Power supply device, light beam generating device, voltage generating method, and light beam irradiation method

Abstract

To provide a light beam generating device that generates a light beam on the basis of a voltage having excellent characteristics.SOLUTION: A light beam generating device 2 includes a light beam generating unit 50, which has a discharge generating unit 60 that generates a discharge on the basis of a voltage set to a frequency of 30 to 31 MHz generated by an input / output unit 20 having a first line 21 to a fourth line 24, and a light beam irradiating unit 70 that intermittently irradiates a target object 75 with a light beam based on the discharge generated by the discharge generating unit 60.SELECTED DRAWING: Figure 1

Description

[Technical field]

[0001] The present invention relates to a power supply device, a light generating device, a voltage generating method, and a light irradiation method. Regarding. [Background technology]

[0002] Various power supply devices and light beam generating devices have been proposed in the past, such as a power supply device that generates a voltage set at a predetermined frequency as shown in Patent Document 1 and a light beam generating device that generates light beams by discharging light based on a voltage as shown in Patent Document 2. [Prior art documents] [Patent documents]

[0003] [Patent Document 1] JP 2008-67442 A [Patent Document 2] Japanese Patent Application Publication No. 7-111353 Summary of the Invention [Problem to be solved by the invention]

[0004] However, various electrical characteristics may vary depending on the frequency of the voltage generated by a power supply device. Also, the characteristics of the light rays generated may vary depending on the frequency of the voltage. Recently, research has been conducted into the differences in electrical characteristics and light characteristics depending on the frequency of the voltage.

[0005] The present invention has been made in consideration of the above circumstances, and has an object to provide a power supply device that generates a voltage with excellent characteristics, a light beam generating device that generates a light beam based on the voltage, a method for generating a voltage, and a method for irradiating a light beam. [Means for solving the problem]

[0006] In order to achieve the above object, the power supply device of the present invention comprises a power supply that generates a voltage set to a frequency of 30 to 31 MHz, and an input / output unit that inputs the voltage set to a frequency of 30 to 31 MHz generated from the power supply side and outputs the input voltage set to a frequency of 30 to 31 MHz to a load side, wherein the input / output unit has first to fourth lines, the first line and the second line are arranged parallel to each other and spaced apart from each other, the third line and the fourth line are wound around the first line and the second line, respectively, so as to be alternately entangled, and the third line and the fourth line are wound around the first line and the second line in a mutually symmetrical manner, and the third line and the fourth line are wound around the first line and the second line in a manner such that the third line and the fourth line cross between the first line and the second line.

[0007] According to the present invention, by adopting the above-mentioned configuration, it is possible to provide a 30 to 31 MHz voltage having excellent characteristics, including extremely little phase delay during transmission and extremely little amplitude attenuation (voltage drop).

[0008] The first to fourth lines are arranged within a range where electromagnetic interaction occurs, so that a voltage of 30 to 31 MHz having excellent characteristics can be reliably provided.

[0009] In order to achieve the above object, the light beam generating device of the present invention has the above power supply device, and the load is a light beam generating unit that generates a light beam, the light beam generating unit having a discharge generating unit that generates a discharge based on a voltage set to a frequency of 30 to 31 MHz output by the input / output unit, and a light beam irradiating unit that irradiates an object with a light beam based on the discharge generated by the discharge generating unit.

[0010] According to the present invention, the light ray generating unit has a discharge generating unit that generates a discharge based on a voltage set to a frequency of 30 to 31 MHz output by the input / output unit, and a light ray irradiating unit that irradiates a target with a light ray based on the discharge generated by the discharge generating unit, so that it is possible to improve a disease, for example, by irradiating a diseased part of a human body with the light ray. In addition, it is possible to transfer a frequency of 30 to 31 MHz to water by irradiating water with the light ray. It has been confirmed by the present inventor that irradiation of a light ray based on a voltage set to a frequency of 30 to 31 MHz improves a disease and transfers a frequency of 30 to 31 MHz to water.

[0011] The power supply device repeatedly and intermittently generates a voltage set to the frequency of 30 to 31 MHz, the discharge generating unit repeatedly and intermittently generates a discharge based on the intermittently generated voltage set to the frequency of 30 to 31 MHz, and the light ray irradiating unit repeatedly and intermittently irradiates a target with a light ray based on the discharge generated by the discharge generating unit, thereby making it possible to repeatedly and intermittently irradiate the light ray to, for example, a diseased part of a human body, and to further improve the disease. Also, the light ray can be repeatedly and intermittently irradiated to water, and the transfer of the frequency to water can be promoted.

[0012] The discharge generation unit has a first electrode and a second electrode, and has a gap between the first electrode and the second electrode, and generates a discharge in the gap under a rare gas atmosphere, and the light ray irradiation unit can irradiate an object with light rays based on the discharge generated in the rare gas atmosphere.

[0013] By using xenon gas as the rare gas, the effect of improving diseases and the effect of transferring the gas to water can be improved. The light source may include an object that is arranged at a different position with respect to a position where the light beam irradiation unit is arranged, with the object interposed therebetween.

[0014] The object preferably includes a colored area of ​​a predetermined shape on its surface. The predetermined shape region is preferably a circular or spiral shape. The circular shape is preferably a perfect circle.

[0015] The coloring of the region of a predetermined shape is achieved by setting at least the R value, of the R, G and B values ​​in the RGB values, to 200 or more and 255 or less; more specifically, by setting the R value in the RGB values ​​to 200 or more and 255 or less, the G value to 100 or more and 255 or less, and the B value to 0 or more and 250 or less; and even more specifically, by setting the coloring to any of yellow, red, sky blue, pastel color, skin color, and white-green, the disease improving effect and the transfer effect to water can be further improved. In order to achieve the above object, a method of generating a voltage of the present invention includes a power supply that generates a voltage set to a predetermined frequency, and an input / output unit that inputs a voltage set to the predetermined frequency generated from the power supply side and outputs the input voltage set to the predetermined frequency to a load side, the input / output unit having first to fourth lines, the first line and the second line being arranged parallel to each other at a distance, the third line and the fourth line being wound around the first line and the second line, respectively, so as to be alternately entangled, and the third line and the fourth line are wound around the first line and the second line in a mutually symmetrical manner, and the third line and the fourth line cross between the first line and the second line, wherein the predetermined frequency is a frequency of 30 to 31 MHz. According to the present invention, by adopting the above-mentioned configuration, it is possible to provide a 30 to 31 MHz voltage having excellent characteristics, including extremely little phase delay during transmission and extremely little amplitude attenuation (voltage drop). In order to achieve the above object, the light irradiation method of the present invention is a method of irradiating light in a light generating device having the power supply device described above and a light generating unit that generates light, wherein the light generating unit is the load, and the light generating unit has a discharge generating unit that generates a discharge based on a voltage set to a predetermined frequency output by the input / output unit, and a light irradiating unit that irradiates an object with light rays based on the discharge generated by the discharge generating unit, wherein the discharge generating unit generates a discharge based on the voltage set to the predetermined frequency output by the input / output unit, and the light irradiating unit irradiates the object with light rays based on the discharge generated by the discharge generating unit, and the predetermined frequency is set to 30 to 31 MHz. According to the present invention, by generating a discharge based on a voltage set to a frequency of 30 to 31 MHz output by the input / output unit and irradiating a target with a light beam based on the generated discharge, for example, by irradiating a diseased part of a human body with the light beam, it is possible to improve the disease. In addition, by irradiating water with the light beam, it is possible to transfer a frequency of 30 to 31 MHz to the water. It has been confirmed by the present inventor that irradiation of a light beam based on a voltage set to a frequency of 30 to 31 MHz improves the disease and transfers a frequency of 30 to 31 MHz to water. Effect of the Invention

[0016] As described above, an object of the present invention is to provide a power supply device that generates a voltage having excellent characteristics, a light beam generating device that generates a light beam based on the voltage, a method for generating a voltage, and a method for irradiating a light beam. [Brief description of the drawings]

[0017] [Figure 1] 1 is a block diagram showing a configuration of a power supply device according to an embodiment of the present invention. [Diagram 2] FIG. 2 is a front view showing the configuration of an input / output section of the power supply device. [Diagram 3] 2 is a diagram for explaining a connection between a power supply and an input / output unit of the power supply device. FIG. [Figure 4] FIG. 2 is a diagram showing a waveform of a voltage generated by the power supply device. [Diagram 5] FIG. 4 is a diagram showing waveforms of other voltages generated by the power supply device. [Figure 6] 4 is a graph showing the relationship between frequency and electrical resistance in the power supply device. [Figure 7] 4 is a graph showing the relationship between frequency and absorption in the power supply device. [Figure 8] 1 is a block diagram showing a configuration of a light beam generating device according to an embodiment of the present invention. [Figure 9] FIG. 2 is a diagram showing the output of a light beam generated by the light beam generating device. [Figure 10] FIG. 11 shows another light beam output generated by the light beam generating device. [Figure 11] 2 is a diagram showing the configuration of a discharge generating unit and a light beam applying unit of the light beam generating device. FIG. [Figure 12] FIG. 2 is a plan view showing the arrangement of objects in the light beam generating device. [Figure 13] 1A and 1B are diagrams showing the configuration of the object of the light beam generating device, in which (a) is a plan view and (b) is a bottom view. [Figure 14] FIG. 11 is another diagram showing the configuration of the same object, in which (a) is a plan view and (b) is a bottom view. [Figure 15] FIG. 11 is yet another diagram showing the configuration of the same object, in which (a) is a plan view and (b) is a bottom view. [Figure 16] FIG. 2 is a front view showing a state in which a plurality of the same objects are overlapped. [Figure 17] FIG. 2 is a front view showing the object stored in the case. [Figure 18] 13A and 13B are diagrams showing the configuration of other objects of the light beam generating device, in which (a) is a plan view and (b) is a bottom view. [Figure 19] FIG. 11 is another diagram showing the configuration of the same object, (a) being a plan view and (b) being a bottom view. [Figure 20] FIG. 11 is yet another diagram showing the configuration of the same object, (a) being a plan view and (b) being a bottom view. [Figure 21] 1 is a graph showing an example of light irradiation according to the present invention. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0018] [Power supply configuration] Hereinafter, a power supply device according to an embodiment of the present invention will be described in detail with reference to the drawings. Fig. 1 is a block diagram showing the configuration of a power supply device according to an embodiment of the present invention, Fig. 2 is a diagram showing the configuration of an input / output unit of the power supply device, Fig. 3 is a diagram for explaining the connection between the power supply and the input / output unit of the power supply device, Fig. 4 is a diagram showing a waveform of a voltage generated by the power supply device, Fig. 5 is a diagram showing a waveform of another voltage generated by the power supply device, Fig. 6 is a graph showing the relationship between frequency and electrical resistance in the power supply device, and Fig. 7 is a graph showing the relationship between frequency and absorption in the power supply device. Note that each direction in the following description will be clearly indicated in the figures.

[0019] As shown in FIG. 1, the power supply device 1 of the present invention includes a power supply 10 and an input / output unit 20.

[0020] The power supply 10 can generate a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. The power supply 10 has a switching element, and can generate a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, by turning on and off the switching element. The power supply 10 has a setting unit 10A and a control unit 10B for setting and controlling the frequency of the voltage to 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. The control unit 10B can generate a predetermined control signal to control the on / off of the switching element so that the voltage has a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz set by the setting unit 10A, thereby controlling the frequency of the voltage.

[0021] The input / output unit 20 inputs a voltage (high frequency voltage) generated from the power source 10 and set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, and can output the input voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz to the load 30.

[0022] As shown in FIG. 2, the input / output unit 20 has a first line 21 to a fourth line 24, the first line 21 and the second line 22 are made of a conductive material and are arranged linearly and parallel to each other at a distance from each other, the third line 23 and the fourth line 24 are made of a conductive material and are curved and wound around the first line 21 and the second line 22 so as to be alternately entangled from one direction, and the third line 23 and the fourth line 24 are arranged so as to be intertwined with the first line 21 and The winding configuration around the second line 22 is a cross-winding structure in which the third line 23 and the fourth line 24 intersect at a central position (the position of the symmetry axis L) between the first line 21 and the second line 22 in a line-symmetrical configuration with respect to the axis of symmetry L, and further, the positional relationship in the front-to-rear direction of the intersection positions Q1, Q2, Q3, Q4, Q5, and Q6 of the third line 23 and the fourth line 24 between the first line 21 and the second line 22 alternates. The axis of symmetry L is the central line between the first line 21 and the second line 22 which are arranged parallel to each other and spaced apart (at the intersection position Q1, the third line 23 is in the front and the fourth line 24 is in the rear; at the intersection position Q2, the third line 23 is in the rear and the fourth line 24 is in the front; at the intersection position Q3, the third line 23 is in the front and the fourth line 24 is in the rear; at the intersection position Q4, the third line 23 is in the rear and the fourth line 24 is in the front; at the intersection position Q5, the third line 23 is in the front and the fourth line 24 is in the rear; at the intersection position Q6, the third line 23 is in the rear and the fourth line 24 is in the front).

[0023] The third line 23 and the fourth line 24 are entangled with the first line 21 and the second line 22 to form a sine wave shape. The third line 23 and the fourth line 24 are entangled with the first line 21 and the second line 22 to form a configuration in which mountain shapes and valley shapes are alternately arranged. The sine wave shapes of the third line 23 and the fourth line 24 are such that the apex A of the mountain shape and the bottom point B of the valley shape coincide in the left-right direction.

[0024] The first line 21 to the fourth line 24 are disposed within a range where electromagnetic interaction occurs.

[0025] Here, the details of the entanglement structure of the third line 23 and the fourth line 24 of the input / output section 20 with the first line 21 and the second line 22 will be described as follows.

[0026] That is, with regard to the third line 23, at position P1, it is entangled so as to bend from the rear side of the first line 21 to the front side, at position P2, it is entangled so as to bend from the rear side of the second line 22 to the front side, at position P3, it is entangled so as to bend from the rear side of the first line 21 to the front side, at position P4, it is entangled so as to bend from the rear side of the second line 22 to the front side, at position P5, it is entangled so as to bend from the rear side of the first line 21 to the front side, at position P6, it is entangled so as to bend from the rear side of the second line 22 to the front side, and at position P7, it is entangled so as to bend from the rear side of the first line 21 to the front side.

[0027] As for the fourth line 24, at position P1, it is entangled so as to bend from the rear side of the second line 22 to the front side, at position P2, it is entangled so as to bend from the rear side of the first line 21 to the front side, at position P3, it is entangled so as to bend from the rear side of the second line 22 to the front side, at position P4, it is entangled so as to bend from the rear side of the first line 21 to the front side, at position P5, it is entangled so as to bend from the rear side of the second line 22 to the front side, at position P6, it is entangled so as to bend from the rear side of the first line 21 to the front side, and at position P7, it is entangled so as to bend from the rear side of the second line 22 to the front side.

[0028] In the above configuration, the third line 23 and the fourth line 24 are wound and bent at positions P1 to P7 from the rear side to the front side, but they may be configured to bend conversely from the front side to the rear side.

[0029] The input / output unit 20 configured in this manner is connected to the power source 10, for example, as follows. 3(a), the first line 21 and the second line 22 are commonly connected at the input end side and the output end side via connections C and D, and the third line 23 and the fourth line 24 are commonly connected at the input end side and the output end side via connections E and F. The connection C on the input end side of the first line 21 and the second line 22 is connected to one end 10A of the power source 10, and the connection D on the output end side of the first line 21 and the second line 22 is connected to one end 30A of the load 30. The connection E on the input end side of the third line 23 and the fourth line 24 is connected to the other end 10B of the power source 10, and the connection F on the output end side of the third line 23 and the fourth line 24 is connected to the other end 30B of the load 30.

[0030] 3(b), the first line 21 and the second line 22 are commonly connected at the input end and the output end via connections C and D, and are further connected to earth. The input end of the third line 23 is connected to one end 10A of the power source 10, and the output end of the third line 23 is connected to one end 30A of the load 30. The input end of the fourth line 24 is connected to the other end 10B of the power source 10, and the output end of the fourth line 24 is connected to the other end 30B of the load 30.

[0031] As shown in Fig. 4, the power supply device 1 can repeatedly and intermittently generate a voltage (high frequency voltage) set at a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, with a rest period Y. As shown in Fig. 5, the power supply device 1 can also continuously generate a voltage (high frequency voltage) set at a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz.

[0032] Thus, with the power supply device 1 of the present invention having the above configuration, it is possible to provide a voltage with excellent characteristics, including extremely little phase delay during transmission and extremely little amplitude attenuation (voltage drop).

[0033] That is, the present inventors have discovered that a state of electrical properties close to a superconducting state with extremely low electrical resistance can be provided by supplying a voltage (high frequency voltage) set at a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz to the load 30 via the input / output section 20 configured as described above, and by applying such a voltage (high frequency voltage) set at a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz to, for example, various electrical products, a dramatic improvement in electrical efficiency can be achieved.

[0034] That is, as shown in FIG. 6, in the power supply device 1 of the present invention, the electrical resistance is in an extremely low state of approximately 0 when the voltage frequency is 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, and is in a state close to a superconducting state. When the load 30 in the power supply device 1 is turned on as an LED, it was confirmed that the LED became the brightest at a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. Also, as shown in FIG. 7, the peak value of absorption is the largest when the voltage frequency is 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. It is presumed that resonance absorption due to collective motion of electrons occurs at 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. The above-mentioned power supply device can realize a method for generating a predetermined voltage. That is, the method of generating a predetermined voltage includes a power source 10 that generates a voltage set to a predetermined frequency, and an input / output unit 20 that inputs the voltage set to the predetermined frequency generated from the power source 10 side and outputs the input voltage set to the predetermined frequency to the load 30 side, the input / output unit 20 has a first line 21 to a fourth line 24, the first line 21 and the second line 22 are arranged parallel to each other and spaced apart, and the third line 23 and the fourth line 24 are arranged parallel to the first line 21 and the second line 22. In a voltage generating method in a power supply device 1, in which the third line 23 and the fourth line 24 are wound around the first line 21 and the second line 22 in an alternating tangled manner, and the third line 23 and the fourth line 24 are wound around the first line 21 and the second line 22 in a mutually symmetrical manner and the third line 23 and the fourth line 24 cross between the first line 21 and the second line 22, the predetermined frequency is 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz.

[0035] [Configuration of the light generating device] Hereinafter, a light beam generating device according to an embodiment of the present invention will be described in detail with reference to the drawings. Fig. 8 is a block diagram showing the configuration of a light beam generating device according to an embodiment of the present invention, Fig. 9 is a diagram showing the output of a light beam generated by the light beam generating device, Fig. 10 is a diagram showing the output of another light beam generated by the light beam generating device, and Fig. 11 is a diagram showing the configuration of a discharge generating section and a light beam irradiating section of the light beam generating device.

[0036] As shown in FIG. 8, the light beam generating device 2 has the above-mentioned power supply device 1, and the load 30 is a light beam generating unit 50 that generates a light beam, and the light beam generating unit 50 can generate a light beam based on a voltage (high frequency voltage) generated by the power supply device 1 and set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. More specifically, the light beam generating device 2 has the above-mentioned power supply device 1, and the load 30 is a light beam generating unit 50 that generates a light beam, and the light beam generating unit 50 can generate a light beam based on a voltage (high frequency voltage) output by the input / output unit 20 of the power supply device 10 and set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. The light beam generating device 2 can repeatedly and intermittently generate a light beam at a cycle of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, with a rest time Y therebetween, as shown in Fig. 9, in response to a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, generated by the power supply device 1. The light beam generating device 2 can also continuously generate a light beam at a cycle of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, as shown in Fig. 10.

[0037] More specifically, the light beam generating device 2 has the above-mentioned power supply device 1, and the load 30 is a light beam generating unit 50 that generates a light beam. The light beam generating unit 50 has a discharge generating unit 60 that generates a discharge based on a voltage (high frequency voltage) that is generated by the power supply device 1 and is set to a frequency of 30 to 31 MHz, preferably 30.50 to 30.70 MHz, and further preferably 30.6 MHz, and a light beam irradiating unit 70 that irradiates an object 75 with a light beam based on the discharge generated by the discharge generating unit 60. The light beam generating device 1 has the above-mentioned power supply unit 1, and the load 30 is a light beam generating unit 50 that generates a predetermined light beam. The light beam generating unit 50 has a discharge generating unit 60 that generates a discharge based on a voltage (high frequency voltage) that is generated by the input / output unit 20 of the power supply unit 1 and is set to a frequency of 30 to 31 MHz, preferably 30.50 to 30.70 MHz, and further preferably 30.6 MHz, and a light beam irradiating unit 70 that irradiates an object 75 with a light beam based on the discharge generated by the discharge generating unit 60.

[0038] The discharge generating unit 60 repeatedly and intermittently generates a discharge based on a voltage (high frequency voltage) that is intermittently generated and set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, and the light ray irradiating unit 70 repeatedly and intermittently irradiates the target object 75 with light rays based on the discharge generated by the discharge generating unit 60.

[0039] The discharge generating unit 60 is connected to the power source 10, has a first electrode 61 and a second electrode 62, and has a gap 63 between the first electrode 61 and the second electrode 62, and generates a discharge in the gap 63 under a rare gas atmosphere, and the light ray irradiation unit 70 can irradiate an object 75 with light rays based on the discharge generated under the rare gas atmosphere.

[0040] 11, the light beam irradiation unit 70 can generate parallel light beams by arranging a first electrode 61 and a second electrode 62 at the center of a parabolic mirror 71 and irradiate the parallel light beams onto an object 75. The rare gas can be, for example, xenon gas.

[0041] Thus, according to the light beam generating device 2 of the present invention, the light beam generating unit 50 generates a light beam based on a voltage (high frequency voltage) generated by the power supply device 10 and set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. More specifically, the light beam generating unit 50 generates a light beam based on a voltage (high frequency voltage) generated by the input / output unit 20 of the power supply device 10 and set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz. More specifically, the light ray generating unit 50 has the discharge generating unit 60 which generates a discharge based on a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, generated by the input / output unit 20 of the power supply device 10, and the light ray irradiating unit 70 which irradiates the object 75 with light based on the discharge generated by the discharge generating unit 60, thereby making it possible to improve a disease by irradiating a diseased part of the human body with light, for example. Also, by irradiating water with light, it becomes possible to transfer a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, to the water. The present inventors have confirmed that irradiation of light based on a voltage (high frequency voltage) set at a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz improves diseases, and that a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz is transferred to water. Furthermore, it has been confirmed that irradiation of the light of the present invention increases mitochondria in a given specimen. Furthermore, it has been confirmed that irradiation of the light of the present invention changes NK cell activity toward a normal value.

[0042] In addition, the light beam generating unit 50 repeatedly and intermittently generates light beams, more specifically, the power supply device 10 repeatedly and intermittently generates a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, and the discharge generating unit 60 generates a discharge based on the voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz, and the light beam irradiating unit 70 repeatedly and intermittently irradiates the light beam based on the discharge generated by the discharge generating unit 60 to the object 75, so that, for example, a diseased part of the human body can be repeatedly and intermittently irradiated with light beams, and the disease can be further improved. In addition, the light beam can be repeatedly and intermittently irradiated to water, which can promote the transfer of the frequency to the water.

[0043] Furthermore, by using xenon gas as the rare gas, the effect of improving diseases and the effect of transferring the gas to water can be improved. The above-mentioned light generating device can realize a method for irradiating a predetermined light beam. That is, the method of irradiating a predetermined light ray is a method of irradiating a light ray in a light ray generating device 2 having the above-mentioned power supply device 1 and a light ray generating unit 50 that generates a light ray, the light ray generating unit 50 being a load 30, the light ray generating unit 50 having a discharge generating unit 60 that generates a discharge based on a voltage set to a predetermined frequency output by the input / output unit 20, and a light ray irradiating unit 70 that irradiates an object 75 with a light ray based on the discharge generated by the discharge generating unit 60, the discharge generating unit 60 generating a discharge based on the voltage set to the predetermined frequency output by the input / output unit 20, and the light ray irradiating unit 70 irradiating the object 75 with a light ray based on the discharge generated by the discharge generating unit 60, the predetermined frequency being 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz.

[0044] [Object composition] As shown in FIG. 12, the light beam generating device 2 may have an object 80 disposed at a different position from the position where the light beam irradiating unit 70 is disposed, with the object 75 in between. By disposing the object 80 in this manner, the disease improving effect and the transfer effect to water can be further improved. For example, the light beam irradiating unit 70 and the object 80 may be disposed so as to face each other with the object 75 in between, as shown in FIG. 12 (the disease improving effect and the transfer effect to water can be further improved even if the light beam irradiating unit 70 and the object 80 are not disposed so as to face each other, and the disease improving effect and the transfer effect to water can be further improved by irradiating the light beam from the front side of the object 75 by the light beam irradiating unit 70 and disposing the object 80 to the side of the object 75).

[0045] The object 80 is preferably flat and includes a colored predetermined shape region 90 on its surface. That is, the colored predetermined shape region 90 is preferably a planar shape region 90. That is, the planar shape region 90 is preferably a circular shape.

[0046] Moreover, it is more preferable that the circular shape is a perfect circle. By making the colored predetermined shape region 90 a planar shape region 90, more specifically, by making the colored predetermined shape region 90 a circular shape, the effect of improving the disease and the effect of transferring to water can be further improved. The power of the object 80 can be increased in proportion to the size of the colored predetermined shape region 90.

[0047] That is, it is preferable that the coloring of the predetermined shape region 90 is such that, among the R, G, and B values ​​contained in the RGB values, at least the R value is between 200 and 255. More specifically, it is preferable that the coloring of the predetermined shape region 90 is such that, in the RGB values, the R value is between 200 and 255, the G value is between 100 and 255, and the B value is between 0 and 250.

[0048] By coloring the product with at least an R value of 200 or more and 255 or less, more specifically, by coloring the product with an R value of 200 or more and 255 or less, a G value of 100 or more and 255 or less, and a B value of 0 or more and 250 or less in the RGB values, the disease improvement effect and the transfer effect onto water can be further improved.

[0049] More specifically, the coloring is preferably any one of yellow, red, sky blue, pastel color, skin color, and white-green. For example, the yellow color can have an R value of 255, a G value of 255, and a B value of 0, the red color can have an R value of 255, a G value of 0, and a B value of 0, the sky blue color can have an R value of 222, a G value of 235, and a B value of 247, the skin color can have an R value of 249, a G value of 241, and a B value of 192, and the white-green color can have an R value of 218, a G value of 234, and a B value of 208.

[0050] The colored predetermined shape region 90 is preferably drawn on one or both sides of a flat object 80. The object 80 may be made of various materials such as paper, wood, metal, and non-metal. The object 80 may be made of, for example, hard polyvinyl chloride.

[0051] That is, as shown in Fig. 13, a flat object 81 having a colored predetermined shape region 90 drawn on one side (surface 81a) of an object 80 is preferably rectangular, and a background 90' of the colored predetermined shape region 90 in the rectangular object 81 is preferably white or yellow. By making the background 90' white or yellow, the effect of improving the disease and the effect of transferring to water can be further improved.

[0052] It is preferable that the coloring of the background 90' of the predetermined shape area 90 be such that the R value in the RGB values ​​is 240 or more and 255 or less, the G value is 240 or more and 255 or less, and the B value is 240 or more and 255 or less, or the R value is 200 or more and 255 or less, the G value is 100 or more and 255 or less, and the B value is 0 or more and 250 or less.

[0053] More specifically, when the background 90' of the predetermined shape region 90 is to be colored white, it is preferable that the R value in the RGB values ​​is 240 to 255, the G value is 240 to 255, and the B value is 240 to 255. When the background 90' of the predetermined shape region 90 is to be colored yellow, it is preferable that the R value in the RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 210.

[0054] Here, the rectangular shape may be a rectangle, and it is preferable that the colored predetermined shape area 90 is drawn so as to be inscribed in or adjacent to the long side 81A of the two pairs of opposing sides 81A, 81B of the rectangular object 81.

[0055] By drawing the colored area 90 of a predetermined shape so as to be inscribed in or adjacent to the long side 81A of the rectangular object 81, the effect of improving the disease and the effect of transferring the medicine to water can be further improved.

[0056] 14, a flat object 82 having a colored predetermined shape region 90 drawn on both sides (front surface 82a and back surface 82b) is preferably circular, and the colored predetermined shape region 90 is preferably set over the entire surface of the circle. By matching the position of the circular shape of the object 82 with the colored predetermined shape region 90, the effect of improving the disease and the effect of transferring to water can be further improved.

[0057] 15, a colored area 90 of a predetermined shape may be drawn on both sides (front surface 81a and back surface 81b) of a rectangular object 81, and a background 90' of the area 90 of the predetermined shape may be made white. Even in this case, the effect of improving the disease and the effect of transferring the medicine to water can be further improved.

[0058] As shown in Fig. 16, it is preferable that both a flat plate-like object 81 having a colored region of a predetermined shape 90 drawn on one side (front surface 81a) and a flat plate-like object 82 having a colored region of a predetermined shape 90 drawn on both sides (front surface 81a and back surface 81b) are formed by overlapping a plurality of objects. By forming a plurality of objects 81, 82 by overlapping a plurality of objects, it is possible to further improve the effect of improving a disease and the effect of transferring to water. It is preferable that the positions of the plurality of overlapping colored regions of a predetermined shape 90 are aligned. By matching the positions, it is possible to further improve the effect of improving a disease and the effect of transferring to water.

[0059] The number of pluralities is preferably a multiple of 3, and more preferably a multiple of 9. By overlapping the objects 81 and 82 with the number of pluralities being a multiple of 9, a scalar wave can be generated.

[0060] In addition, when the colored predetermined shape area 90 is drawn on both sides (front surface 81a and back surface 81b), the same power can be generated even if half the number of sheets is used compared to when it is drawn on one side (front surface 81a).

[0061] As shown in Fig. 17, the flat objects 81, 82 are preferably stored in a predetermined case 100. The predetermined case 100 is preferably a transparent or semi-transparent case 100, and the colored predetermined shape region 90 is preferably visible from the outer surface of the predetermined case when the flat objects 81, 82 are stored therein. It is preferable that a gap d is formed between the flat objects 81, 82 and the inner surface 100a of the predetermined case 100 when stored in the predetermined case 100. By forming the gap d, the disease improving effect and the transfer effect to water can be further improved.

[0062] It should be noted that the present invention is not limited to the above-described embodiment, and various modifications and applications are possible within the scope of the invention as defined in the claims.

[0063] That is, in the above-described embodiment, a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz is supplied to the load 30 via the input / output unit 20, but a voltage (high frequency voltage) of 30 to 31 MHz, more preferably 30.50 to 30.70 MHz, and even more preferably 30.6 MHz may be supplied to the load 30 via another circuit or directly from the power source 10 to the load 30, as long as it provides a state of electrical characteristics close to a superconducting state with extremely low electrical resistance.

[0064] In the above embodiment, the colored predetermined shape region 90 is a planar shape region 90, but it may be a three-dimensional shape region. The three-dimensional shape region may be any one of a cylindrical shape, a spherical shape, a hemispherical shape, and a spiral shape having a predetermined thickness.

[0065] Furthermore, in the above-described embodiment, the planar shape region 90 is circular, but it may be spiral-shaped as shown in FIGS.

[0066] By making the colored predetermined shape region 90 into any one of a spiral shape, a cylindrical shape, a spherical shape, a hemispherical shape, and a spiral shape having a predetermined thickness, the disease improvement effect and the transfer effect into water can be further improved, similar to a circular shape. The power supply device 1 described above has very little phase delay during transmission and very little amplitude attenuation (voltage drop), so it can provide a voltage with excellent characteristics even at frequencies other than 30 to 31 MHz, and the light generating device 2 can irradiate light based on such a voltage to improve illness and transfer a predetermined frequency to water. However, the effect of improving illness and the effect of transferring to water by irradiating light based on a voltage (high frequency voltage) set to a frequency of 30 to 31 MHz are more pronounced than those of other frequency bands.

[0067] [Example of irradiation of light onto the human body] A light beam generated by the light beam generator 2 of the present invention was irradiated onto a subject (subject 75), and changes in NK cell activity were confirmed. More specifically, the light beam irradiating unit 70 of the light beam generator 2 and the object 80 were arranged to face each other across the subject (subject 75), and light beams based on a voltage (high frequency voltage) set to a frequency of 30.6 MHz were irradiated onto four subjects (subjects 75) aged 37 to 50. The normal value for NK cell activity is 18 to 40.

[0068] As shown in Figure 21, NK cell activity in three out of four subjects was outside the normal range, but decreased toward the normal range three hours after irradiation. It was confirmed that NK cell activity was changed toward the normal range by irradiation with the light beam of the present invention. In addition, the NK cell activity of the subjects whose NK cell activity was within the normal range increased within the normal range. [Explanation of symbols]

[0069] A: Vertex B: bottom point C, D, E, F: Connection L: Axis of symmetry d: Gap P1 to P7: Position Q1 to Q6: Intersection position X: Height dimension Y: Downtime 1: Voltage generator 2: Light generating device 10: Power supply 10A: Setting section 10B: Control section 20: Input / output section 21: First Cable 22: Second Cable 23,24: Linear body 30: Load 30A: One end 30B: other end 50: Light generating section 60: Discharge generating section 61: First electrode 62: Second electrode 63: Gap 70: Light irradiation unit 71: Parabolic mirror 75: Object 80,81,82:Object 81A, 81B: Sides 81a: Surface 81b: Back 82a: Surface 82b: Back side 90:Prescribed area 90´:Background 100:Case 100a:Inner surface

Claims

1. a power supply generating a voltage set at a frequency of 30 to 31 MHz; An input / output unit that inputs a voltage set to a frequency of 30 to 31 MHz generated from the power supply side and outputs the input voltage set to a frequency of 30 to 31 MHz to a load side, The input / output unit has first to fourth lines, the first line and the second line are arranged parallel to each other and spaced apart from each other; 2. The power supply device according to claim 1, wherein the third line and the fourth line are wound around the first line and the second line, respectively, so as to be alternately entangled, and the third line and the fourth line are wound around the first line and the second line in a mutually symmetrical manner such that the third line and the fourth line cross between the first line and the second line.

2. 2. The power supply device according to claim 1, wherein the first line to the fourth line are arranged within a range where electromagnetic interaction occurs.

3. A power supply device according to any one of claims 1 to 3, wherein the load is a light beam generating unit that generates a light beam, The light beam generating unit is characterized in that it has: a discharge generating unit that generates a discharge based on a voltage set to a frequency of 30 to 31 MHz output by the input / output unit; and a light beam irradiating unit that irradiates an object with light beams based on the discharge generated by the discharge generating unit.

4. The light beam generating device according to claim 3, characterized in that the power supply repeatedly and intermittently generates a voltage set to the frequency of 30 to 31 MHz, the discharge generating unit repeatedly and intermittently generates a discharge based on the intermittently generated voltage set to the frequency of 30 to 31 MHz, and the light beam irradiating unit repeatedly and intermittently irradiates an object with light beams based on the discharge generated by the discharge generating unit.

5. 5. The light beam generating device according to claim 3, wherein the discharge generating unit has a first electrode and a second electrode, and a gap between the first electrode and the second electrode, and generates a discharge in the gap under a rare gas atmosphere, and the light beam irradiating unit irradiates a target object with a light beam based on the discharge generated under the rare gas atmosphere.

6. 6. The light generating device according to claim 5, wherein the rare gas is xenon gas.

7. 7. The light beam generating device according to claim 3, further comprising an object that is disposed at a different position from a position at which the light beam irradiation unit is disposed via the target object.

8. 8. The light generating device according to claim 7, wherein the object includes a colored area of ​​a predetermined shape on a surface thereof.

9. 9. The light irradiation device according to claim 8, wherein the predetermined shape area is a circle or a spiral.

10. The light generating device according to claim 9 , wherein the circular shape is a perfect circle.

11. 9. The light generating device according to claim 8, wherein the coloring of the region of the predetermined shape is such that at least the R value among the R value, G value, and B value of the RGB value is 200 or more and 255 or less.

12. 9. The light generating device according to claim 8, wherein the coloring of the region of the predetermined shape is such that an R value in RGB values ​​is 200 or more and 255 or less, a G value is 100 or more and 255 or less, and a B value is 0 or more and 250 or less.

13. 13. The light generating device according to claim 12, wherein the coloring is any one of yellow, red, sky blue, pastel colors, skin tones, and white-green.

14. A power source that generates a voltage set to a predetermined frequency; an input / output unit that inputs a voltage set to a predetermined frequency generated from the power supply side and outputs the input voltage set to the predetermined frequency to a load side; The input / output unit has first to fourth lines, the first line and the second line are arranged parallel to each other and spaced apart from each other; a third line and a fourth line are wound around the first line and the second line so as to be alternately entangled, and the third line and the fourth line are wound around the first line and the second line in a mutually symmetrical manner such that the third line and the fourth line cross between the first line and the second line, A method for generating a voltage, wherein the predetermined frequency is a frequency of 30 to 31 MHz.

15. A method for irradiating a light beam in a light beam generating device having a power supply device according to claim 14 and a light beam generating unit that generates a light beam, comprising the steps of: The light beam generating unit is the load, the light beam generating unit includes a discharge generating unit that generates a discharge based on a voltage set to a predetermined frequency output by the input / output unit, and a light beam irradiating unit that irradiates an object with a light beam based on the discharge generated by the discharge generating unit, The discharge generating unit generates a discharge based on a voltage set to a predetermined frequency output by the input / output unit, and the light ray irradiating unit irradiates a target object with a light ray based on the discharge generated by the discharge generating unit. A light irradiation method, characterized in that the predetermined frequency is 30 to 31 MHz.

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