KR200203214Y1 - Apparatus for appling acupuncture electronical - Google Patents

Abstract

The present invention relates to an apparatus for electronically treating acupuncture to treat a patient by easily placing a needle on a place where a user wants to place a needle by a simple operation of a user, and receives a 5V power output from the power supply unit 100. System control unit 200 for controlling the system, the first and second multiplexing unit (300, 400) for receiving and multiplexing the signal output from the system control unit 200, and when the error occurs in the system to detect and display From the system check unit 500, a power selection output unit 600 for controlling to select and output the voltage of 5V and 7V, an output unit 700 for generating a pulse sound, and from the second multiplexing unit 400 The pulse generator 800 receives the output signal and outputs a pulse signal of a predetermined period, and receives the voltage of 5V or 7V output from the power selection output unit 600 and the pulse generator 800. Characterized in that consists of up output pulse signal amplifier 900 for amplifying the pulse signals.

Description

Electronically acupuncture device {APPARATUS FOR APPLING ACUPUNCTURE ELECTRONICAL}

The present invention is an apparatus for electronically treating acupuncture needles (hereinafter, referred to as electronic needles). In particular, the needle is electronically intended to treat a patient by easily placing the needle on a place where the needle is to be placed by a simple operation of a user. It relates to a device to be treated.

In order to place a needle in a conventional medicine, a large number of needles are placed on the affected part of the patient, but in this case, the needles are complicated to use, and in addition, the needle is plugged into the affected part for a predetermined time. There was a problem of reluctance.

The present invention is to solve the problems as described above, by providing an automatic needle to the affected part of the patient with an electronic needle, to provide a device for the procedure of electronic acupuncture that can simply treat the patient without any burden on the patient.

The device for the procedure of the electronic needle of the present invention for achieving the above object, the power supply unit for supplying power by receiving external power, and the system control unit for controlling the system by receiving the power of 5V output from the power supply unit A first multiplexing unit receiving and multiplexing a signal output from the system control unit, a second multiplexing unit receiving and multiplexing a signal output from the first multiplexing unit and a signal output from the system control unit, and the system A system check unit which receives a signal output from the controller and detects an error in the system and displays it, and a power selection output unit which controls to select and output a voltage of 5V and 7V by receiving a signal output from the system controller. And, receiving the signal output from the system control unit An output unit for generating a pulse sound, a pulse generator for receiving a signal output from the second multiplexing unit, and outputting a pulse signal of a predetermined period, and receiving a voltage of 5V or 7V output from the power selection output unit And a pulse signal amplifier for amplifying the pulse signal output from the pulse generator.

1 is an external view of an apparatus for electronically treating a needle of the present invention,

2 is a circuit diagram of an electronic needle treatment device of the present invention,

3 is a timing chart showing a state of operation by the first multiplexing unit, the second multiplexing unit, and the pulse generating unit;

4 is related to a screen output when the system is driven.

<Description of the code | symbol about the principal part of drawing>

100: power supply unit 102: power switch

103: first flip-flop 104: relay unit

105,107: power converter 106: connector

200: system control unit 202: control means

204: first switch 206: second switch

208: third switch 210: fourth switch

212: fifth switch 214: sixth switch

300: first multiplexing unit 302, 304, 306, 308: NAND gate

309, 310: unstable oscillator 400: the second multiplexing unit

402,404, 406, 408: Nandgate

500: system check unit 502, 504: NAND gate

506, 508: display unit 600: voltage selection output unit

602: NAND gate 700: output unit

704: buzzer 800: pulse generator

802: second flip-flop 804, 806: unstable generator

900: pulse signal amplifier 902: transformer

904 output terminal

Detailed configuration of the device for the procedure of the electronic needle of the present invention is described as follows through the accompanying drawings.

1 is an external case of the present invention, Figure 2 is a specific circuit diagram of the present invention, the power supply unit 100 for supplying power of 5V and 9V by receiving external power, and is output from the power supply unit 100 A system controller 200 for controlling a system by receiving a 5V power, a first multiplexing unit 300 for multiplexing a signal output from the system controller 200, and the first multiplexing unit ( A second multiplexing unit 400 for receiving and multiplexing a signal output from the system 300 and a signal output from the system control unit 200, and an error output to the system by receiving a signal output from the system control unit 200; Detects and generates a system check unit 500 for displaying and then controls to select and output a voltage of 5V and 7V by receiving a signal output from the system control unit 200. Is a power selection output unit 600, an output unit 700 for receiving a signal output from the system control unit 200 to generate a pulse sound, and a signal output from the second multiplexing unit 400 A pulse generator 800 for receiving a predetermined period and outputting a pulse signal at a predetermined period, and a pulse signal output from the pulse generator 800 by receiving a voltage of 5V or 7V output from the power selection output unit 600. And a pulse signal amplifier 900 for amplifying the signal.

The power supply unit 100 is a part for applying power of 5V and 9V to the device of the present invention by receiving external power. When the user presses the power switch 102 to drive the device, the first flip-flop is performed. A transistor Q9 for receiving and switching a high signal output from 103 and a terminal of the connector unit 106 connected to a collector terminal of the transistor Q9 as switched by the transistor Q9. A relay unit 104 is configured to turn on and off the power applied from the power supply.

Also, 5V of the power output from the power supply unit 100 is applied only to the system control unit 200 and the display units 506 and 508, and 9V power is applied to the remaining devices.

The system controller 200 includes a control means 202 for controlling the system as a whole, a first switch 204 connected to the control means 202 to set a use time, and an enter key for displaying a next screen. a second switch 206 which is an enter key, a third switch 208 for setting a mode, a fourth switch 210 for setting a frequency, and an output from the power selection output unit 600 The fifth switch 212 for applying a signal to the control means 202 to control a 5V or 7V power supply, and if there is an error in the system, the output signal is applied to the system check unit 500 to drive the system. It consists of a sixth switch 214 for controlling.

The first multiplexing unit 300 includes an unstable oscillator 309 for outputting a pulse of a constant cycle, an unstable oscillator 310 for outputting a pulse of a constant cycle different from the unstable oscillator 309, and the It is composed of a plurality of NAND gates 302, 304, 306, 308 to receive and multiplex the signal output from the control means 202 and the signals output from the unstable oscillator 309 and the unstable oscillator 310.

In the NAND gate 304 which is multiplexed at the NAND gates 302, 304, 306 and 308 and finally outputs a mixed signal, the pulse signals output from the unstable oscillator 309 and the unstable oscillator 310 as shown in FIG. 3. Is mixed and output.

The second multiplexing unit 400 receives a mixed signal output from the NAND gate 304 of the first multiplexing unit 300 and a signal output from the control means 202 and multiplexes the multiplexing unit once again. NAND gates 402, 404, 406 and 408.

In addition, the system check unit 500 displays a plurality of NAND gates 502 and 504 for receiving and inverting control signals output from the control unit 202 and the signals output from the NAND gates 502 and 504. Is composed of a display unit 506 and a display unit 508.

That is, if there is an abnormality in the system, the red of the display unit 506 turns ON and indicates an abnormal state. In the normal case, the display unit 508 turns green. Indicates that it is normal.

In addition, the power selection output unit 600 receives and switches a signal for applying the 7 V power output from the control unit 202 to the pulse signal amplifier 900, and the transistor Q6. A NAND gate 602 connected to a collector terminal of the N FET), a transistor Q10 for switching the signal output from the NAND gate 602 to a base terminal, and an emitter of the transistor Q10. a transistor connected to an emitter terminal and receiving a signal from the system check unit 500 to cut off the power supplied to the pulse signal amplifier 900 when the system check unit 500 determines that the system is abnormal. (Q8) and a transistor (Q7) for receiving and switching the signal to apply the 5V power output from the control means 202 to the pulse signal amplifier 900.

The output unit 700 is connected to a transistor Q2 and a collector terminal of the transistor Q2 that receive and switch a signal output from the control means 202 or a signal output from the pulse generator 800. And a buzzer 704 that generates a buzzer when the transistor Q2 is turned on.

The pulse generator 800 receives a signal output from the second multiplexing unit 400 and outputs a pulse signal of a predetermined period, and the second flip-flop 802 of the second flip-flop 802. The pulse signal output from the cub Q 'terminal of the second flip-flop 802 and the unstable generator 804 for differentiating the pulse signal output from the queue Q terminal and outputting another pulse signal again. It is composed of an unstable generator 806 which outputs different pulse signals again after differentiation.

In addition, the pulse signal amplifier 900 includes a plurality of amplification units, the transistor Q3 for switching the signal output from the unstable generator 806 to a base terminal, and the unstable generator 804. Transistor Q4 for receiving and switching the signal output from the base terminal, a transformer 902 for amplifying to a high voltage by receiving power of 5V or 7V output from the power selection output unit 600, and the transformer The output terminal 904 is connected to receive a pulse signal amplified to a high voltage by 902 and to be used as an electronic needle for the treatment of the patient.

Referring to the accompanying drawings, the operation, effects of the present invention configured as described above are as follows.

When the user turns on the power switch 102 of the power supply unit 100, a high signal is output through the first flip-flop 103 connected to the power switch 102, and the high signal is output to the transistor Q9. Transistor Q9 is turned on by being applied to the base terminal.

As described above, when the transistor Q9 is turned on, the power converter 105 which receives external power through the connector 106 while the relay unit 104 connected to the collector terminal of the transistor Q9 is connected to each other. 9V outputs power), and outputs 5V power by a separate power converter 107.

As such, the system controller 200 receiving the 5V power output by the power supply unit 100 outputs a control signal to the buzzer 704 of the output unit 700 to provide a system as shown in FIG. A buzzer sound is generated to indicate an initial state, and then, when the second switch 206 is operated, a screen as shown in FIG. 4 (b) is output.

Subsequently, when the plurality of switches are operated, first, the first switch 204 is operated to set the use time, the third switch 208 is operated to set the mode state, and the fourth switch 210 is operated to be used. Set the frequency, operate the fifth switch 212 to set the power applied to the pulse signal amplifier 900, and then operate the second switch 206 to display a screen as shown in FIG. Output it.

As described above, when the user sets various states according to the state of the patient, the control means 202 connected to the plurality of switches controls this.

On the other hand, the first multiplexing unit 300 receives and multiplexes the signals output from the control means 202 and the different pulse signals output from the unstable oscillators 309 and 310, respectively, and then receives these signals. As shown in FIG. 3, the gate 304 outputs a mixed signal of different frequencies.

As such, when the NAND gate 406 receiving the different pulse signal output from the NAND gate 304 and the signal output from the NAND gate 402 outputs a pulse signal of a constant frequency, the NAND gate 406 In the NAND gate 404 that receives the output pulse signal and the signal output from the NAND gate 408, pulse signals having different frequencies as shown in FIG. 3 are mixed and output.

The cue Q terminal of the second flip-flop 802 that receives the mixed signal output from the NAND gate 404 outputs a pulse signal as shown in FIG. 3, and then differentiates through a differential signal. Is applied to input terminal 2 of unstable generator 804.

Then, the signal as shown in FIG. 3 is output from the queue Q terminal of the unstable generator 804 by the operation of the unstable generator 804.

In addition, the cub Q ′ terminal of the second flip-flop 802 that receives the mixed signal output from the NAND gate 404 outputs a pulse signal as shown in FIG. 3, and then derivatives the derivative signal through a differential signal. Is applied to the input terminal 2 of the unstable generator 806.

Then, the signal as shown in FIG. 3 is output from the queue Q terminal of the unstable generator 806 by the operation of the unstable generator 806.

As such, when a pulse signal having a predetermined period is output from the queue Q terminals of the unstable generators 804 and 806 or one of the signals output from the control means 202 is inputted, the transistor Q2 is turned on. The signal is applied to the base terminal, and then the transistor Q2 is turned on.

When the transistor Q2 is turned on by the above operation, the buzzer 704 connected to the collector terminal of the transistor Q2 is operated to generate a buzzer sound according to a pulse signal having a certain period.

On the other hand, the NAND gates 502, 504 of the system check unit 500 that receives the signal output from the control means 202 processes these signals and determines that the device is not in a normal state to the device of the present invention. The display unit 506 is operated by the signal output from the means 202, and a red signal is output. When the device of the present invention is determined to be normal, the display unit 508 operates to produce a green signal. Will print.

When the signal output from the control means 202 is to apply a high voltage of 7V to the pulse signal amplifier 900, a high signal is output to the base terminal of the transistor Q6. After inverting the signal at the NAND gate 602 connected to the collector terminal of Q6, the high voltage of 7V is pulsed by applying the output signal of the NAND gate 602 to the base terminal of the transistor Q10. The transformer 902 of the signal amplifier 900 is applied.

On the contrary, when the signal output from the control means 202 is to apply a low voltage of 5V to the pulse signal amplifier 900, a high signal is output to the base terminal of the transistor Q7. A low voltage of 5V is applied to the transformer 902 of the pulse signal amplifier 900 through the emitter terminal of the transistor Q7.

In this way, a voltage of 5 V or 7 V applied from the power selection output unit 600 is applied to the transformer 902 of the pulse signal amplifier 900, and then the unstable generator 804 of the pulse generator 800. The pulse signal output from the queue (Q) terminal of () is applied to the base terminal of the transistor Q4.

When the pulse signal output from the queue Q terminal of the unstable generator 806 is applied to the base terminal of the transistor Q3, the transistors Q3 and Q4 are turned on so that the transistors Q3 and Q4. After the pulse signal is amplified by the transformer 902 connected to the collector terminal of the (), it is applied to the output terminal 904.

Then, the user places the electronic needle on the affected part of the patient using an electronic needle (not shown) connected to the output terminal 904, and when a predetermined time elapses, the screen of FIG. After ringing, the screen of FIG. 4 (A), which is the initial screen, is output.

The electronic needle acupuncture device of the present invention configured as described above is able to simply put the electronic needle on the patient without any additional manipulation, and the patient's position would be somewhat frightening when placing the simple needle as in the prior art. It is designed to completely solve anxiety.

Claims (11)

The power supply unit 100 for supplying power by receiving external power, the system control unit 200 for controlling the system by receiving power of 5V output from the power supply unit 100, and the output from the system control unit 200 A first multiplexing unit 300 receiving and multiplexing a signal, a second multiplexing unit 400 receiving and multiplexing a signal output from the first multiplexing unit 300 and a signal output from the system controller 200. And a system check unit 500 that receives the signal output from the system controller 200 and detects an error in the system and displays it, and receives a signal output from the system controller 200 5V or 7V. A power selection output unit 600 for controlling to select and output a voltage of the output unit; and an output unit for generating a pulse sound by receiving a signal output from the system controller 200; 700, a pulse generator 800 for receiving a signal output from the second multiplexing unit 400 and outputting a pulse signal of a predetermined period, and 5V or 7V output from the power selection output unit 600. Apparatus for electronic needle treatment, characterized in that consisting of a pulse signal amplifier (900) for receiving a voltage and amplifying the pulse signal output from the pulse generator (800). 2. The transistor of claim 1, wherein the power supply unit 100 receives a high signal output from the first flip-flop 103 when the power switch 102 is pressed, and switches by the transistor Q9 and the transistor Q9. As switched, a relay unit 104 connected to the collector terminal of the transistor Q9 to turn on and off the power applied from the terminal of the connector unit 106 and a power source that receives an external power source and converts the power into a 9V power source. An electronic needle treatment apparatus comprising a converter (105) and a power converter (107) for converting the power into a 5V power source. According to claim 1, The system control unit 200 is a control means 202 for controlling the system as a whole, a first switch 204 connected to the control means 202 to set the use time, the power supply of the system The second switch 206, which is an enter key for the next operation of the logo screen that appears after pressing, the third switch 208 for setting the mode, the fourth switch 210 for setting the frequency, and The fifth switch 212 for applying a signal to the control means 202 to control the 5V or 7V power output from the power selection output unit 600, and the system check unit 500 if there is an error in the system And a sixth switch (214) for controlling the operation of the system by applying an output signal to the electronic device. The oscillator of claim 1, wherein the first multiplexing unit 300 includes an unstable oscillator 309 for outputting a pulse of a constant cycle and an unstable oscillator for outputting a pulse signal of a constant cycle different from the unstable oscillator 309. And a plurality of NAND gates 302, 304, 306, and 308 that receive and multiplex the signal output from the control means 202 and the signals output from the unstable oscillator 309 and the unstable oscillator 310. An electronic needle treatment device, characterized in that. The method of claim 1, wherein the second multiplexing unit 400 receives and receives a mixed signal output from the NAND gate 304 of the first multiplexing unit 300 and a signal output from the control unit 202. An electronic needle treatment apparatus comprising a plurality of NAND gates (402, 404, 406, 408). According to claim 1, The system check unit 500 is a plurality of NAND gates (502, 504) for receiving and inverting the control signal output from the control means 202 and the signal output from the NAND gates (502, 504) Electronic display device is characterized in that it is composed of a display unit (506,508) to display accordingly. 2. The transistor of claim 1, wherein the power selection output unit 600 receives and switches a signal for applying a 7V power output from the control unit 202 to the pulse signal amplifier 900; NAND gate 602 connected to the collector terminal of transistor Q6, a transistor Q10 to which a signal output from the NAND gate 602 is applied to the base terminal, and to switch, and the transistor Q10. A transistor connected to the emitter terminal of the transistor that cuts off the power supplied to the pulse signal amplification unit 900 by receiving a signal from the system check unit 500 when the system check unit 500 determines that the system is abnormal. (Q8) and a transistor (Q7) for receiving and switching the signal to apply the 5V power output from the control means 202 to the pulse signal amplifier 900, Typically the device to the saliva treatment. The transistor Q2 of claim 1, wherein the output unit 700 receives a signal output from the control unit 202 or a signal output from the pulse generator 800 and is controlled by a variable resistor to switch. And a buzzer (704) which is connected to the collector terminal of the transistor (Q2) and generates a buzzer when the transistor (Q2) is turned on. 2. The second flip-flop 802 according to claim 1, wherein the pulse generator 800 receives a signal output from the second multiplexing unit 400 and outputs a pulse signal of a predetermined period. In the unstable generator 804 for differentiating the pulse signal output from the queue (Q) terminal of the flop 802 and outputs a different pulse signal again, and in the cubar (Q ') terminal of the second flip-flop (802) And an unstable generator (806) for differentiating an output pulse signal and outputting another pulse signal again. The non-stable generator (804) of claim 1, wherein the pulse signal amplifier (900) is output from the unstable generator (804) and the transistor (Q3) for receiving and switching a signal output from the unstable generator (806) to a base terminal. A transistor (Q4) for receiving and switching a signal to a base terminal, a transformer (902) for receiving a 5V or 7V power output from the power selection output unit (600) and amplifying the signal to a high voltage, and the transformer (902). And an output terminal (904) configured to receive a pulse signal amplified to a high voltage by use as an electronic needle for the treatment of a patient. 11. The apparatus of claim 10, wherein the pulse signal amplification unit (900) is formed in plural.