KR20150048378A

KR20150048378A - Mutual resonances of needles

Info

Publication number: KR20150048378A
Application number: KR1020130128319A
Authority: KR
Inventors: 오영준
Original assignee: 오영준
Priority date: 2013-10-28
Filing date: 2013-10-28
Publication date: 2015-05-07

Abstract

Disclosed is a resonance needle system which can generate heat and inductive electricity to a resonance needle inserted into a human body by using an induced electromotive force. The resonance needle system comprises: a resonance needle inserted into a human body; a heating plate generating the induced electromotive force to the resonance needle around the resonance needle; and a power supply device supplying power to a coil included in the heating plate.

Description

MUTUAL RESONANCES OF NEEDLES

The following embodiments relate to the field of healing or health promotion of a human body by using a resonance needle made of gold, platinum, stainless steel, etc. Specifically, it is a non-contact type and generates heat in a resonance needle, It is about technology that doubles effect.

A needle used in one room is a method of stimulating a human tissue and treating the related tissue. In other words, since many stimuli increase the therapeutic effect, there has been studied a method that can stimulate the most effectively using the needle. Placing the needle in the hemisphere is one of the ways to maximize the effect of the needle. To increase the saliva's effect, the thickness of the saliva can be made thicker, but it is limited by the pain and the danger.

Therefore, a method of inserting a needle into a human body and increasing the range of stimulation by using physical vibrations (turning, bouncing, etc.) has been studied. In addition, the method of applying electric stimulation by applying heat to the tip of a needle or using a "low frequency electric stimulator" has also been studied to maximize the effect of the needle.

However, the method of inserting a needle into a human body and applying heat with a torch or a torch to the protruding part (a bulb or a feather) is mostly composed of water, so that heat is absorbed mostly from the surface of the skin, It is difficult to expect a great effect in that it is difficult to expect, the skin surface may be burned, and nerves in the epidermal layer may be necrotic.

In addition, when a low-frequency stimulator is used to connect electrodes to two needles, and most of the human body is made of electrolytes, the electric stimulation is deeply imbedded into the body through the needle, Most of the electrical energy flows into the surface of the skin rather than deep, stimulating the nerves in the epidermal layer is effective in question. In order to solve this problem, it is also known as "Electroplating" or "Electrolytic needle", which is coated on the tip of the needle, and only the tip is peeled off to prevent the short circuit in the middle. However, the energy from the electric stimulator collects at the tip of the needle, Therefore, the so-called "Kobayashi Acupuncture Method" is applied to the treatment of osteoporosis by necrosis of the armpit sweat glands. However, if the nerves in the skin are necrotic, it causes serious medical accidents. .

The following embodiments are intended to maximize the effect of a resonance needle inserted into a human body.

The following embodiments are intended to provide a human body with thermal stimulation and electrical stimulation using a resonance needle inserted into the human body.

According to embodiments of the present invention, there is provided a power supply apparatus including a heating plate including a coil formed by winding a wire in a loop shape, a power supply unit supplying power to the coil to generate an induced electromotive force, A resonance needle system including a resonance needle which generates heat by the induced electromotive force is provided.

Here, the power supply device includes a switching power supply for supplying a forward power by on-off switching operation, a winding for conducting the forward power, a first power source for outputting the first power supplied from the forward power source, And a second power output unit for receiving a power supply output unit and a backward power supply generated by the forward power supply and outputting a second power supply induced by the backward power supply, It may be synthesized.

The heating plate may further include a heating pad attached to the surface of the human body and generating heat by the induction electromotive force between the coil and the surface of the human body. The heating pad can be made of aluminum or copper metal, which is a non-ferrous metal such as iron or stainless steel

In addition, an induction current can be generated in the resonance needle by the induced electromotive force.

According to another exemplary embodiment of the present invention, there is provided a switching power supply apparatus including: a switching power supply unit for supplying a forward power by on-off switching operation; a winding for passing the forward power supply; And a second power output unit for receiving a first power output unit and a second power output unit generated by the forward power source and outputting a second power source induced by the second power source, Is supplied to a coil formed by winding a wire in a loop shape to generate an induced electromotive force, and the induced electromotive force is passed through a center of the loop shape to generate heat in a resonance needle inserted into a human body.

The switching power supply unit may further include a power cutoff unit that cuts off the reverse power supplied to the switching power supply unit.

The power supply unit may further include a power supply disconnecting unit for preventing the forward power from flowing into the second power output unit.

In addition, the power source separation unit may include a diode for shutting down the forward power supplied from the first power source output unit to the second power source output unit.

According to yet another exemplary embodiment, the present invention includes a coil formed by winding a wire in a loop shape, wherein an induced electromotive force generated by supplying power to the coil passes through the center of the loop shape to heat the resonance needle inserted into the human body Is provided.

Here, the power source is supplied from a power supply, and the power supply includes a switching power supply for supplying a forward power by an on-off switching operation, a winding for conducting the forward power, And a second power output unit for outputting a second power source which is supplied with a reverse power source generated by the forward power source and is led by the backward power source, And the first power source and the second power source may be combined.

The heating plate may further include a heating pad attached to the surface of the human body and generating heat by the induction electromotive force between the coil and the surface of the human body.

According to the following embodiments, it is possible to maximize the effect of the resonance needle inserted into the human body.

According to the embodiments described below, the resonance needle inserted into the human body can be used to provide thermal and electrical stimulation to the human body.

1 is a diagram illustrating a resonance needle system according to an exemplary embodiment.
2 is a block diagram illustrating the structure of a power supply apparatus according to an exemplary embodiment.
3 is a circuit diagram of a power supply device according to an exemplary embodiment.
4 is a view showing a structure of a heating plate according to an exemplary embodiment.
5 is a diagram illustrating generating an induced electromotive force in a resonator needle in accordance with an exemplary embodiment.
Fig. 6 is a diagram showing that a plurality of resonance needles are grouped to maximize stimulation. Fig.

Hereinafter, embodiments will be described in detail with reference to the accompanying drawings.

1 is a diagram illustrating a resonance needle system according to an exemplary embodiment.

The resonance needle system includes a power supply 130, heating plates 121 and 122, and resonance needles 111 and 112.

The resonance needles 111 and 112 are inserted into the human body to give a physical stimulus to the human body. The resonance needle can be used by sterilizing pure iron. According to one aspect, not only magnetic materials such as stainless steel, iron, and nickel but also non-magnetic materials such as aluminum, copper alloy, and gold can be used.

The heating plates 121 and 122 are disk-shaped thin plates having a central portion punched. The resonance needles 111 and 112 can be inserted into the human body through the perforated portion of the heating plates 121 and 122. The heating plates 121 and 122 may include coils formed by winding wires in a loop shape.

If it is different from one side, the heating plate can be designed to be ultra-small with a thickness of less than 5 mm, and can be easily attached to and detached from a human body by using a medical adhesive tape or the like.

The power supply unit 130 supplies electric power to coils included in the heating plates 121 and 122 through electric wires connected to the coils. According to one aspect, the electric wires included in the heating plates 121 and 122 may be 2 mm or less in thickness. According to one aspect, the power supplied by power supply 130 to the coil may be a square wave shaped pulse. When power is supplied to the coil wound in a loop shape, the direction and intensity of the current flowing in the coil wound in a loop shape changes with time. Therefore, the magnetic field formed around the coil wound in the loop shape also changes with time, and an induced electromotive force is generated in the resonance needles 111 and 112 passing through the perforated portion.

Due to the generated induced electromotive force, current flows through the resonance needles 111 and 112, and heat is generated. Therefore, the resonance needles 111 and 112 themselves generate heat, so that the temperature rises and a stronger stimulus can be given to the human body.

The most frequently used needles in one room are 0.2 ~ 0.3mm in diameter and 40 ~ 60mm in length, which is very thin and long. The content of iron, which is a magnetic substance, is extremely small. Therefore, the heat generated by the induced electromotive force is generated by the eddy current rather than the heat generated by the hysteresis.

Heat generation due to vortexing is determined according to the following equation (1).

[Mathematical Expression]

here,

Is the amount of heat generated by the vortex hand,

Is a constant,

Is the frequency of the current supplied to the coil,

Is the maximum magnetic flux density of the current supplied to the coil.

Referring to Equation (1), the higher the frequency of the current supplied to the coil, the higher the amount of heat generated by the vortexing hand. Therefore, it is efficient that the frequency of the current supplied to the coil is high, and it is preferable to supply a current of 600 kHz or more to the heating plate.

According to the embodiment shown in Fig. 1, when a current of 600 kHz or more is supplied to the heating plate, the heating plate can effectively generate heat by the vortexing hand. However, when a 220 V AC power source is used as a direct input power source in a 600 kHz or higher power switching circuit, the counter electromotive force increases exponentially in proportion to the frequency. Therefore, there is a danger that the switching element of the power supply unit is destroyed, and the power supply unit is extremely heated.

Therefore, a power supply device which directs the back electromotive force to another position and has the same direction as the forward direction at the output can be used. Such a power supply device will be described later in detail with reference to FIG. 2 to FIG.

According to one aspect, the heating plates 121 and 122 can be attached to the surface of the human body to which the resonance needle is to be inserted. In this case, the heating plates 121 and 122 may further include heating pads that generate heat by induced electromotive force generated by the coils. In this case, the heating plates 121 and 122 not only induce heat generation of the resonance needles 111 and 112, but also can generate heat directly. Therefore, the effects of the resonance needles 111 and 112 can be further activated.

According to one aspect, the power supplied to the plurality of resonance needles 111 and 112 can be controlled to further enhance the effect of the resonance needles 111 and 112. For example, the resonance needles 111 and 112 can be divided into several groups. Each group can be supplied with power with a frequency difference of about 5 Hz. In addition, there may be a plurality of channels in each group, and power of about 3 Hz in frequency difference may be supplied between the channels. In this case, the resonance between the channels or between the groups occurs at 3-144 Hz and maximizes the effect of the resonance needles 111 and 112 by synchronizing with the human body's frequency.

2 is a block diagram illustrating the structure of a power supply apparatus according to an exemplary embodiment.

In order to induce the heat to the resonance needles 111 and 112 shown in FIG. 1, a very high frequency power must be supplied to the heating plates 121 and 122. The power supply apparatus 200 shown in FIG. 2 can convert power with a very high efficiency using a back electromotive force, and can generate and supply a high frequency power.

The power supply apparatus 200 according to the exemplary embodiment includes a switching power supply 210 for supplying a forward power by an on-off switching operation, a first power output unit 230 for outputting a first power derived by a forward power supply, A second power output unit 240 for receiving a reverse power generated by a forward power source and outputting a second power source induced by the reverse power source, and a second power output unit 240 for shutting off a reverse power source flowing into the switching power source unit 210 And a power combiner 250 for combining the first power source and the second power source and outputting the combined power.

The switching power supply unit 210 supplies DC power to the first power output unit 120. According to one aspect, the switching power supply unit 210 may be configured such that DC power is interrupted by a transistor which is turned on / off according to a predetermined pulse signal. Further, the switching power supply unit 210 may use various circuit configurations such as a full bridge, a half bridge, and a push-pull.

The first power output unit 230 includes a transformer 230 including a primary winding connected to the forward switching power supply output from the switching power supply unit 210 and a secondary winding for inducing an output power from the current input to the primary winding. . &Lt; / RTI >

The second power output unit 240 is connected in parallel with the first power output unit 230 to induce the output power from the counter electromotive force generated by the forward switching power supply. The back electromotive force is a phenomenon in which, when the magnitude of the stimulus to the current changes, induction current is generated in the direction of canceling the original current change, and it is an electromagnetic law proved by Lenz's law and the like.

According to one aspect, the second power output unit 240 includes a transformer including a tertiary winding having a reverse current, which is opposite to a forward current, and a quaternary winding that induces an output power from a current flowing into the tertiary winding . &Lt; / RTI >

The branching unit 220 is located at a contact point between the first power output unit 230 and the second power output unit 240 and the switching power supply unit 210. The switching power supply unit 210 supplies the second power output unit 240 And blocks the counter electromotive force flowing into the switching power supply unit 210 from the second power supply output unit 240.

The power combiner 250 combines the polarities of the first power source output from the first power source output unit 230 and the second power source output from the second power source output unit 240 to synthesize the first power source and the second power source And outputs power.

According to this configuration, when the forward current is supplied from the switching power supply unit 210, the forward current is supplied to the first power output unit 1230 and the forward current flowing into the second power output unit 240 is shut off. Here, the contact between the second power supply output unit 240 and the branching unit 220 is lower in voltage than the reference voltage due to the counter electromotive force generated by the forward current flowing into the first power supply output unit 230. Accordingly, the counter electromotive force opposite in direction to the forward current is excited in the second power output unit 240, and the branching unit 220 excites the counter electromotive force that flows from the second power output unit 240 to the switching power supply unit 210 .

Accordingly, the first power is induced by the forward current in the first power output unit 230 and the second power is induced in the second power output unit 240 by the reverse current, To output one output power. Thus, by using the counter electromotive force itself as another power generation source, a stable output power can be generated without adding a configuration for removing or attenuating the counter electromotive force. In addition to the power generated by the first power output unit 230, a power generated by the counter electromotive force may be used as the output power.

3 is a circuit diagram of a power supply device according to an exemplary embodiment. The same reference numerals are assigned to configurations that perform the same functions as those of the blocks shown in FIG. 2, and redundant explanations are omitted.

The switching power supply unit 210 may include a DC power supply unit 311 and a switching transistor Q1 312 for controlling the input power supply Vin input from the DC power supply unit VCC 311. The switching transistors Q1 and 312 operate alternately on and off in accordance with the pulse signal PWM having a predetermined frequency to interrupt the input power supply Vin. Here, the size of the second power source is proportional to the magnitude of the counter electromotive force. The higher the frequency of the input power supply Vin is, the higher the efficiency of the power conversion apparatus can be.

The first power output unit 230 includes a primary winding 331 having one end connected to the switching power supply unit 210 and the other end connected to the ground GND to energize the forward input power Vin, And a secondary winding 332 for outputting a first power source induced by the input power source Vin input to the winding 331. [

The second power output unit 240 includes a tertiary winding 341 whose one end is connected in parallel to the primary winding 321 and the other end is connected to the ground GND, And a quaternary winding 342 for outputting a second power source induced by the second power source. The tertiary winding 341 is energized with the reverse power source -Vin generated by the input power source Vin flowing into the primary winding 331. [ When an inverse power source (-Vin) occurs due to the input power source (Vin), the potential of one end of the tertiary winding 341 connected to the primary winding 331 drops to -Vin and the other end of the tertiary winding 341 reaches GND Which is a relatively high potential state. Thus, a reverse current is induced from the GND connection point of the tertiary winding 341 to the other end, so that the quaternary winding 342 can output the second power.

The branching section 220 is interposed between the primary winding 331 and the tertiary winding 341 to block the forward power from flowing from the primary winding 331 to the tertiary winding 341, The first diode D1 322 blocks the reverse power from flowing into the primary winding 331 from the switching power supply unit 210 and the switching power supply unit 210, And a second diode (D2, 321) for blocking the reverse power supply. That is, the first diode D1 322 and the second diode D2 321 are configured such that the forward power supply and the reverse power supply can be separately supplied to the power output units 230 and 240 on both sides, The position and direction should be adjusted according to the current characteristics of the power supply and the reverse power supply.

It is desirable that the first diode D1 322 and the second diode D2 321 apply a high-speed diode enough to respond to the operating speed of the switching transistor Q1 312. For example, a Schottky diode, a switching diode, or the like can be applied.

The power synthesizing unit 250 includes a power supply line 251 for connecting the secondary winding 332 and the fourth-order winding 342 in series to synthesize the first power supply and the second power supply. The power synthesizer 250 outputs the synthesized power through one end of the secondary winding 332 and the other end of the fourth winding 342.

The output power is supplied to the coil wound in a loop shape included in the heating plate. When power is supplied to the coil wound in a loop shape, the direction and intensity of the current flowing in the coil wound in a loop shape changes with time. Therefore, the magnetic field formed around the coil wound in a loop shape also changes with time, and induction electromotive force is generated in the resonance needle passing through the perforated portion of the heating plate.

Due to the induced electromotive force generated, current flows through the resonance needle and heat is generated. Therefore, the resonance needle itself generates heat and the temperature rises, and a stronger stimulus can be given to the human body.

4 is a view showing a structure of a heating plate according to an exemplary embodiment.

4 (a) is a view showing the heating plate viewed from above. According to one embodiment, the heating plate may be a thin sheet 410 in the form of a disc 410 having a perforated (420) center portion. For example, the heating plate can be designed to be ultra-small with a thickness of less than 5 mm.

In addition, the heating plate may include a coil 430 formed by winding a wire around a perforation 420 at the center. According to one aspect, the coil 430 can be supplied with electric power from the electric power supply apparatus described in Figs. 2 to 3. Here, the electric wire included in the heating plate may have a thickness of 2 mm or less.

The heating plate can be easily attached to and detached from a human body by using a medical adhesive tape or the like.

The resonance needle may be inserted into the human body through the perforation 420 in the center. When power is supplied to the coil 430 from the power supply, the direction and intensity of the current flowing in the coil 430 wound in a loop shape are changed with time. Therefore, the magnetic field formed around the coil 430 wound in a loop shape also changes with time, and induction electromotive force is generated in the resonance needle passing through the perforated portion 420. In the resonance needle, current is generated by induction electromotive force. As a result, the resonance needle is heated and the temperature of the resonance needle increases.

4 (b) is a side view of the heating plate. The heating plate 440 may include a coil 450 and a heating pad 460 wound in a loop shape. Here, the heating pad 460 generates heat by the induced electromotive force generated by the coil 450. According to one aspect, the heating pad 460 may be located under the coil 450, between the coil 450 and the human body.

According to one aspect, the heating plate can be attached to the surface of the human body to which the resonance needle is to be inserted. In this case, the heating plate not only induces heat generation of the resonator needles, but also can generate heat directly. Therefore, the effect of the resonance needle can be further activated.

5 is a diagram illustrating generating an induced electromotive force in a resonator needle in accordance with an exemplary embodiment.

The resonance needle 510 is inserted into the human body through the perforation portion of the heating plate. Induction electromotive forces 520 and 530 are generated in the resonance needle 510 due to the current flowing in the coils included in the heating plate. According to one aspect, it may be a square wave shaped pulse that flows through the coil. The strength or direction of the induced electromotive force 520, 530 generated in the resonator pin 510 is also changed.

According to one aspect, an induction current is generated in the resonance probe 510 due to the induced electromotive force 520, 530 generated in the resonance probe 510. According to one aspect, the direction of the induced current may be the direction from the end of the resonance probe 510 to the portion inserted into the human body, or may be the direction from the portion inserted into the human body toward the end of the resonance probe 510.

When a current flows through the resonance probe 510, the temperature of the resonance probe 510 increases due to the resistance inside the resonance probe 510. When the temperature of the resonance probe 510 rises, it can be transmitted to the human body to maximize the stimulation of the resonance probe 510.

Fig. 6 is a diagram showing that a plurality of resonance needles are grouped to maximize stimulation. Fig.

When power is supplied to the resonator needle 610, induced electromotive forces 611, 612, 613, and 614 are generated around the resonator needle 610. The frequencies of the induced electromotive forces 611, 612, 613 and 614 are the same as the frequencies of the electric power supplied to the resonance needle 610.

According to one aspect, the resonance needle system can maximize the effect of the resonator needles 610, 620, 630 by controlling the power supplied to the plurality of resonator needles 610, 620, 630.

For example, a resonance needle system can divide a plurality of resonance needles into a plurality of groups. One group may be composed of plural channels (three according to one side). One channel may include a plurality of resonance needles (four according to one side). Phase-modulated power is supplied between the channels with a difference of 3 Hz. In addition, phase-modulated power is supplied between the groups with a difference of 5 Hz. Therefore, the resonance phenomenon between each group / each channel is approximately 3 to 144 Hz.

According to the embodiment shown in Fig. 6, the power modulated differently from each other is supplied between the groups / channels. Therefore, the induced electromotive force / induced current generated between the groups / channels is also different. The induced electromotive force / inductive power between each group / each channel can cancel / construct interference with each other and enhance the degree of stimulation. Therefore, the effect of the resonance needle is maximized.

According to the embodiment shown in Fig. 6, a plurality of independent heating plates can be attached to a human body, and mutual resonance can be generated using the phase difference of each heating plate. That is, the interference generated in each heating plate is used to generate a stronger stimulus. Therefore, the therapeutic effect can be applied to a wide area other than the area where the needle is inserted.

The method according to an embodiment may be implemented in the form of a program command that can be executed through various computer means and recorded in a computer-readable medium. The computer-readable medium may include program instructions, data files, data structures, and the like, alone or in combination. The program instructions to be recorded on the medium may be those specially designed and configured for the embodiments or may be available to those skilled in the art of computer software. Examples of computer-readable media include magnetic media such as hard disks, floppy disks and magnetic tape; optical media such as CD-ROMs and DVDs; magnetic media such as floppy disks; Magneto-optical media, and hardware devices specifically configured to store and execute program instructions such as ROM, RAM, flash memory, and the like. Examples of program instructions include machine language code such as those produced by a compiler, as well as high-level language code that can be executed by a computer using an interpreter or the like. The hardware devices described above may be configured to operate as one or more software modules to perform the operations of the embodiments, and vice versa.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments. For example, it is to be understood that the techniques described may be performed in a different order than the described methods, and / or that components of the described systems, structures, devices, circuits, Lt; / RTI > or equivalents, even if it is replaced or replaced.

Therefore, other implementations, other embodiments, and equivalents to the claims are also within the scope of the following claims.

111, 112: resonance needle
121, 122: heating plate
130: Power supply

Claims

A heating plate including a coil formed by winding a wire in a loop shape;
A power supply for supplying power to the coil to generate an induced electromotive force;
A non-contact resonance needle which is inserted into the human body through the center of the loop shape and generates heat by the induced electromotive force,
/ RTI >

The power supply apparatus according to claim 1,
A switching power supply unit for supplying a forward power by an on-off switching operation;
A winding for conducting the forward power;
A first power output unit for outputting a first power source induced by the forward power source introduced into the winding;
A second power supply output unit for receiving a backward power generated by the forward power and outputting a second power led by the backward power supply,
Further comprising:
Wherein the power source is a composite of the first power source and the second power source.

The heating plate according to claim 1,
And a heating pad attached to a surface of the human body and generating heat by the induced electromotive force between the coil and the surface of the human body.

The method according to claim 1,
And an induction current is generated in the resonance needle by the induced electromotive force.

A switching power supply unit for supplying a forward power by an on-off switching operation;
A winding for conducting the forward power;
A first power output unit for outputting a first power source induced by the forward power source introduced into the winding; And
A second power supply output unit for receiving a backward power generated by the forward power and outputting a second power led by the backward power supply,
Lt; / RTI >
The power source, in which the first power source and the second power source are combined, is supplied to a coil formed by winding wires in a loop shape to generate an induced electromotive force,
Wherein the induction electromotive force generates heat in a resonance needle inserted into the human body through the center of the loop shape.

6. The method of claim 5,
A power cutoff unit for shutting off the reverse power supplied to the switching power supply unit,
Further comprising a power supply.

6. The method of claim 5,
A power supply disconnecting unit for preventing the forward power from flowing into the second power output unit,
Further comprising a power supply.

8. The method of claim 7,
And the power supply disconnecting unit includes a diode for shutting down the forward power flowing into the second power output unit from the first power output unit.

A coil formed by winding a wire in a loop shape;
/ RTI >
Wherein the induction electromotive force generated by supplying power to the coil passes through the center of the loop shape and generates heat in the resonance needle inserted into the human body.

10. The method of claim 9,
The power supply is supplied from a power supply,
The power supply device includes:
A switching power supply unit for supplying a forward power by an on-off switching operation;
A winding for conducting the forward power;
A first power output unit for outputting a first power source induced by the forward power source introduced into the winding; And
A second power supply output unit for receiving a backward power generated by the forward power and outputting a second power led by the backward power supply,
Lt; / RTI >
Wherein the power source is a combination of the first power source and the second power source.

10. The method of claim 9,
The heating plate is attached to the surface of the human body,
A heating pad which generates heat by the induced electromotive force between the coil and the surface of the human body,
.

10. The method of claim 9,
And an induction current is generated in the resonance needle by the induced electromotive force.