TWI480076B - High voltage potential therapy device - Google Patents

Description

High voltage potential therapy device

The present invention relates to a high-voltage potential therapeutic apparatus which makes it possible to apply a high-voltage direct current or alternating current potential treatment to a subject, and more particularly, to refer to a pulse rate of a subject, and apply a high voltage when a parasympathetic nerve acts, A high-voltage potential therapeutic device that improves treatment efficiency.

In the past, as a device for treating headache, shoulder stiffness, insomnia, and the like, a high-voltage potential therapeutic device having an effect of promoting blood circulation and improving physical fitness has been used.

That is, the high-voltage potential therapeutic device is a device that applies a high-voltage potential to the body of the subject, and by using the high-voltage potential therapeutic device, the blood circulation of the subject is improved to improve the constitution, and the headache and the shoulder are stiff. Insomnia and so on disappeared.

However, the potential treatment system that applies a high-voltage potential to the body of the subject has a function of promoting the parasympathetic nerve and promoting the metabolism of the old waste accumulated in the body. Therefore, in order to improve the treatment efficiency, it is preferable to relax the body and mind, in the sense of parasympathy. When the nerve acts, it is treated. Therefore, there is a case where a high-voltage potential therapeutic device is used for potential treatment during sleep relaxing.

In addition, the treatment using a high-pressure potential therapeutic device requires a complete treatment time of, for example, one hour, so that a person who has not been able to take out a complete treatment time during the day has a high-voltage potential treatment using sleep time.

However, in the case of the conventional high-voltage potential therapy device, when the high-voltage potential treatment is performed during sleep, the vibration specific to the communication may hinder sleep, and thus it is difficult to perform effective treatment.

That is to say, in general, sleep is considered to be fast eye movement sleep with light sleep and non-rapid eye movement sleep for deep sleep. In addition, non-rapid eye movement sleep is from the first stage of shallow sleep to the fourth stage of deep sleep. In the 4th stage, it is thought that when people are sleeping, they start from the first stage of non-rapid eye movement sleep, then gradually enter the second stage of non-rapid eye movement sleep until the deep sleep of stage 4, and finally enter the shallow sleep. Rapid eye movement sleep, this is a cycle of sleep, the cycle is about 90 minutes. However, the conventional high-voltage potential therapy device has the following problems: if the voltage is turned on after setting the voltage value in advance, the subject is treated from the beginning of the treatment. When the predetermined voltage value is applied, for example, when the voltage value exceeds 1000 V, when the sleep at the start of the treatment is shallow, the vibration specific to the communication is transmitted to the subject, and the vibration is applied to the subject's sleep. Caused by hindrance.

In addition, when the voltage value is set to a low value, for example, when the voltage value is lowered to 1000 V or less, the vibration is not transmitted to the subject, but since the voltage value is higher in the high voltage potential treatment, the effect is better, so when When the voltage value is set to 1000 V, there is a problem that it is difficult to obtain a higher effect.

Therefore, the present inventors have proposed in the past to cooperate with the above-described sleep tempo to gradually increase the voltage applied to the subject, thereby preventing the vibration of the communication from being transmitted to the subject during the shallow sleep at the beginning of the sleep, without hindering sleep. In the case, a high-voltage potential therapy device that performs effective high-voltage potential therapy.

[Patent Document 1] Japanese Patent Laid-Open Publication No. 2005-40241

[Patent Document 2] Japanese Patent Laid-Open Publication No. Hei 9-28813

[Patent Document 3] Japanese Patent Publication No. 7-13723

However, as mentioned above, human sleep begins with stage 1 of shallow, non-rapid eye movement sleep, then gradually shifts to stage 2 of non-rapid eye movement sleep to deep sleep of stage 4, and finally enters shallow sleep. Eye movement sleep, which is a cycle of sleep, is generally considered to be about 90 minutes, but the time of each stage is personally different, and the time of each stage is different for different people.

The high-voltage potential therapeutic device of the above-mentioned Japanese Patent Laid-Open Publication No. 2005-40241 prescribes a plurality of types of voltage values applied to the subject, and the order and time at which the voltages are applied to the subject, at the beginning of the treatment. At the same time, according to its setting, the voltage of the input power source is converted to the required voltage and applied to the body of the subject, that is, the personal difference of the sleep tempo is completely ignored, and the plural applied to the subject is generally set. The type of voltage value and the order and time at which the voltage is applied to the subject.

Therefore, the high-voltage potential therapeutic apparatus of the above-mentioned Japanese Patent Laid-Open No. 2005-40241 does not necessarily improve the treatment efficiency even if a high pressure is applied to the subject during a period in which the voltage is not actually required to be raised.

Therefore, an object of the present invention is to provide a high-voltage potential therapeutic apparatus capable of realizing effective potential treatment by adjusting a voltage level applied to a subject according to the state of the subject.

According to a first aspect of the invention, a high-voltage potential therapeutic apparatus for applying a high-voltage potential to a subject and performing potential therapy includes a voltage control means for controlling a voltage of an input power source to a predetermined voltage; The high-voltage potential generating means is configured to convert a power source that has been compressed to a predetermined voltage level by the voltage control means, convert it into a high-voltage DC or an alternating current, and output it; and an output means for using the high-voltage potential generating means The generated high-voltage direct current or alternating current is output to the side of the subject; the microcomputer is provided with a mode converter capable of selecting a complex mode, and according to the mode setting of the mode converter, at least the above-mentioned voltage control means, high-voltage potential generating means and output are controlled. The action of the means; and the pulse sensor is configured to detect the pulse of the subject and output the detected pulse signal; according to the pulse rate detected by the pulse sensor, controlled by the microcomputer The voltage of the above input power source can be controlled to a predetermined voltage.

Further, the second aspect of the invention is a high-voltage potential therapeutic apparatus for applying a high-voltage potential or a warm treatment to a subject, and is characterized in that the user is provided with a voltage control means for controlling the voltage of the input power source. It is a predetermined voltage; the switching means is used for switching potential treatment and warming treatment; the high-voltage potential generating means is for selecting a potential treatment, and the power source for transforming the voltage to a predetermined voltage level by the above voltage control means Converting into a high-voltage DC or AC and outputting it; the output means is for outputting a high-voltage DC or AC generated by the high-voltage potential generating means when a potential is applied to the subject, and applying to the subject When warming up, the power is controlled to be outputted by the voltage control means to a predetermined voltage; the microcomputer is provided with a mode converter capable of selecting a complex mode, and at least controlling the voltage control means according to the mode setting of the mode converter , switching means, high-voltage potential generating means and output means; and pulse sensor Detecting the pulse of the subject and outputting the detected pulse signal; when applying a potential to the subject, according to the pulse rate detected by the pulse sensor, the above-mentioned microcomputer control The voltage of the input power source is controlled to a predetermined voltage.

The high-voltage potential therapeutic device of the present invention is provided with a voltage control means for controlling the voltage of the input power source to a predetermined voltage; and a high-voltage potential generating means for transforming the voltage level to a predetermined voltage level via the voltage control means The quasi-power source is converted into a high-voltage DC or AC and output; the output means is used to output the high-voltage DC or AC generated by the high-voltage potential generating means to the side of the subject; the microcomputer controls at least the above voltage control Means, action of high-voltage potential generating means and output means; and pulse-sensing sensor for detecting a pulse of the subject and outputting the detected pulse signal; and detecting according to the pulse sensor The pulse rate can be controlled by a microcomputer to control the voltage of the input power source to a predetermined voltage.

As described above, the high-voltage potential therapeutic apparatus of the present invention can monitor the pulse rate of the subject by the pulse sensor, and the voltage of the input power source can be set to a predetermined voltage according to the pulse rate of the subject, so that it can be treated. In the case of the parasympathetic action of the person, a high voltage is applied to the subject, and an effective potential treatment is performed.

That is to say, humans have sympathetic nerves and parasympathetic nerves. When humans are active and excited during the day, the sympathetic nerves move, and when humans relax during sleep, the parasympathetic nerves move, and when the parasympathetic nerves move. When relaxed, the blood vessels dilate and the pulse rate decreases.

Therefore, the high-voltage potential therapeutic device of the present invention can set the voltage of the input power source to a predetermined voltage according to the pulse rate of the subject, by applying a high voltage to the subject when the pulse rate is small, and a parasympathetic feeling in the subject. When the nerve is moving, a high voltage can be applied to perform effective potential treatment.

The high-voltage potential therapeutic device of the present invention is provided with a DC conversion power source for converting a voltage of an input power source into a predetermined voltage. Further, the switching power supply is connected to a voltage control means for controlling the voltage of the input power source to a predetermined voltage.

Further, the voltage control means is connected to a microcomputer as a control means for controlling the operation of the entire high-voltage potentiometer, and controlling the voltage control means based on an instruction set by the transmission mode converter to control the voltage control means The converted voltage value.

Next, the voltage control means is connected with a switching means for outputting the power source that is converted to a predetermined voltage by the voltage control means according to the control of the microcomputer, and outputting it to the potential treatment or outputting the heat treatment. Use to switch.

Then, the switching means is connected to a high-voltage potential generating means. In the high-voltage potential generating means, the voltage control means is transformed into a predetermined voltage and output to the power source for potential therapy, and is converted into a high-voltage DC or AC and output. .

Further, the switching means is connected to an output means, and in the case of performing the warming treatment, the output means outputs the power source for the warming treatment from the switching means to the high-voltage socket, and on the other hand, performs the potential treatment. In the case, the power output from the high-voltage potential generating means is output to the high-voltage socket.

Furthermore, the high-voltage potential therapeutic apparatus of the present invention has a pulse sensor for detecting a pulse of a subject and outputting the detected pulse signal, and the pulse sensor is connected to a microcomputer.

Then, when a potential is applied to the subject, the pulse sensor monitors the pulse of the subject, and based on the detected pulse rate, the voltage value converted by the voltage control means can be controlled by the microcomputer.

Next, the high-voltage potential generating means includes a pulse oscillation circuit that converts a power source that is output from the voltage control means to the potential treatment into a high-voltage pulse signal, and the pulse oscillation circuit is connected to the subject to apply an alternating current to the subject. The signal on the positive side and the signal on the negative side are respectively extracted from the pulse signal, and when DC is applied to the subject, the phase control circuit for the signal on the negative side is taken out from the pulse signal.

Further, the phase control circuit is connected to a multiplying circuit for converting the output from the phase control circuit to a high voltage.

Further, the multiplying circuit is connected to an output control circuit for synthesizing a zero point for a signal converted into a high voltage by the multiplying circuit.

Then, when the switch is opened in such a configuration, the pulse sensor monitors the pulse rate of the subject, and when a potential is applied to the subject, the microcomputer can be used according to the pulse rate detected by the pulse sensor. In the voltage control means, the voltage of the input power source is transformed into a predetermined voltage, and the voltage of the power source outputted from the voltage control means is converted into a high-voltage DC or AC in the high-voltage potential generating means, and then transmitted through the output means. Output to high voltage socket.

On the other hand, when warming is applied to the subject, the power source converted to the predetermined voltage by the voltage control circuit is output to the output means through the switching means, and further outputted to the high voltage socket.

[Example 1]

The embodiment of the high-voltage potential therapeutic apparatus of the present invention will be described with reference to the drawings. FIG. 1 is a block diagram showing the circuit configuration of the high-voltage potential therapeutic apparatus 1 of the present embodiment, and the high-voltage potential therapeutic apparatus 1 shown in FIG. In addition to potential therapy, warm treatment can also be performed by a heater, and in the case of potential therapy, direct current and alternating current can be switched based on the choice of the subject.

In other words, the high-voltage potential therapeutic apparatus 1 of the present embodiment includes a microcomputer 5 as a control means for controlling the entire therapeutic device, and the microcomputer 5 is connected to a mode converter 6 and a display means for selecting a mode and various settings. 7. The speaker 8 as a sound generating means can set the type of the mode and the voltage value by the mode converter 6 while referring to the display of the display means 7 and the sound guidance of the speaker 8.

Further, as a mode that can be set in the present embodiment, at least (1) potential therapy alone, (2) thermotherapy only, (3) switching potential therapy and warm therapy every predetermined time, and (4) pulse according to pulse. The number of DC treatments that cause voltage changes, and (5) AC treatment that changes the voltage according to the pulse rate.

Further, as the voltage value that can be set in the present embodiment, the case of the direct current voltage is 1000V to 14000V, and the case of the alternating current is 1000V to 9000V, and the warming can also be selected in a plurality of stages.

Further, for example, when the treatment for changing the voltage according to the pulse rate is selected, the applied voltage value is set according to the pulse rate or the automatic setting is selected, and a voltage set in advance corresponding to the pulse rate is applied to the subject.

In addition, the high-voltage potential therapeutic device of the present embodiment is provided with a high-voltage socket 9 connected to a power-on pad 25 having a conductive means such as a nichrome wire and a special carbon film, and is passed through the power-on pad 25, Potential treatment and warm treatment can be performed on the subject.

Next, the circuit configuration of the high-voltage potential therapeutic device 1 of the present embodiment will be described. In Fig. 1, the component symbol 2 is a start switch, and by turning on the start switch 2, the high-voltage potential therapeutic device 1 of the present embodiment is supplied with power.

Next, the component symbol 3 in the figure is a conversion power supply. In the present embodiment, the conversion power supply 3 receives an input of an alternating current of 85V to 260V, and converts it into a direct current of 26V.

Next, the conversion power supply 3 is connected to a DC/DC converter 4 as a voltage adjustment means. In the DC/DC converter 4, the DC 26V is converted into a DC 5V, and the converted DC 5V input is input. The above microcomputer 5 is used as a control voltage.

Further, the switching power supply 3 is connected to the voltage control means 10. In the voltage control means 10, the voltage of the direct current 26V supplied from the switching power supply 3 can be converted into an arbitrary value.

Here, the voltage control means 10 will be described with reference to Fig. 2. In the present embodiment, the voltage control means 10 has a voltage control circuit 11. Further, the voltage control circuit 11 includes a transistor 1101 and a control IC 1102 connected to a pedestal of the transistor 1101. The transistor 1101 of the voltage control circuit 11 is supplied with a DC 26V as a main power source via the above-described conversion power supply 3. .

Further, the voltage control means 10 has a step circuit 12 which is connected to the microcomputer 5. Then, the microcomputer 5 outputs an arbitrary 8-bit signal from 0 to 255 to the ladder circuit 12, and in the ladder circuit 12, the input from the microcomputer 5 is converted into a voltage level.

Further, the step circuit 12 is connected to the control IC 1102, and is output from the step circuit 12 to the pedestal side of the transistor 1101 based on the voltage from the output of the microcomputer 5 through the control IC 1102. The DC voltage of the main power source is converted to a desired value and output.

That is to say, in the present embodiment, by adjusting the output from the microcomputer 5 to the ladder circuit 12, the voltage level output from the step circuit 12 to the base side of the transistor 1101 can be adjusted, whereby the switching power supply can be adjusted. The voltage level of the power supply provided by 3 can be outputted by the voltage control circuit 11 by using a DC 26V as a waveform similar to the AC waveform.

Further, in the present embodiment, the voltage control means 10 includes a control voltage generating means 13 including a DC/DC converter, and the control voltage generating means 13 supplies a direct current of 26 V by the above-described switching power supply 3, and generates a control voltage. The output side of the means 13 is connected to the above-described control IC 1102.

Then, in the control voltage generating means 13, the direct current 26V supplied from the switching power supply 3 is converted into a direct current 5V, and the direct current 5V is added to the direct current 26V to generate a direct current 31V, and the direct current 31V is supplied to the control IC. 1102, whereby the direct current 26V of the main power source can be surely outputted from the transistor.

In other words, in the case where the direct current 31 V for the control is not applied, it is difficult to output a direct current of 26 V from the transistor even when the output from the microcomputer 5 is maximum due to various resistances and the like. Therefore, in the present embodiment, a DC of 31 V is generated as a control voltage, and this DC 31 V is supplied to the control IC 1102, and the DC of the main power source can be surely outputted by 26 V.

Next, in Fig. 1, the component symbol 14 is a pulse sensor. That is, the high-voltage potential therapeutic device 1 of the present embodiment is provided with the pulse sensor 14, by which the pulse sensor 14 can detect and monitor the pulse of the subject.

Then, the pulse sensor 14 is connected to the above-described microcomputer 5, and the pulse sensor 14 outputs the detected pulse signal to the microcomputer 5.

Then, in this configuration, in the mode selection, the DC treatment that changes the voltage according to the pulse rate or the AC treatment that changes the voltage according to the pulse rate is selected, and the microcomputer 5 detects the pulse rate based on the pulse sensor 14 described above. The signal outputted to the step circuit 12 is adjusted, and the voltage level of the power source supplied from the conversion power source 3 is adjusted.

Therefore, in the high-voltage potential therapeutic device 1 of the present embodiment, when the pulse rate is small, a high pressure is applied to the subject, and when the parasympathetic nerve of the subject is operated, a high voltage can be applied to perform effective potential treatment.

For example, when a DC voltage is selected, at the beginning of the treatment, the microcomputer 5 controls the ladder circuit in such a manner that 1000V can be applied to the subject, and then, as the pulse rate decreases, the voltage applied to the subject is gradually increased. Finally, 14000V can be applied to the subject. In addition, when the AC voltage is selected, the ladder circuit is controlled in such a manner that 1000V can be applied to the subject at the beginning of the treatment, and then, as the pulse rate becomes smaller, the pair will be treated. The applied voltage is gradually increased, and finally 9000V can be applied to the subject. Therefore, the high-voltage potential therapeutic apparatus of the present embodiment can apply a high voltage when the parasympathetic nerve of the subject operates, and the effect of the potential treatment can be improved.

Further, the pulse sensor has various types such as a photoelectric type. The type of the pulse sensor 14 is not particularly limited in the present invention, and any pulse can be detected and the detected pulse rate can be output, and any pulse type can be used. Pulse sensor.

Next, the component symbol 15 in the figure is a switching means. In the high-voltage potential therapeutic device 1 of the present embodiment, the switching means 15 can be used to switch between the potential therapy and the warm therapy in accordance with the setting of the user.

Here, the switching means 15 will be described. FIG. 3 is a block diagram for explaining the configuration of the switching means 15 in the present embodiment. In the present embodiment, the switching means 15 is provided with a main power supply for providing potential therapy. An AC/DC switching circuit 16 and a warm switching circuit 17 for providing a main power source for warm therapy.

That is, the AC/DC switching circuit 16 and the warm switching circuit 17 are respectively connected to the voltage control circuit 11, and the power supply of the voltage control circuit 11 that is transformed into a predetermined voltage can be provided by the control of the microcomputer 5. In the AC/DC switching circuit 16 and the warm switching circuit 17, the AC/DC switching circuit 16 provides a main power source for potential therapy, and the warm switching circuit 17 provides a main power source for warm therapy.

Further, the switching means 15 includes a potential warming control circuit 18 connected to the microcomputer 5, and the potential warming control circuit 18 can switch between potential therapy and warm therapy according to a user's setting.

That is, the potential warming control circuit 18 is connected to the AC/DC switching circuit 16 and the warm switching circuit 17, and receives signals from the potential warming control circuit 18, an AC/DC switching circuit 16, and a warm switching circuit. Any one of 17 operates.

Then, when the AC/DC switching circuit 16 operates, the output from the voltage control circuit 11 is converted into high voltage direct current or alternating current, and can be outputted to the high voltage socket 9 for potential treatment, and on the other hand, when the warm switching circuit When the operation is performed, the output from the voltage control circuit 11 can be supplied to the high-voltage socket 9 as a power source for warming treatment, and the warm treatment can be performed. Further, in the present embodiment, the SCR is used as the AC/DC switching circuit 16 and the warm switching circuit 17.

Next, in Fig. 1, the component symbol 19 is a high-voltage potential generating means. That is, in the present embodiment, the AC/DC switching circuit 16 is connected to the high-voltage potential generating means 19, and when the AC/DC switching circuit 16 is operated for potential therapy, it is derived from the voltage control circuit 11. The output is converted to a high voltage by the high voltage potential generating means 19.

Here, the high-voltage potential generating means 19 will be described with reference to Fig. 4. Fig. 4 is a block diagram showing the configuration of the high-voltage potential generating means 19, and the element symbol 20 in the figure is a pulse oscillation circuit.

In other words, the high-voltage potential generating means 19 of the present embodiment includes the pulse oscillation circuit 20 connected to the AC/DC switching circuit 16, and is supplied from the voltage control circuit 11 when the AC/DC switching circuit 16 operates. The DC power source is input to the pulse oscillation circuit 20.

Then, the pulse oscillation circuit 20 includes a transformer, and converts the input DC voltage into a high-voltage pulse signal and outputs it. Further, in the present embodiment, in the case where the input DC voltage is 25 V, the pulse oscillation circuit 20 can be converted into a pulse of DC 3000V.

Next, the pulse oscillation circuit 20 is connected to a phase control circuit 21 including a positive side phase control circuit 21A and a negative side phase control circuit 21B.

Then, when an alternating current is applied to the subject, the positive side phase control circuit 21A takes out the positive signal from the pulse signal output from the pulse oscillation circuit 20, and the negative side phase control circuit 21B outputs the pulse signal from the pulse oscillation circuit 20 described above. Take out the negative signal.

On the other hand, when DC is applied to the subject, only the negative phase control circuit 21B operates, and the negative signal is extracted from the pulse signal output from the pulse oscillation circuit 20.

The operation of the phase control circuit 21 will be described. In the present embodiment, the phase control circuit 21 operates in accordance with the control of the microcomputer 5, and outputs a pulse signal output from the pulse oscillation circuit 20 when an alternating current is applied to the subject. The signal on the positive side and the signal on the negative side are respectively taken out, and the waveform on the positive side and the waveform on the negative side are generated using this take-out signal. Further, at the time of waveform generation, the signal of the half cycle is divided into 16 parts and combined to generate an AC waveform.

On the other hand, when DC is applied to the subject, only the negative phase control circuit 21B operates, and the negative side signal is obtained from the pulse signal output from the pulse oscillation circuit 20. Further, when DC is applied to the subject, it is not necessary to take out the negative signal, and the positive signal can be taken out. However, it is generally considered that the negative ion is released by taking out the negative signal, so in the present embodiment, the negative signal is taken out.

Next, the component symbol 22 in Fig. 4 is a multiplying circuit. That is, in the present embodiment, the phase control circuit 21 is connected to the multiplication circuit 22 controlled by the microcomputer 5, and the signals extracted by the phase control circuit 21 are multiplied by the multiplication circuit 22 at a predetermined magnification.

Further, in the present embodiment, as the multiplying circuit 22, a multiplier circuit of a plurality of diodes and a plurality of capacitors is combined, and in the present embodiment, the voltage of the high-voltage power source is converted into a high-voltage power source. It is converted into a voltage of about 6 times in the multiplying circuit 22.

Further, the multiplying circuit 22 includes a positive side multiplying circuit 22A and a negative side multiplying circuit 22B for multiplying the output of the positive side phase control circuit 21A and the negative side phase control circuit 21B, respectively, and outputting an alternating current. In both cases, both functions are functional, and the negative side multiplying circuit 22B functions as a direct current output.

Next, the multiplying circuit 22 is connected to an output control circuit 23 including a positive side output control circuit 23A and a negative side output control circuit 23B. The positive side multiplying circuit 22A is connected to the positive side output control circuit 23A, and the negative side multiplying circuit 22B is connected. There is a negative side output control circuit 23B.

Then, when an alternating current is applied to the subject, the output control circuit 23 generates an alternating current waveform by combining the zero points and outputs the respective signals of the positive waveform and the negative waveform which are six times as large as the control of the microcomputer 5, and outputs When the subject applies DC, the output of the negative side multiplying circuit 22B is output.

Then, the output control circuit 23 and the warm switching circuit 17 included in the switching means 15 are respectively connected to the potential warming switching circuit 24 as an output means, and when the potential therapy is selected according to the mode setting of the user, The output from the high-voltage potential generating means 19 is output to the energization pad 25 after passing through the potential warm-up switching circuit 24, and is transmitted through the high-voltage socket 9. On the other hand, when the warm treatment is selected, the warm-up switching circuit 17 is used. After passing through the potential warming switching circuit 24, the output is output to the energizing pad 25 through the high voltage socket 9. Further, in the present embodiment, a high voltage relay is used as the potential warming switching circuit 24.

Next, the operation of the high-voltage potential therapeutic device 1 of the present embodiment configured as described above will be described with reference to the flowchart of FIG. 5. For example, in a state in which commercial 100V is connected, in step 1, the mode is set by the mode converter 6. After the type, the voltage value, and the like, the mode converter is turned on in step 2, and after a predetermined period of time (3 seconds in this embodiment), the high-voltage potential therapy device 1 of the present embodiment starts to operate according to the set mode or the like. .

That is, in the conversion power source 3, the input power source is converted into a direct current, 26V is supplied as a main power source to the voltage control means 10, and the output from the converter power source 3 is connected to the DC/DC converter 4 as a voltage adjusting means. It is converted into a direct current of 5 V, which is supplied to the microcomputer 5 as a control voltage.

Further, in the case where the treatment for changing the voltage according to the pulse rate is selected, in step 3, the pulse of the subject is detected by the pulse sensor 14, and the detection is continued, that is, the pulse rate of the subject is performed. In the monitoring, the pulse rate of the subject detected by the pulse sensor 14 is input to the microcomputer 5.

Then, the main power supplied to the voltage control means 10 is adjusted to a desired voltage in the voltage control means 10 in step 4. That is, as described above, when the treatment for changing the voltage according to the user's selection or according to the pulse rate is selected, the microcomputer 5 outputs the step circuit 12 from 0 to 255 according to the pulse rate of the subject. The arbitrary 8-bit signal is adjusted in accordance with the input from the microcomputer 5, and the voltage output from the ladder circuit 12 to the control IC is adjusted. Then, this voltage is transmitted to the control unit IC 1102 and output to the susceptor side of the transistor 1101, whereby the voltage of the direct current 26V as the main power source is converted into a desired voltage.

Therefore, when DC is applied to the subject, the output from the microcomputer 5 is made constant, and on the other hand, when the communication is applied to the subject, the output from the microcomputer 5 is changed between 0 and 255. The output from the voltage control circuit 11 can be output in a manner similar to the waveform of the AC waveform. Further, at this time, as described above, in the present embodiment, the voltage control means 10 includes the control voltage generating means 13 including the DC/DC converter, and in this control voltage generating means 13, the switching power supply 3 is provided. The supplied DC 26V is converted into a DC 5V. This DC 5V plus the above-mentioned DC 26V generates a DC of 31 V. This DC 31 V is supplied to the above-described control IC 1102, so that the DC 26 V of the main power source is surely output from the transistor.

Further, in the case of selecting a treatment for changing the voltage according to the pulse rate, the microcomputer 5 adjusts the signal output from the microcomputer 5 to the step circuit 12 in accordance with the pulse rate of the subject, and applies the subject to the subject at the beginning of the treatment. The low voltage gradually increases the voltage applied to the subject as the pulse rate decreases, and finally, in the case of direct current, 14,000 V can be applied to the subject and 9000 V can be applied to the alternating current.

Next, the main control power source 10 is adjusted by the voltage control means 10, and when the subject is warmed by the control of the potential warming control circuit 18, the temperature is switched through the warm switching circuit 17 and the potential warming. The circuit 24 is output to the high voltage socket 9, and when a potential is applied to the subject, the voltage is converted to a high voltage by the high voltage potential generating means 19 after passing through the AC/DC switching circuit 16, and then outputted through the potential warming switching circuit 24. High voltage socket 9.

That is, when warming is applied to the subject, the potential warming control circuit 18 causes the warm switching circuit 17 to operate in accordance with an instruction from the microcomputer 5, whereby the main power output by the voltage control means 10 is in the step 5 is output to the high voltage socket 9 through the warm switching circuit 17 and the potential warming switching circuit 24. Thereby, the subject can be warmly treated through the energizing pad 25 connected to the high voltage socket 9.

On the other hand, when a potential is applied to the subject, the potential warming control circuit 18 operates the AC/DC switching circuit 16 in response to an instruction from the microcomputer 5, whereby the output from the voltage control means 10 is supplied to the high voltage potential. The means 19 is generated and converted into a high voltage by the high-voltage potential generating means 19, and then output to the high-voltage socket 9 through the potential warm-up switching circuit 24, whereby the power-on pad 25 connected to the high-voltage socket 9 can be passed through The subject is treated with a potential.

That is, by the action of the AC/DC switching circuit 16, the output from the voltage control means 10 is first input to the pulse oscillation circuit 20, and is converted into a high voltage pulse signal in the pulse oscillation circuit 20 (step 6). . Specifically, in the present embodiment, when a direct current of 25 V is input, it is converted into a pulse of 3000 V.

Next, when an alternating current is applied to the subject, in the phase control circuit 21, the positive signal and the negative signal are respectively taken out from the output from the pulse oscillation circuit 20, and the signal on the positive side and the negative side are generated by using the extracted signal. The waveform (step 11) further multiplies the generated positive side waveform and negative side waveform by a factor of six in the multiplication circuit 22 (step 12). Then, the waveform multiplied by 6 times is synthesized in the output control circuit 23 in step 13, and an AC waveform is generated. The AC waveform is then energized by the potential warming switching circuit 24 and the high voltage socket 9 in step 14. Pad 25 is applied to the subject.

On the other hand, when DC is applied to the subject, in the phase control circuit 21, the negative signal is taken out from the output from the pulse oscillation circuit 20 (step 7), and in step 8, the signal taken out is multiplied. The circuit 22 is multiplied by a factor of six. Then, a DC waveform is generated by multiplying the waveform by 6 times (step 9), and the DC waveform is applied to the subject by the energizing pad 25 through the potential warming switching circuit 24 and the high voltage socket 9 in the subsequent step 10. .

As described above, the high-voltage potential therapeutic apparatus of the present embodiment can monitor the pulse rate of the subject by the pulse sensor 14, and change the voltage of the input power source according to the pulse rate of the subject, so that the subject is treated. When the pulse rate is small and the parasympathetic nerve of the subject is operated, a high voltage is applied to the subject, whereby effective potential therapy can be performed.

Further, in the high-voltage potential therapeutic device of the present embodiment, after the voltage of the input power source is controlled to a predetermined voltage, the power source that is transformed into a predetermined voltage level is converted into a high-voltage DC or AC and output. Further, since the multiplying circuit is used as a method of converting to a high voltage, a large transformer is not required, whereby the weight of the therapeutic device can be achieved.

In addition, when the input power source is used as the high-voltage AC output, after the supplied power source is converted into a high-voltage pulse signal and output, the positive side signal and the negative side signal are respectively taken out by the pulse signal, and this is taken out. The positive side signal and the negative side signal are converted into a high voltage, and then converted into a high voltage positive side signal and a negative side signal combined zero point and output, so that the zero point can be maintained and the voltage of the correct AC waveform can be output.

(industrial availability)

The present invention can monitor the pulse rate of a subject, and applies a high voltage when the number of pulses is small and the parasympathetic nerve operates, and performs effective potential treatment, so that it can be applied to all high-voltage potential therapeutic devices.

1. . . High voltage potential therapy device

2. . . Start switch

3. . . Conversion power supply

4. . . DC/DC converter

5. . . Microcomputer

6. . . Mode converter

7. . . Display means

8. . . Sound generation means (speaker)

9. . . High voltage socket

10. . . Voltage control

11. . . Voltage control circuit

12. . . Step circuit

13. . . Control voltage generation means (DC/DC converter)

14. . . Pulse sensor

15. . . Switching means

16. . . AC/DC switching circuit

17. . . Warm switching circuit

18. . . Potential temperature control circuit

19. . . High voltage potential generation means

20. . . Pulse oscillation circuit

twenty one. . . Phase control circuit

twenty two. . . Multiplier circuit

twenty three. . . Output control circuit

twenty four. . . Potential temperature switching circuit (output means)

25. . . Power pad

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a block diagram showing the circuit configuration of an embodiment of a high-voltage potential therapeutic apparatus according to the present invention.

Fig. 2 is a block diagram showing the configuration of a voltage control means of an embodiment of the high-voltage potential therapeutic apparatus of the present invention.

Fig. 3 is a block diagram showing the configuration of a switching means of an embodiment of the high-voltage potential therapeutic apparatus of the present invention.

Fig. 4 is a block diagram showing the configuration of a high-voltage potential generating means of an embodiment of the high-voltage potential therapeutic apparatus of the present invention.

Figure 5 is a flow chart for explaining the action of an embodiment of the digital high voltage potential therapeutic device of the present invention.

1. . . High voltage potential therapy device

2. . . Start switch

3. . . Conversion power supply

4. . . DC/DC converter

5. . . Microcomputer

6. . . Mode converter

7. . . Display means

8. . . Sound generation means (speaker)

9. . . High voltage socket

10. . . Voltage control

14. . . Pulse sensor

15. . . Switching means

19. . . High voltage potential generation means

twenty four. . . Potential temperature switching circuit (output means)

25. . . Power pad

Claims (3)

A high-voltage potential therapeutic device for applying a high-voltage potential to a subject and performing potential therapy, comprising: a conversion power supply (3) for converting an input power source into a direct current 26V; and a voltage control means (10) Connected to the conversion power supply (3) for controlling the voltage of the direct current 26V provided by the conversion power supply (3) to a predetermined voltage; and the high voltage potential generating means (19) for using the voltage control means ( 10) A power source that is transformed into a predetermined voltage level, converted into a high-voltage DC or AC and output; and an output means (24) is used to generate the high-voltage DC or the high-voltage potential generating means (19) AC, output to the side of the subject; a microcomputer (5) having a mode converter (6) capable of selecting a complex mode, and controlling at least the above voltage control means according to the mode setting of the mode converter (6) And a high voltage potential generating means (19) and an output means (24); and a pulse sensor (14) for detecting a pulse of the subject and outputting the detected pulse signal; the voltage control means ( 10) has: electric crystal (1101), a DC 26V as a main power source is supplied via the above-mentioned conversion power supply (3); and a ladder circuit (12) is connected to the microcomputer (5) from 0 to 255 output from the microcomputer (5). Any 8-bit signal is transformed into and from The output of the computer (5) corresponds to a voltage level, and the voltage level of the power supply provided by the conversion power supply (2) is adjusted by outputting the converted voltage to the transistor (1101); the microcomputer (5) By adjusting the signal outputted to the step circuit (12) as the pulse rate detected by the pulse sensor (14) is reduced, the voltage of the input power source is gradually increased. A high-voltage potential therapeutic device is a user for applying a high-voltage potential or warming to a subject, and is characterized in that: a conversion power supply (3) is used to convert an input power source into a direct current 26V; and a voltage control means ( 10) is connected to the conversion power supply (3) for controlling the voltage of the direct current 26V provided by the conversion power supply (3) to a predetermined voltage; and the switching means (15) is for switching the potential treatment and the thermal treatment The high-voltage potential generating means (19) is used to convert the high-voltage direct current or alternating current into a high-voltage direct current or alternating current by converting the voltage control means (10) to a predetermined voltage level. The output means (24) is configured to output high-voltage direct current or alternating current generated by the high-voltage potential generating means (19) when a potential is applied to the subject, and when applying warmth to the subject, the output is output via The voltage control means (10) controls a power supply of a predetermined voltage; the microcomputer (5) includes a mode converter (6) capable of selecting a complex mode, and controls at least the above according to a mode setting of the mode converter (6) Voltage control means (10), switching means (15), high voltage potential generating means (19) and output hand The operation of the segment (24); and a pulse sensor (14) for detecting a pulse of the subject and outputting the detected pulse signal; the voltage control means (10) is provided with: a transistor (1101) Providing a DC 26V as a main power source via the above-mentioned conversion power supply (3); and a ladder circuit (12) connected to the above microcomputer (5), any 8-bit from 0 to 255 output from the microcomputer (5) The signal of the element is converted to a voltage level corresponding to the output from the microcomputer (5), and the voltage level of the power supply provided by the conversion power supply (2) is adjusted by outputting the converted voltage to the transistor (1101). When the potential is applied to the subject, the microcomputer (5) adjusts the signal outputted to the step circuit (12) by decreasing the pulse rate detected by the pulse sensor (14). Gradually increase the voltage of the above input power supply. The high-voltage potential therapeutic apparatus according to claim 1 or 2, wherein the high-voltage potential generating means (19) includes: a pulse oscillation circuit (20) for converting a supplied power source into a high-voltage pulse signal and outputting the signal; a phase control circuit (21) having a positive side phase control circuit (21A) and a negative side phase control circuit (21B), the positive side phase control circuit (21A) and the negative side when alternating current is applied to the subject The phase control circuit (21B) on the side operates, and the pulse signals output from the pulse oscillation circuit (20) are respectively When the signal on the positive side and the signal on the negative side are taken out and DC is applied to the subject, only the phase control circuit (21B) on the negative side operates, and the negative side is taken out from the pulse signal output from the pulse oscillation circuit (20). a signal; a multiplying circuit (22) including a positive side multiplying circuit (22A) that multiplies a signal extracted by the positive side phase control circuit (21A) by a predetermined magnification, and a negative side phase control circuit (21B) The negative side multiplying circuit (22B) in which the extracted signal is multiplied at a predetermined magnification causes both the positive side multiplying circuit (22A) and the negative side multiplying circuit (22B) to function in the case of outputting an alternating current, and in the case of outputting direct current, The negative side multiplying circuit (22B) functions; and an output control circuit (23) having a positive side output control circuit (23A) and a negative side output control circuit (23B) for applying an alternating current to the subject The side multiplication circuit (22A) is multiplied into a positive waveform of a predetermined magnification and a respective signal synthesis zero of the negative waveform multiplied by a negative side multiplication circuit (22B) to a predetermined magnification, thereby generating an AC waveform and outputting it, and being treated in the pair When applying DC, Used in the negative-side multiplying circuit (22B) into a wave multiplication of a predetermined ratio, and outputs the generated current waveforms.