second temperature detectors 103 and 105, respectively, and the resistors R21, R19) is output to the first controller 210, and when the detection temperature is higher than the preset temperature, the control signal is not output from the corresponding output terminal of the output terminals E, F of the first controller 210. The transistors Q1 and Q2 are turned off to prevent overheating of the corresponding thermal mat among the left and right thermal mats 100a and 100b, and also to prevent defects of the first and second temperature detectors 103 and 105. When the temperature is not detected and the left and right heating mats 100a and 100b are overheated, the first and second bimetals 107a and 107b operate to block the flow of current to the heating wires 111a and 111b. Prevent safety accidents such as fire.

As described above, a heat treatment may be performed by simultaneously flowing a current to the heating wires 111a and 111b of the left and right heating mats 100a and 100b, for example, among the left and right heating mats 100a and 100b. If you want to heat treatment using only the left heat mat 100a, only the left heat switch 241 is operated to set the left heat temperature, and if you want to heat treatment using only the right heat mats 100a and 100b. It is only necessary to operate the right heat switch 242 to set the right heat temperature.

At this time, since the signal enters the light emitting diodes LED41 and LED42 of the output display unit 300 through the second and third connectors 130b and 130c, the light emitting diodes LED41 and LED42 emit light, respectively, to the left and right sides. At the same time, power is supplied to the heat mats 100a and 100b and heat dissipation time is set, and at the same time, the left and right heat temperature setting switches 241 and 242 and the heat time setting switches 243 of the input unit 240 are set. Signals related to left and right warm temperature and heat time are controlled by the first and second controllers through the P, Q, and O output terminals of the O, P, Q, R, S, T, and U output terminals of the second connector 130b. Since it is also input to (210, 270), it receives the control signal output from the second controller 270, and displays the left and right warm temperature set on the left and right warm temperature display segments (251, 252) of the set value display unit 250, The heat dissipation time set in the display segment 253 is displayed, and the second heat dissipation time is displayed. The control signal output from the controller 270 is received by the left and right LED array driving means 270a and 270b to emit the left and right LED arrays 280a and 280b, thereby heating the heating wires of the left and right heating mats 100a and 100b. Indicates that current is flowing through 111a and 111b.

As described above, the potential output setting switch 244 of the input unit 240 is operated to operate the potential while the electric current flows through the heating wires 111a and 111b of the left and right heating mats 100a and 100b to perform the heat treatment. If you want to treat, press the potential output setting switch 244 which is increased to 1000Vac by increasing the output voltage from 400Vac to 200Vac each time to set it to 800Vac, and then set the potential time setting switch 245 to the potential If you want to receive treatment for 3 hours, for example, if you want to receive potential treatment for 3 hours, press the potential setting button 245 three times to increase the setting time by 1 hour each time. When set, these signals are also input to the first and second controllers 210 and 270 through the R and S terminals of the second connector 130b.

At the same time, the signals related to the potential output and the potential output time are also input to the first controller 210 through the R and S terminals of the second connector 130b, so that the output terminals A, B, and Since the signal for controlling the potential output is output through the output terminal C of the C and D terminals, the signal is applied to the base terminal of the transistor Q5 through the bias resistors R9 and R10 of the potential switching unit 280 to be applied to the transistor Q5. ) Are respectively switched on and a current flows through the relay RY5 according to the switching-on of the transistor Q5 so that the movable contact RY5A is connected to the fixed contact RY5B, so that 80 Vac is connected to the first transformer T1. Applied and output from the secondary coil of the first transformer T1 for 3 hours to output 800Vac voltage at the 800Vac terminal of the potential generator 220 so that the user of the potential generator 220 can perform the potential treatment for the set 3 hours. have.

In the above description, in the case of output control of 400 Vac, 600 Vac, and 1000 Vac, the control signals (for 400 V, 600 V, 1000 V) output from the output terminals A, B, and D of the first controller 210 are converted into transistors Q3, Q4, Q6. Transistors Q3, Q4, and Q6 are connected to each other at the base terminals of the transistor), and 400Vac, 600Vac, and 1000Vac are applied to the primary coil of the first transformer T1. Since the operation theory is the same as the output of the 800Vac output to the potential generator 220, detailed description thereof will be omitted.

At this time, since the signal is input to the light emitting diodes LED43 and LED44 of the output display unit 300 through the R and S terminals of the second and third connectors 130b and 130c, the light emitting diodes LED43 and LED44 emit light. Power supply to the potential therapy device 220, and at the potential output time and the potential output time set by the potential output setting switch 244 and the potential time setting switch 245 of the input unit 240, respectively. Since the related signal is also input to the first and second controllers 210 and 270 through the R and S terminals of the second connector 130b, the set value display unit receives a control signal output from the second controller 270 from the set value display unit 250. When the potential output voltage is displayed on the potential output voltage display segment 254 of 250, on the potential output time display segment 255 of the set value display unit 250, and the potential is output from the potential generator 220. By the control of the first and second controllers 210 and 270 The power supply is applied to the heating wires 111a and 111b of the left and right heat transfer mats 100a and 100b because the operation of the heating power supply switch 260 and the left and right LED array driving means 270a and 270b is stopped. And the left and right LED arrays 280a and 280b do not emit light sequentially.

As described above, the electronic needle output switch of the input unit 240 whose output voltage is set to about (400 Vac), medium (800 Vac), and strong (1000 Vac) each time a voltage is set in the potential generator 220 is output. When the 246 is pressed twice to operate at 800 Vac, the light emitting diode LED45 of the output display unit 300 emits light indicating that a high voltage is being output from the electronic needle 230, and the signal is connected to the second connector. 130b) to the first and second controllers 210 and 270.

Accordingly, a control signal for a medium voltage (800Vac output) is output from the output terminal Y of the first controller 210, and the resistor is applied to the base terminal of the transistor Q8 constituting the switching unit 290 for applying the electron needle power. The control signal for MV is applied through the R15 and R16 to switch on the transistor Q8. As a result, current flows through the relay RY8 so that the movable contact RY8A contacts the fixed contact RY8B. 80Vac is applied to the primary coil of the second transformer T2, and 800Vac is output to the secondary coil of the second transformer T2. Once abutted and released, a shock wave is applied to the pain zone to cure the pain.

The potential output voltage and the potential output time set in the potential output voltage display segment 254 and the potential output time display segment 255 of the set value display unit 250 are received by receiving the control signal output from the second controller 270, respectively. do.

As described above, the present invention is used by placing the potential generator 220 on the left and right heating mats 100a and 100b, so that the solid state can be quickly and easily solidified when the potential generator 220 is broken or a failure occurs. It can reduce maintenance cost.

In the above description, when the potential is output from the potential generator 220, the heating wires 111a and 111b of the left and right heating mats 100a and 100b are controlled by the first and second controllers 210 and 270. Since the transistors Q1 and Q2 are not switched on, no current is applied to the transistors Q1 and Q2, and the time set by the thermal time setting switch 243 and the potential output setting switch 244 is determined by the first controller. The output of the control signal is controlled by counting by a timer (not shown) built in the 210.

In the above description, the potential generator 220 is placed on the far-infrared radiation layer 101 of the left and right heating mats 100a and 100b and controlled by a signal output from the controller 200 to perform the heat treatment and the potential treatment. Although the present invention has been described as an example, the present invention is not limited thereto. For example, the potential generator 220 is placed on a floor, a chair or a sofa, and the controller 200 and the potential generator 220 are electrically connected to each other. Of course it can also be used.

In the above description, although illustrated and described with reference to specific embodiments, the present invention is not limited to this, for example, by those of ordinary skill in the art without departing from the concept of the present invention Of course, the design can be changed in various ways.

As described above, the personal thermal / potential treatment device according to the present invention, receives power from the controller and radiates far infrared rays from the left and right thermal mats to promote blood circulation, and to treat pain, on the upper left and right thermal mats. Removably mounted separately, the high voltage is received from the first transformer secondary coil of the controller and the high voltage is output from the potential generator, and the high voltage output from the secondary side of the second transformer of the controller is received from the electronic needle. It is configured to output strong, medium, and weak voltage to the pain area, which promotes blood circulation and heats the body, not only makes it easy to cure pain, but also easily repairs and repairs. There is an excellent effect that the repair and maintenance time can be shortened.

Claims (8)

The controller 200 and the left and right heating mats 100a and 100b which radiate far infrared rays by receiving power from the controller 200 to treat pain and promote blood circulation, and the left and right heating mats ( Removably mounted on the far-infrared radiation layer 101 of 100a and 100b to receive a high voltage output from the secondary side of the first transformer T1 of the controller 200 to generate a potential to treat pain. A potential generator 220 and an electronic needle 230 that receives the high voltage output from the secondary side of the second transformer T2 of the controller 200 and outputs strong, medium, and weak voltages to the pain area. Personal heat / potential therapy device, characterized in that. According to claim 1, wherein the left and right heating mats (100a, 100b) is disposed in the carbon fiber layer 112 and the carbon fiber layer 112 coated with silicon by braiding carbon fibers with fiber glass to emit far infrared rays Heating wires (111a, 111b) for applying heat to release heat, the insulating plate (110) laminated on top of the heating wires (111a, 111b) to electrically insulate, and stacked on top of the insulating plate (110) An aluminum alloy layer 108 that blocks harmful waves (electromagnetic waves) and distributes heat evenly over the entire area, and far-infrared radiation emitting strong infrared rays by receiving heat radiated from the heating wires 111a and 111b. Laminated layer 101 and the aluminum alloy layer 108, and woven with fiber glass to prevent fire due to overheating of the heating wire (111a, 111b), and the aluminum alloy layer (1) by external pressure 08 is provided between the fiber glass layer 106 and the fiber glass layer 106 and the far-infrared radiation layer 101 to prevent deformation of the far-infrared radiation layer by heat generated from the heating wires 111a and 111b. 5 m / m ladle punching layer 102 to prevent the deformation of the PVC or urethane, the outer skin of 101 and the lower portion of the carbon fiber layer 112 to disperse the weight, and at the heating wire (111a, 111b) It is characterized in that it is composed of a high elastic cotton layer 114 to prevent the heat released to the lower portion, and a waterproof fabric layer 116 is installed below the high elastic cotton layer 114 to prevent the penetration of moisture. Personal thermal / potential therapy device. The controller 200 of claim 1, wherein the controller 200 includes first and second controllers 210 and 270 for controlling overall operations, and an input unit 240 for inputting a user's control command to the first and second controllers 210 and 270. And, when pressing the left and right heating temperature setting switch (241,242) of the input unit 240 to set the heat radiation temperature of the left and right heating mat (100a, 100b), the left output from the first controller 210 And the left and right warm heat mat power supply switching unit 260 which is switched to apply power to the left and right warm heat mats 100a and 100b according to the control signals for the right warm heat mats 100a and 100b, respectively. A power-on command is inputted by the right heat mat power supply switching unit 260 and the heat dissipation time of the left and right heat mats 100a and 100b is pressed by pressing the heat time setting switch 243 of the input unit 240. When set, power is applied to the left and right thermal mats 100a and 100b. Left and right LED array driving means (270a, 270b) for receiving the control signal output from the second controller 270 to sequentially drive the left and right LED array (270a, 270b) to indicate that there is; When the power supply is applied to the potential generator 220 by pressing the potential output setting switch 244 of the input unit 240, the potential generator is output by the potential output control signal output from the first controller 210. The potential switching unit 280 switched to output a high level of high voltage to the 220 and the electronic needle output setting switch 246 of the input unit 240 are pressed to set the application of power to the electronic needle 230. In this case, the electronic needle switching unit 290 and the input unit 240 is switched to output a predetermined level of voltage by the electronic needle output control signal output from the first controller 210, Left and Right Heat Temperature Setting Switch Values 241 and 242, thermal time setting switch 243, potential output setting switch 244, potential output time setting switch 245 and electronic needle output setting switch 246 to indicate that the user's command signal has been input. An output display unit 300 consisting of two light emitting diodes (LED40 to LED45), left and right heating temperature setting switches (241 and 242), heating time setting switch (243), potential output setting switch (244), and the like. When the user's command signal is inputted by the potential output time setting switch 245 and the electronic needle output setting switch 246, the heat setting temperature, the heat time and the present temperature of the left and right heating mats 100a and 100b, Personal thermal / potential therapy device, characterized in that the set value display unit 310 for displaying the potential output time and potential output voltage of the potential generator 220, and the output voltage of the electronic needle 230, respectively. The dislocation generator 220 of claim 1, wherein the dislocation generator 220 includes a fibrous plate 221, a carbon layer 222 having carbon powder deposited on both surfaces of the fibrous plate 221 together with an adhesive, and the fibrous plate 221 and a carbon layer. An electrode terminal 223 fixed by the rivet pin 223a to electrically connect the 222, a shock absorbing layer 224 covering both surfaces of the electrode terminal 223 so as not to be shorted by an impact, and the electrode terminal A lead wire 225 having one side clamped by 223 and a jack fixed to the other side to a potential output terminal, lower and inner vinyl layers 226a and 226b covering the lower portion of the carbon layer 222, and An adhesive tape layer 227 for adhering the carbon layer 222 and the inner vinyl layer 226b to fix the carbon layer 222 mounted on the inner vinyl layer 226, and the inner vinyl layer vinyl layer Personal warming, characterized in that it consists of an upper vinyl layer 228 with edges adhered to 226b and 226a. Dislocation therapy device. The control unit of claim 3, wherein the input unit 240 is set to 75 ° C. by 5 ° C. each time it is pressed once, and applies power to heat the left and right thermal mats 100a and 100b. The left and right heat temperature setting switches 241 and 242 for inputting signals to the P and R terminals of the first and second controllers 210 through the connector 130b, and the set time increases by 1 hour each time they are pressed. The heat time is set up to 8 hours and inputs a control signal for setting the heat dissipation time of the left and right heat mats 100a and 100b to the O terminals of the first and second controllers 210 through the connector 130b. Each press of the setting switch 243 and the output voltage increases by 200 Vac from 400 Vac to 1000 Vac. The potential generator 220 selectively outputs the high voltage of 400 Vac to 1000 Vac through the connector 130b. Inputs to the T terminals of the first and second controllers 210. Each of the first and second output time setting switch 244 and the output time increases by 1 hour each time the pressure is increased by up to 8 hours and the connector 130b through the connector 130b to set the output time of the high voltage in the potential generator 220. The potential output time setting switch 245 input to the R terminal of the second controller 210 and the output voltage are set to about (400 Vac), medium (800 Vac) and strong (1000 Vac) each time the electronic needle is pressed. The electronic needle output setting switch 246 is input to the U terminal of the first and second controllers 210 through the connector 130b so as to output strong, medium and weak voltages at 230. Personal thermal / potential therapy device. 4. The left and right thermal mat power supply switching unit 260 is configured to bias the left and right thermal mat power supply control signals output from the output terminals E and F of the first controller 210. Transistors Q1 and Q2 that are respectively received through (R1, R2) (R3, R4) and switched, and current flows during switching-on of the transistors Q1 and Q2 so that the left and right thermal mats 100 a and 100b Relays (RY1, RY2) connecting the movable contacts (RY1A, RY2A) to the fixed contacts (RY1B, RY2B) so that a current flows through the heating wires (111a, 111b), and the relays (RY1, RY2) Personal heat / potential treatment device, characterized in that consisting of diodes (D1, D2) to prevent flow. 4. The bias switch of claim 3, wherein the potential switching unit 280 biases an output control signal of 400 Vac, 600 Vac, 800 Vac, and 1000 Vac output from the output terminals A, B, C, and D of the first controller 210. Transistors Q3, Q4, Q5, Q6 that are respectively received and switched through (R5, R6) (R7, R8) (R9, R10) (R11, R12), and the transistors Q3, Q4, Q5, Q6 Current flows when switching on, so that the relays RY3, RY4, RY5, RY6 connect the movable contacts RY3A, RY4A, RY5A, RY6A to the fixed contacts RY3B, RY4B, RY5B, RY6B, respectively. The first connectors 130a when a current flows through the diodes D3, D4, D5, and D6 for preventing reverse current flow through the RY4, RY5, and RY6, and the relays RY3, RY4, RY5, and RY6, respectively. The first transformer receives and boosts the voltage of any one of 40 Vac, 60 Vac, 80 Vac, and 100 Vac from the primary coil to output a voltage of 400 Vac, 600 Vac, 800 Vac, or 1000 Vac from the secondary coil from the potential generator 220. Consisting of (T1) Personal heat / electric potential therapy apparatus according to claim. The method of claim 3, wherein the electron needle switching unit 290 is configured to output an output control signal of HV, MV, and LV output from the output terminals X, Y, and Z of the first controller 210. Transistors Q7, Q8 and Q9 that are received and switched respectively through R14 and R15 and R16 and R17 and R18, and current flows when switching on the transistors Q7, Q8 and Q9. Relays RY7, RY8, RY9 connecting RY8A, RY9A to the fixed contacts RY7B, RY8B, RY9B, and diodes D7, D8 for preventing the flow of reverse current to the relays RY7, RY8, RY9. , D9), and when one of the relays (RY7, RY8, RY9) flows, respectively, the voltage of any one of 40 Vac, 60 Vac, and 100 Vac is increased from the primary coil through the first connector 130a. Personal heating / characterized in that the second transformer (T2) for outputting the voltage of any one of about (400Vac), medium (800Vac) and steel (1000Vac) from the electromagnetic coil 230 in the vehicle side coil Above therapy.