Wave generator and wave generating device

Abstract

The present invention provides a wave generator and wave generating device capable of generating a predetermined wave using a coil-shaped component. [Solution] The wave generator WG1 generates a predetermined wave using a coil-shaped member 10. The coil-shaped member 10 has a circular portion formed by spirally winding a linear body 11 along a predetermined plane, with an outer shape that is substantially circular in plan view, and has a first circular portion 110, a second circular portion 120, and a third circular portion 130. Each of the circular sections 110, 120, and 130 is constructed by winding the linear body 11 in a parallel double helix shape.

Description

Technical Field

[0001] The present invention relates to a wave generator and a wave generating device that can generate a predetermined wave by a coiled member.

Background Art

[0002] Conventionally, various wave generators have been proposed. For example, Patent Document 1 discloses a wave generator (wave therapy device) that can effectively treat diseases by using low-frequency current, electromagnetic waves, and / or sound waves.

Prior Art Document

Patent Document

[0003]

Patent Document 1

Summary of the Invention

Problems to be Solved by the Invention

[0004] By the way, although it is known that waves are generated from the human body and various objects, the development of a device that can generate simpler and better waves has been desired. For example, it has been clarified by the present inventor that waves are also generated from a coiled member, and better waves are generated by configuring the coiled member in a predetermined manner.

[0005] The present invention has been made in view of such circumstances, and an object thereof is to provide a wave generator and a wave generating device that can generate a predetermined wave using a coiled member.

Means for Solving the Problems

[0006] To achieve the above object, a wave generator according to the present invention is a wave generator that generates a predetermined wave by a coiled member, wherein the coiled member is configured to have a circular portion wound in a spiral shape so as to form a substantially circular outer shape.

[0007] According to the present invention, the coil-shaped member is configured to have a circular portion formed by spirally winding it to create a substantially circular outer shape, thereby enabling the generation of a predetermined wave using the coil-shaped member.

[0008] To achieve the above objective, the wave generator according to the present invention is a wave generator that generates a predetermined wave using a coil-shaped member, characterized in that the coil-shaped member is configured to have a circular portion formed by winding it in a double helix parallel to each other to form a substantially circular outer shape.

[0009] According to the present invention, the coil-shaped member is configured to have a circular portion formed by winding it in a double helix shape to create a substantially circular outer shape, thereby enabling the generation of a predetermined wave using the coil-shaped member.

[0010] To achieve the above objective, the wave generator according to the present invention is a wave generator that generates a predetermined wave using a coil-shaped member, characterized in that the coil-shaped member is configured to have a first circular portion, a second circular portion, and a third circular portion, which are formed by winding a spiral to create a substantially circular outer shape.

[0011] According to the present invention, the coil-shaped member is configured to have a first circular portion, a second circular portion, and a third circular portion, which are formed by winding a spiral to create a substantially circular outer shape, thereby enabling the generation of a predetermined wave using the coil-shaped member.

[0012] To achieve the above objective, the wave generator according to the present invention is a wave generator that generates a predetermined wave using a coil-shaped member, characterized in that the coil-shaped member is configured to have a first circular portion, a second circular portion, and a third circular portion, which are formed by winding the coil in a double helix shape to form a substantially circular outer shape.

[0013] According to the present invention, a wave generator that generates a predetermined wave using a coil-shaped member is configured such that the coil-shaped member has a first circular portion, a second circular portion, and a third circular portion, which are formed by winding the coil in a double helix shape to form a substantially circular outer shape, thereby enabling the generation of a predetermined wave using the coil-shaped member.

[0014] The first circular portion, the second circular portion, and the third circular portion are continuous in an endless manner and arranged in a triangular shape, thereby enabling the generation of good waves.

[0015] Specifically, the first circular portion has a first outer spiral portion and a first inner spiral portion, the second circular portion has a second outer spiral portion and a second inner spiral portion, and the third circular portion has a third outer spiral portion and a third inner spiral portion, the first outer spiral portion of the first circular portion is spirally wound outward from the center of the first circular portion at a predetermined distance, and the first inner spiral portion of the first circular portion is in the first outer spiral portion The first circular portion is spirally wound outward from the center side of the first circular portion, continuous with the first outer spiral portion, at a predetermined interval, so as to pass through the predetermined interval in the first inner spiral portion, and the first outer spiral portion is formed so as to pass through the predetermined interval in the first inner spiral portion, and the second outer spiral portion of the second circular portion is spirally wound outward from the center side of the second circular portion, continuous with the outer end of the first inner spiral portion of the first circular portion, at a predetermined interval, and the second Preferably, the second inner spiral portion of the circular portion is wound spirally outward from the center of the second circular portion at a predetermined interval, while being continuous with the second outer spiral portion, so as to pass through the predetermined interval in the second outer spiral portion, and the second outer spiral portion is formed to pass through the predetermined interval in the second inner spiral portion, and the third outer spiral portion of the third circular portion is wound spirally outward from the center of the third circular portion at a predetermined interval, while being continuous with the outer end of the second inner spiral portion of the second circular portion, and the third inner spiral portion of the third circular portion is wound spirally outward from the center of the third circular portion at a predetermined interval, while being continuous with the third outer spiral portion, so as to pass through the predetermined interval in the third outer spiral portion, and is continuous with the outer end of the first outer spiral portion of the first circular portion, and the third outer spiral portion is formed to pass through the predetermined interval in the third inner spiral portion.

[0016] The aforementioned coil-shaped member can be configured as a single piece or by stacking multiple pieces together, thereby enabling the generation of good wave properties.

[0017] The coiled members configured by overlapping a plurality of them are arranged so as to be non-contact with each other via an inclusion, whereby better waves can be generated.

[0018] The plurality being a power of 3 can generate even better waves.

[0019] It is preferable that a sheet-like material is configured by being single or overlapping on the upper surface and / or lower surface of the coiled member.

[0020] More specifically, the sheet-like material can generate good waves by forming a circular colored portion in the center using ink.

[0021] The colored portion being a yellow-based or skin-colored can generate even better waves. More specifically, the colored portion being a yellowish skin color can generate even better waves.

[0022] The plurality being a power of 3 can generate even better waves.

[0023] The coiled member and the sheet-like material are arranged so as to be non-contact with each other via an inclusion, whereby even better waves can be generated.

[0024] To achieve the above object, the wave generator according to the present invention has three of the above wave generators, and the three wave generators are arranged in a triangular shape, whereby good waves can be generated.

[0025] It is preferable that at least one of the inner surface and the outer surface of the wave generator arranged in a triangular shape is covered with a flat plate.

[0026] That is, the flat plate being formed of cypress can generate even better waves.

[0027] It is preferable that at least one of the inner surface and the outer surface of each of the wave generators arranged in a triangular shape is covered with a first flat plate, and further the outer surface thereof is covered with a second flat plate.

[0028] That is, by forming the first flat plate and the second flat plate from cypress, better waves can be generated.

[0029] To achieve the above object, the wave generator according to the present invention is configured by housing the above wave generator in a bag-like object, so that good waves can be generated.

[0030] The bag-like object has a predetermined color, and the color is a yellow-based or skin-colored color. More specifically, the color is a yellowish skin color, so that better waves can be generated.

[0031] The bag-like object can generate even better waves by housing the wave generator as a single sheet or in a state of being stacked in a power of 3.

[0032] To achieve the above object, the wave generator according to the present invention is characterized in that the above wave generator is configured by being sandwiched between flat plates.

[0033] The flat plate is preferably formed from cypress.

[0034] To achieve the above object, the wave generator according to the present invention is configured such that the above wave generator is arranged inside a flat plate triangular cylinder formed by arranging three flat plates in a triangular shape, so that good waves can be generated.<000Q119>

Effects of the Invention

[0035] As described above, according to the present invention, a predetermined wave can be generated using a coil-shaped member.

Brief Description of the Drawings

[0036] [Figure 1] This is a plan view showing the wave generator of Embodiment 1. [Figure 2] This is a front view showing the wave generator of Embodiment 1. [Figure 3] This is a perspective view showing a coil-shaped component housed in the case of the wave generator of Embodiment 2. [Figure 4] This is a perspective view showing the external appearance of the wave generator according to Embodiment 2. [Figure 5] This is a perspective view showing the wave generator of Embodiment 2 with a ring-shaped body attached. [Figure 6] This is a schematic diagram showing an example of using the wave generator of Embodiment 2. [Figure 7] This is an exploded perspective view showing the wave generator of Embodiment 3. [Figure 8] This is a perspective view showing the external appearance of the wave generator according to Embodiment 3. [Figure 9] This is a plan view showing a sheet-like material used in the wave generator of Embodiment 3. [Figure 10] This is a schematic diagram showing the positioning state of the coil-shaped member in the wave generator of Embodiment 3. [Figure 11] This is a perspective view showing the wave generator of Embodiment 4. [Figure 12] This is a perspective view showing a modified example of the wave generator according to Embodiment 4. [Figure 13] This is a perspective view showing the wave generator of Embodiment 5. [Figure 14] This is an explanatory diagram of the configuration of the wave generator used in the wave generator of Embodiment 5. [Figure 15] This is an explanatory diagram of the configuration of the wave generator according to Embodiment 6. [Figure 16] This is a diagram illustrating the configuration of another example of the wave generator according to Embodiment 6. [Figure 17] This is a perspective view showing a modified example of the wave generator according to Embodiment 6. [Figure 18] This is an explanatory diagram of the configuration of the wave generator according to Embodiment 7. [Figure 19] This is a perspective view showing the wave generator of Embodiment 7. [Figure 20] This is an explanatory diagram of the configuration of the wave generator according to Embodiment 8. [Figure 21] This is an explanatory diagram of the structure of the bag-shaped object used in the wave generator of Embodiment 8. [Figure 22] This figure shows a modified example of the present invention. [Figure 23] This diagram shows the configuration of the Rayocomp. [Modes for carrying out the invention]

[0037] Embodiments of the present invention will be described in detail below with reference to the drawings.

[0038] (Embodiment 1) The wave generator WG1 of Embodiment 1 generates a predetermined wave using a coil-shaped member 10. The wave generated by the wave generator WG1 may include, for example, electromagnetic waves emitted from the coil-shaped member 10 (similarly in Embodiments 2 to 8, the wave generated by the wave generator may include electromagnetic waves emitted from the coil-shaped member 10, etc.). The coil-shaped member 10 has circular portions (110, 120, 130) formed by spirally winding a linear body 11 along a predetermined plane to create an outer shape that is approximately circular in plan view. The number of turns of the linear body 11 in the circular portions (110, 120, 130) is a power of 3 (for example, when n is a natural number (positive integer) such as 1, 2, 3, ..., 3 n It is preferable that the number of turns is expressed as (the same applies to powers of 3 below) (in the figure, it is shown as 9 turns). The wave generator WG1 is composed of one coil-shaped member 10. A predetermined gap 11' is formed between adjacent spirally wound linear bodies 11, and this gap 11' is also spirally formed to correspond to the linear bodies 11 (in the following embodiments 2 and later, a spiral gap 11' is formed between adjacent linear bodies 11).

[0039] The wave generator WG1 of Embodiment 1 shown in Figures 1 and 2 has a first circular portion 110, a second circular portion 120, and a third circular portion 130, which are formed by spirally winding a linear body 11 to create an outer shape that is substantially circular in plan view. In addition, the number of circular sections 110, 120, and 130 in the wave generator may be one or more than three, but a more preferable embodiment is one in which there are three.

[0040] Furthermore, each circular portion 110, 120, and 130 is configured to form an outer shape that is approximately circular in plan view by winding the linear body 11 in a parallel double helix. The linear body 11 in the circular portion may be wound in multiple layers other than single or double helix, but a double helix is ​​a more preferable embodiment.

[0041] Furthermore, in the wave generator WG1 of Embodiment 1 shown in Figures 1 and 2, the linear bodies 11 of the first circular portion 110, the linear bodies 11 of the second circular portion 120, and the linear bodies 11 of the third circular portion 130 are arranged in an endlessly continuous manner and in a triangular shape. This triangular arrangement includes various triangular arrangements, but an equilateral triangle is a more preferred embodiment.

[0042] The double helix structure and the endless continuous configuration of the wave generator WG1 of the above-described embodiment 1 will now be explained in detail. The linear body 11 of the first circular portion 110 has a first outer spiral portion 111 and a first inner spiral portion 112, the linear body 11 of the second circular portion 120 has a second outer spiral portion 121 and a second inner spiral portion 122, and furthermore, the linear body 11 of the third circular portion 130 has a third outer spiral portion 131 and a third inner spiral portion 132.

[0043] The first outer spiral portion 111 of the first circular portion 110 is spirally wound outward from the center 113 side of the first circular portion 110 at predetermined intervals. The first inner spiral portion 112 of the first circular portion 110 is wound spirally outward from the center 113 side of the first circular portion 110 at a predetermined interval, while being continuous with the first outer spiral portion 111, so as to pass through a predetermined interval in the first outer spiral portion 111, and the first outer spiral portion 111 is formed so as to pass through a predetermined interval in the first inner spiral portion 112.

[0044] The second outer spiral portion 121 of the second circular portion 120 is continuous with the outer end of the first inner spiral portion 112 of the first circular portion 110, and is spirally wound toward the center 123 of the second circular portion 120 located inside, at a predetermined distance. The second inner spiral portion 122 of the second circular portion 120 is spirally wound outward from the center 123 side of the second circular portion 120 at a predetermined interval, while being continuous with the second outer spiral portion 121, so as to pass through a predetermined interval in the second outer spiral portion 121, and the second outer spiral portion 121 is formed so as to pass through a predetermined interval in the second inner spiral portion 122.

[0045] The third outer spiral portion 131 of the third circular portion 130 is continuous with the outer end of the second inner spiral portion 122 of the second circular portion 120, and is spirally wound toward the center 133 of the third circular portion 130 located inside, at a predetermined distance. The third inner spiral portion 132 of the third circular portion 130 is wound spirally outward from the center 133 side of the third circular portion 130 at a predetermined interval, while continuing with the third outer spiral portion 131, so as to pass through a predetermined interval in the third outer spiral portion 131, and is continuous with the outer end of the first outer spiral portion 111 of the first circular portion 110, and the third outer spiral portion 131 is formed so as to pass through a predetermined interval in the third inner spiral portion 132. As described above, the linear bodies 11 of the first circular portion 110, the second circular portion 120, and the third circular portion 130 are configured to be endlessly continuous.

[0046] The linear body 11 used in the wave generator WG1 of Embodiment 1 is formed of, for example, resin. Furthermore, as described above, the linear bodies 11 that are continuously formed in an endless manner in the first to third circular portions 110, 120, and 130 are preferably formed by a 3D printer or by a mold. As the resin for forming the linear bodies 11, thermoplastic resins are preferred, and for example, ABS (Acrylonitrile Butadiene Styrene) resin, ASA (Acrylonitrile styrene acrylate) resin, PLA (polylactic acid) resin, PLA PLUS, PLA metal resin, nylon (polyamide resin), etc. can be used. Furthermore, the linear body 11 has a predetermined wire diameter (predetermined thickness). That is, the linear body 11 has a three-dimensional shape with a predetermined volume. Furthermore, it is preferable that the wave generator WG1 of Embodiment 1 be housed in a predetermined case CA. The case CA will be described in detail in Embodiment 2.

[0047] In the wave generator WG1 of Embodiment 1 described above, a linear body 11 is wound in a double helix parallel to a predetermined plane to form a roughly circular shape in plan view, and it is configured to have a first circular portion 110, a second circular portion 120, and a third circular portion 130, thereby enabling the generation of a predetermined wave using a coil-shaped member 10. Furthermore, the formation of predetermined gaps 11' between the spirally wound linear bodies 11 allows for the generation of good waves. Furthermore, the first circular portion 110, the second circular portion 120, and the third circular portion 130 are continuously connected in an endless manner via the linear body 11 and are arranged in a triangular shape, thereby enabling the generation of even better waves.

[0048] (Embodiment 2) Next, the wave generator WG2 of Embodiment 2 will be described. As shown in Figure 3, the wave generator WG2 of Embodiment 2 is constructed by stacking multiple coil-shaped members 10. Furthermore, the multiple stacked coil-shaped members 10 are arranged so as to be non-contact with each other via intervening materials 20.

[0049] In other words, the wave generator WG2 of the second embodiment comprises a laminate 200 in which three wave generators WG1 are stacked, and interposed between the wave generators WG1 so that they do not come into contact with each other. It is preferable that the number of wave generators WG1 stacked is multiple, and more preferably a power of 3. The more wave generators WG1 are stacked, the greater the wave power.

[0050] Furthermore, the inclusion 20 is a sheet-like material. That is, the inclusion 20 is formed in a thin, flake-like form without wrinkles. Preferably, the inclusion 20 is as thin as one electron. Furthermore, it is preferable that the sheet-like inclusion 20 be made of paper or vinyl. Furthermore, the intervening material 20 is formed in a "rice ball shape" in which each corner of the triangle is curved outward, and in particular arc-shaped, according to the shape of the wave generator WG1, corresponding to the outer shape of the circular parts 110, 120, and 130 of the wave generator WG1.

[0051] Furthermore, in the second embodiment, the wave generator WG2 houses the laminated body 200 in the case 30 shown in Figure 4. Case 30 has a shape corresponding to the outer contour of the wave generator WG1 as a coil-shaped member 10, and is a triangular shape corresponding to the outer contour of the wave generator WG1, with the corners of the triangular shape being curved and projecting outwards, and being arc-shaped corresponding to the circular portions 110, 120, and 130.

[0052] Furthermore, the case 30 is preferably made of resin. Also, the case 30 is preferably transparent. Furthermore, as the resin used for case 30, any of PLA (polylactic acid) resin, PLA PLUS, PLA metal resin, or ABS resin is preferred. Alternatively, case 30 can be made of metal. Stainless steel or aluminum can be used as the metal for case 30.

[0053] Furthermore, as shown in Figure 5, case 30 has a ring-shaped body 31 formed from a string member 31a. The string member 31a forming this ring-shaped body 31 is preferably made of natural fibers. And, preferably, the natural fibers are at least one of hemp, cotton, silk, and wool.

[0054] As described above, the wave generator WG2 of Embodiment 2 has a ring-shaped body 31, and therefore can be suspended from the neck NK of the human body BD, as shown in Figure 6. Furthermore, as shown in Figure 5, the ring-shaped body 31 is provided with an adjuster 32, and by moving the position of this adjuster 32, the length of the ring portion of the ring-shaped body 31 can be adjusted. Furthermore, as shown in Figure 6, when the wave generator WG2 of Embodiment 2 is suspended from the neck NK, it is preferable to position the wave generator WG2 in the midline of the chest (in front of the heart).

[0055] In the wave generator WG2 of Embodiment 2 described above, a good wave can be generated by stacking multiple wave generators WG1, which are coil-shaped members 10. Furthermore, the wave generator WG1, which is a coil-shaped component 10 composed of multiple layers, can generate even better waves by arranging them so that they are non-contact with each other via the intervening material 20. Furthermore, by forming the inclusions 20 without wrinkles, even better wave generation can be achieved. Furthermore, by stacking multiple wave generators WG1 as coil-shaped components 10, and setting the number of stacks to a power of 3 (3 is 3 to the power of 1), it is possible to generate even better waves. Furthermore, the wave generator WG2 is easy to carry and convenient to use because the laminated body 200 is housed in case 30. Furthermore, because it has a ring-shaped body 31, it can be suspended from the neck NK of the human body BD, as shown in Figure 6, making it very convenient to use. Moreover, the wave generator WG2 can be positioned in the midline of the chest (in front of the heart), thereby providing good wave energy. Furthermore, it is preferable that case 30 is formed without distortion. In other words, if case 30 is distorted, it may hinder the generation of good waves.

[0056] (Embodiment 3) Next, the wave generator WG3 of Embodiment 3 will be described. The wave generator WG3 of this third embodiment is constructed by stacking multiple sheet-like materials 40, as shown in Figure 7, on the upper and / or lower surfaces of a coil-shaped member 10. Here, the wave generator WG3 is constructed using the wave generator WG1, which has a first circular portion 110, a second circular portion 120, and a third circular portion 130 as a coil-shaped member 10. First, to briefly explain the overall configuration of the wave generator WG3, the wave generator WG3 is constructed by positioning the wave generator WG1 on the positioning member 50, stacking multiple sheet-like materials 40 with an intervening material 60 in between, and housing them in the case CA2.

[0057] Here, the sheet-like material 40 is formed to cover the entire upper and lower surfaces of the wave generator WG1, which is a coil-shaped member 10. Furthermore, the sheet-like material 40 is made of paper, and preferably water-resistant paper. Furthermore, as shown in Figure 9, the sheet-like material 40 is rectangular in shape 41, and the rectangular material 41 has a circular colored portion 42 formed in the center using ink (the ink is, for example, a predetermined dye and / or pigment). More specifically, the sheet-like material 40 is rectangular, with dimensions of approximately 85 to 95 mm in length of the long side L1 and 60 to 70 mm in length of the short side L2, preferably with the long side L1 being 92 mm and the short side L2 being 65 mm.

[0058] Furthermore, the colored portion 42 only needs to be formed on at least one of the front and back surfaces of the sheet-like material 40, but in Embodiment 3, it is formed on both the front and back surfaces of the sheet-like material 40. Furthermore, the color of the colored portion 42 is a yellowish or skin-tone color (yellowish includes not only yellow but also cream yellow, etc.). Specifically, the color of the colored portion 42 is an RGB color space where R is red, G is green, and B is blue, and when expressed in 256 gradations, the R value is 240-255, the G value is 180-255, and the B value is 0-200. Furthermore, preferably, the color of the colored portion 42 is yellowish-skin color. Specifically, the color of the colored portion 42 is an RGB color system (RGB color space) where R is red, G is green, and B is blue, and when expressed in 256 gradations, the R value is 240-255, the G value is 230-250, and the B value is 180-200. More preferably, the color of the colored portion 42 is an RGB color system (RGB color space) where R is red, G is green, and B is blue, and when expressed in 256 gradations, the R value is 249, the G value is 241, and the B value is 192.

[0059] Furthermore, in the rectangular sheet-like object 41, the area 41a other than the circular colored portion 42 formed in the center is a different color from the colored portion 42, and preferably the area 41a other than the colored portion 42 is white. Specifically, in the RGB color system (RGB color space) where R is red, G is green, and B is blue, and expressed in 256 gradations, the R value of the RGB values ​​is 240 to 255, the G value is 240 to 255, and the B value is 240 to 255. More preferably, in the RGB color system (RGB color space) where R is red, G is green, and B is blue, and expressed in 256 gradations, the R value of the RGB values ​​is 255, the G value is 255, and the B value is 255.

[0060] Furthermore, while only one sheet-like material 40 may be placed on the upper and / or lower surface of the coil-shaped member 10, it is preferable that multiple sheet-like materials 40 are stacked on the upper and / or lower surface of the coil-shaped member 10, and more preferably, the number of sheets is a power of three. Embodiment 3 shows an example in which three sheet-like materials 40 are stacked. The wave generator WG3 is constructed by sandwiching the wave generator WG1 between a pair of three stacked sheet-like materials 40, 40. Furthermore, the wave generator WG1 as a coil-shaped member 10 and the sheet-like objects 40, 40 are arranged so as to be non-contact with each other via intervening objects 60, 60. Furthermore, the inclusion 60 is a sheet-like component, specifically a transparent film. That is, the inclusion 60 is formed in a thin, wrinkle-free form. Preferably, the inclusion 60 is as thin as one electron.

[0061] Furthermore, the polymer, consisting of the wave generator WG1, the inclusions 60, 60, and the sheet-like materials 40, 40, is housed in case CA2, as shown in Figure 8. As shown in Figure 7, case CA2 is formed in a box shape by a first case member c1 and a second case member c2.

[0062] Furthermore, when housing the wave generator WG1 as a coil-shaped member 10 in the case CA2, there is a positioning member 50 that positions the wave generator WG1 in the center of the case CA2 and the sheet-like material 40. The positioning member 50 comprises an inner frame portion 51 and an outer frame portion 52. As shown in Figure 10, the inner frame portion 51 has a triangular shape corresponding to the outer contour of the wave generator WG1 as a coil-shaped member 10, and the corners of the triangular shape are curved and protrude outward, so that the wave generator WG1 is fitted inside the inner frame portion 51. Specifically, the curved shape of the triangular corners of the inner frame portion 51 is an arc shape corresponding to the circular portions 110, 120, and 130 of the wave generator WG1.

[0063] Furthermore, the inner frame portion 51 is fixed inside the rectangular outer frame portion 52, which corresponds to the outer contour of the rectangular sheet-like material 40. The outer frame portion 52 is shaped to correspond to the inside of the case CA2 and is configured to fit inside the case CA2. Case CA2, like in Embodiment 2, is made of resin and is preferably transparent. Furthermore, it is preferable to use PLA (polylactic acid) resin, PLA PLUS, PLA metal resin, or ABS resin for the case CA2 material. Alternatively, it may be made of a metal such as stainless steel or aluminum.

[0064] Furthermore, the wave generator WG3 of Embodiment 3 has a ring-shaped body 33 formed from a string member 33a, as shown in Figure 8. Therefore, as shown in Figure 6, it is configured to be suspended from the neck NK of the human body BD by the ring-shaped body 33. Also, as with Embodiment 2, it is preferable to provide an adjuster 32 on the ring-shaped body 33 to make the length of the ring-shaped portion variable, and when suspended from the neck NK, it is preferable to position the wave generator WG3 in the midline of the chest (in front of the heart). The cord member 33a is made of natural fibers, preferably at least one of hemp, cotton, silk, or wool.

[0065] As described above, the wave generator WG3 of Embodiment 3 is constructed by layering one or more sheet-like materials 40 on the upper and lower surfaces of the wave generator WG1, which is a coil-shaped member 10, and is therefore capable of generating good waves. Furthermore, by changing the sheet-like material 40 to a rectangular material 41, and forming a circular colored portion 42 in the center of the rectangular material 41 using ink, it is possible to generate even better waves. In addition, since the colored portion 42 is yellowish or skin-colored, it can generate good vibrations. Furthermore, if the colored portion 42 is yellowish-skin-colored, it can generate even better vibrations. Furthermore, by making the number of layers of the sheet-like material 40 a power of 3, it is possible to generate even better waves. Furthermore, since the wave generator WG1 as a coil-shaped member 10 and the sheet-like material 40 are arranged so as to be non-contact with each other via the intervening material 60, even better waves can be generated. Furthermore, by forming the inclusions 60 without wrinkles, even better wave properties can be generated. Furthermore, since the laminate, consisting of the wave generator WG1, intercalators 60, 60, and sheet-like materials 40, 40, is housed in case CA2, the individual components do not separate, making the wave generator WG3 easy to carry and providing excellent usability. Furthermore, it is preferable that the case CA, inner frame 51, and outer frame 52 are formed without distortion. In other words, if there is distortion in the case CA, inner frame 51, and outer frame 52, it may hinder the generation of good waves.

[0066] (Embodiment 4) Next, the wave generators WGD1 and WGD2 of Embodiment 4 will be described. The wave generators WGD1 and WGD2 shown in Figures 11 and 12 are constructed using the wave generator WG3 of the third embodiment. The first wave generator WGD1 of Embodiment 4 shown in Figure 11 has three wave generators WG3, and the three wave generators WG3 are arranged in a triangular shape. That is, the long sides of the wave generator WGD1 are joined together to form a triangular tube, or more specifically, a regular triangular tube. Furthermore, the second wave generator WGD2 of Embodiment 4 shown in Figure 12 is configured in a regular triangular tubular shape by connecting the short sides of three wave generators WG3.

[0067] The wave generators WGD1 and WGD2 of Embodiment 4 described above have three wave generators WG3, and the three wave generators WG3 are arranged in a triangular shape, like a triangular cylinder, which allows for the generation of good waves.

[0068] (Embodiment 5) Next, we will describe the wave generator WGD3 of Embodiment 5 shown in Figure 13. This wave generator WGD3 is a modified example of Embodiment 4, and is configured such that at least one of the inner and outer surfaces of the triangularly arranged wave generator WG3 is covered with a flat plate 70, preferably both the inner and outer surfaces. In other words, the wave generator WGD3 is constructed by sandwiching the wave generator WG3 between two flat plates 70, 70.

[0069] As shown in Figure 14, the wave generator WG3b is formed by covering the inner and outer surfaces of the wave generator WG3 with flat plates 70, 70. The flat plates 70 are cypress boards with a thickness of 1 mm or less, preferably 0.6 mm thick.

[0070] Then, as shown in Figure 13, the wave generators WG3b are arranged in a triangular shape to form the wave generating device WGD3. In this way, the inner and outer surfaces of the triangularly arranged wave generator WG3 are covered with flat plates 70, which enables the generation of good waves. Furthermore, by forming the flat plate 70 from cypress wood, it can generate even better vibrations. In the wave generator WGD3, the inner and outer surfaces of the wave generator WG3 are covered with the flat plate 70. However, the inner surface or only the outer surface of the triangularly arranged wave generator WG3 may be covered with the flat plate 70. In other words, the wave generator WGD3 can achieve the desired effect if it is configured such that at least one of the inner surface and outer surface of the triangularly arranged wave generator WG3 is covered with the flat plate 70.

[0071] (Embodiment 6) Next, the wave generators WGD4 and WGD5 of Embodiment 6 will be described. The wave generators WGD4 and WGD5 of Embodiment 6 house three stacked wave generators WG3, or a wave generator WGD1 (see Figure 11) in which three wave generators WG3 are arranged in a triangular shape, inside a flat triangular cylindrical body 500 as shown in Figures 15 and 16. In other words, the flat triangular tube 500 is constructed by arranging three rectangular flat plates 501 of the same dimensions in a triangular shape. Furthermore, the flat plate 501 is preferably made of wood, and more preferably made of cypress. The wave power increases with thicknesses of 6 mm, 3 mm, and 9 mm, with 6 mm being the most preferred among these.

[0072] The first wave generator WGD4 of Embodiment 6 shown in Figure 15 is constructed by stacking and housing three wave generators WG3 inside a flat plate triangular cylinder 500 formed by joining flat plates 501 in a triangular prism shape.

[0073] The second wave generator WGD5 of Embodiment 6 shown in Figure 16 is constructed by housing a wave generator WGD1 inside a flat plate triangular cylinder 500 formed by joining flat plates 501 in a triangular prism shape, with three wave generators WG3 arranged in a triangular prism shape inside. Alternatively, the wave generator WGD5 can also be constructed by covering the outer surface of each wave generator WG3 that makes up the wave generator WGD1 with flat plates 501 and arranging them in a triangular shape.

[0074] Furthermore, multiple wave generators WGD4 or WGD5 may be stacked, as shown in Figure 17.

[0075] As described above, in the wave generators WGD4 and WGD5 of Embodiment 5, the wave generators WG3 and WGD1 are housed inside the flat triangular cylinder 500, making it possible to generate good waves. Furthermore, each flat plate 501 can generate even better waves by being made of cypress wood. Furthermore, since the wave generating device WGD1, which consists of three wave generators WG3 arranged in a triangular prism shape, is housed inside a flat plate triangular cylinder 500 formed by arranging three flat plates in a triangular shape, it is possible to generate even better waves.

[0076] (Embodiment 7) Next, the wave generator WGD3b of Embodiment 7 will be described. This wave generator WGD3b is a modification of Embodiments 5 and 6, and is an example in which the wave generator WGD3 of Embodiment 5 shown in Figure 13 is housed inside a flat triangular cylinder 700. The wave generator WGD3 is constructed by arranging wave generators WG3b in a triangular shape, with the inner and outer surfaces of each wave generator WG3 being covered by a first flat plate 70.

[0077] As shown in Figures 18 and 19, the flat triangular tube 700 is formed in the shape of a regular triangular prism by arranging three rectangular second flat plates 702 in a triangular pattern. The second flat plates 702 are also cypress wood boards, with a thickness of 2 mm or more, preferably 6 mm to 10 mm (the wave power decreases if the thickness is 10 mm or more). In other words, the second plate 702 is formed to be thicker than the first plate 70, which covers the inner and outer surfaces of the wave generator WG3 in the wave generator WGD3.

[0078] Then, the wave generator WGD3 is housed inside the flat triangular tube 700, thereby forming the wave generator WGD3b. In this embodiment 7, the wave generator WGD3b is capable of generating good waves because the inner and outer surfaces of each triangularly arranged wave generator WG3 are covered with a first flat plate 70, and the outer surfaces are further covered with a second flat plate 702. Furthermore, by forming the first flat plate 70 and the second flat plate 702 from cypress wood, even better wave generation can be achieved. In the wave generator WGD3b, both the inner and outer surfaces of each triangularly arranged wave generator WG3 are covered with the flat plate 70. However, only the inner surface or only the outer surface of the triangularly arranged wave generator WG3 may be covered with the flat plate 70. In other words, the wave generator WGD3b can achieve the desired effect by being configured such that at least one of the inner surface and outer surface of the triangularly arranged wave generator WG3 is covered with the flat plate 70.

[0079] (Embodiment 8) Next, the wave generator WGD6 of Embodiment 8 will be described. As shown in Figure 20, the wave generator WGD6 of Embodiment 8 is configured by housing the wave generator WG3 in a bag-like object 80. The bag-like object 80 is made of natural fibers. Preferably, the natural fibers are at least one of linen, cotton, silk, or wool. Furthermore, it is preferable that the bag-like object 80 is made of plain weave or twill weave fabric. Moreover, it is preferable that the bag-like object 80 (first bag-like object 81, second bag-like object 82, third bag-like object 83) is in the form of a thin flake. Furthermore, the bag-like object 80 has a predetermined color, which is a yellowish or skin-tone color (the yellowish color includes not only yellow but also cream yellow, etc.). Moreover, when the color is expressed in RGB color space, where R is red, G is green, and B is blue, using 256 gradations, it is preferable that the R value is 240 to 255, the G value is 180 to 255, and the B value is 0 to 200. Furthermore, the aforementioned color is preferably a yellowish-skin color, and when the aforementioned color is expressed in 256 gradations using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is 240 to 255, the G value is 230 to 250, and the B value is 180 to 200. Moreover, when the aforementioned color is expressed in 256 gradations using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is 249, the G value is 241, and the B value is 192.

[0080] Furthermore, the bag-shaped object 80 houses the wave generator WG3 in a stack of three layers. More specifically, as shown in Figure 21, the bag-shaped object 80 houses the wave generator WG3 in a stack of three layers. That is, the bag-shaped object 80 has a first bag-shaped object 81, a second bag-shaped object 82, and a third bag-shaped object 83. The first bag-shaped object 81 is inserted into the second bag-shaped object 82, and the second bag-shaped object 82, into which the first bag-shaped object 81 is inserted, is then inserted into the third bag-shaped object 83, and the wave generator WG3 is then inserted into the first bag-shaped object 81 to house it.

[0081] The wave generator WGD6 of Embodiment 8 is configured by housing the wave generator WG3 in a bag-shaped object 80, thereby enabling the generation of good waves. Furthermore, by making the bag-like object 80 yellowish-skin colored, it is possible to generate even better vibrations. In addition, by housing the wave generator WG3 in a stack of three or more layers of the bag-like structure 80, even better wave generation can be achieved. However, the desired effect can also be achieved by housing the wave generator WG3 in a single bag-like structure 80.

[0082] While embodiments of the present invention have been described in detail above with reference to the drawings, the specific configuration is not limited to these embodiments, and any design modifications that do not depart from the spirit of the present invention are included in the present invention. In Embodiment 1, the coil-shaped member was shown wound in a double helix, but the desired effect can also be achieved with a single helix or multiple helical configurations other than double. However, a coil-shaped member wound in a double helix is ​​a more preferable embodiment.

[0083] Furthermore, while Embodiment 1 shows an example with three circular portions, the number of circular portions may be one or more than three. However, a more preferable embodiment is one in which the number of circular portions is a power of three.

[0084] In Embodiment 2, an example was shown in which coil-shaped members were stacked in three layers. However, the desired effect can be achieved even if the number of stacked members is not a power of three. However, it is more preferable to stack the coil-shaped members in a number that is a power of three. Furthermore, while Embodiment 3 shows an example where a sheet-like material is stacked above and below a coil-shaped member, the sheet-like material may be stacked on either the top or bottom of the coil-shaped member. Also, although a paper sheet-like material was shown, the desired effect can be achieved using other materials such as cloth, resin, or metal. Furthermore, while Embodiment 3 shows an example where three sheet-like materials are stacked, the desired effect can be achieved even with a number other than a power of three. However, stacking a power of three sheet-like materials is a more preferable embodiment. Furthermore, in Embodiment 3, an example was shown in which the wave generator WG1 shown in Embodiment 1, which has three circular portions as a coil-shaped member, was used. However, the number of circular portions in the coil-shaped member may be one or more than three. However, it is more preferable in this embodiment for the number of circular portions to be a power of three. Furthermore, as shown in Embodiment 2, it is more preferable to stack the coil-shaped members in multiple layers, and more preferably in powers of three layers. Furthermore, the shape of the sheet-like material may be other shapes besides rectangles, such as a rice ball shape, and its shape may be appropriately determined according to the number and arrangement of the circular portions of the coil-shaped member. Furthermore, the desired effect can be achieved even if the colored portion of the sheet-like material is in a shape other than circular, such as an ellipse or polygon. However, a circular shape for the colored portion is a more preferable embodiment.

[0085] In Embodiment 4, when arranging the wave generators in a triangular shape to constitute the wave generating device, an example was shown in which the wave generators were arranged in a regular triangular prism shape. However, the desired effect can be achieved even if they are simply arranged in a triangular prism shape. Nevertheless, arranging them in a regular triangular prism shape is a more preferable embodiment.

[0086] In embodiments 5 and 7, examples were shown in which both sides of the wave generator were covered with flat plates, but the desired effect can be achieved even if only one side is covered with a flat plate. Furthermore, the desired effect can be achieved even if other natural woods such as cypress, resin, or metal are used as the material. However, using cypress as the material is a more preferable embodiment. Furthermore, in embodiments 6 and 7, the flat plate forming the flat triangular tube and the second flat plate can also be made of other natural woods such as cypress, or of resin or metal, and the desired effect will be achieved. However, using cypress as the material is a more preferable embodiment.

[0087] Furthermore, while Embodiment 8 shows an example where the bag-like structure is formed from natural fibers, the desired effect can also be achieved using materials other than natural materials, such as vinyl. However, forming the bag-like structure from natural fibers is a more preferable embodiment. Also, while an example of stacking multiple bag-like structures was shown with three stacked structures, the desired effect can also be achieved with any number other than powers of three. However, it is a more preferable embodiment to stack the number of bag-like structures to a power of three. Furthermore, in the above-described embodiment, the coil-shaped member 10 is formed by spirally winding a linear body 11 along a predetermined plane. However, as shown in Figure 22, by forming the coil-shaped member 10 by spirally winding a plate-shaped body 11' along a predetermined plane, the wave power can be further increased, and the wave properties can be completely changed, thus achieving the desired effects. The wave properties become scalar waves, and the maximum power reaches the surroundings without attenuation regardless of distance. A scalar wave is a wave on a scalar field and is a longitudinal wave. In contrast to scalar waves, waves on a vector field are called vector waves, and waves on a tensor field are called tensor waves, and are transverse waves.

[0088] [Example 1] Embodiment 1 of the present invention is an example in which waves are measured using the wave generator WG1 shown in Figures 1 and 2 as the object to be measured. That is, the wave generator WG1 is a wave generator WG1 that generates a predetermined wave using a coil-shaped member 10, and the coil-shaped member 10 is configured to have a first circular portion 110, a second circular portion 120, and a third circular portion 130, in which a linear body 11 is wound in a double helix shape to form an outer shape that is substantially circular in plan view, and the first circular portion 110, the second circular portion 120, and the third circular portion 130 are arranged in a triangular shape with the linear body 11 continuing endlessly, and the linear body 11 of the first circular portion 110 is The linear body 11 of the second circular portion 120 has a first outer spiral portion 111 and a first inner spiral portion 112, and the linear body 11 of the third circular portion 130 has a third outer spiral portion 131 and a third inner spiral portion 132, and the first outer spiral portion 111 of the first circular portion 110 is wound spirally outward at a predetermined distance from the center 113 side of the first circular portion 110, and the first inner The side helical portion 112 is wound spirally outward from the center 113 side of the first circular portion 110 at a predetermined interval, while continuing with the first outer helical portion 111, so as to pass through a predetermined interval in the first outer helical portion 111, and the first outer helical portion 111 is formed so as to pass through a predetermined interval in the first inner helical portion 112, and the second outer helical portion 121 of the second circular portion 120 is wound inward at a predetermined interval, while continuing with the outer end of the first inner helical portion 112 of the first circular portion 110 The second circular portion 120 is spirally wound toward the center 123, and the second inner spiral portion 122 of the second circular portion 120 is spirally wound toward the outside at a predetermined interval, continuing from the center 123 side of the second circular portion 120 while being continuous with the second outer spiral portion 121, and the second outer spiral portion 121 is formed to pass through a predetermined interval in the second inner spiral portion 122, and the third outer spiral portion 131 of the third circular portion 130 is,The second circular portion 120 is spirally wound towards the center 133 of the third circular portion 130, which is located inside and continuous with the outer end of the second inner spiral portion 122 of the second circular portion 120 at a predetermined distance. The third inner spiral portion 132 of the third circular portion 130 is spirally wound outward from the center 133 of the third circular portion 130, continuous with the third outer spiral portion 131, at a predetermined distance, so as to pass through a predetermined distance in the third outer spiral portion 131, and is continuous with the outer end of the first outer spiral portion 111 of the first circular portion 110. The third outer spiral portion 131 is formed so as to pass through a predetermined distance in the third inner spiral portion 132. (Method for measuring wave motion) The wave measurements of this invention were performed using a Rayonex 2 manufactured in Germany, as shown in Figure 23. The Rayocomp R comprises a main unit R1, a petri dish R2, and a sensor R3. The Rayocomp R can generate waves of a predetermined frequency using the main unit R1 while an object to be measured for wave activity is placed in the petri dish R2. The Rayocomp R irradiates the object to be measured with the generated waves of the predetermined frequency, and when the object resonates with the waves of that frequency, it determines that the object is generating waves of that frequency, thereby identifying the waves of the object and its state. Whether or not the object being measured resonates with a wave of that frequency is measured by the vibration of the tip R3a of the sensor R3. If the tip R3a of the sensor R3 vibrates repeatedly in the left-right direction, the object being measured is in a state of resonance with a wave of that frequency and is generating a wave of that frequency. If the left-right vibration is smooth and fluid, it is considered that a wave of a good frequency is being generated. On the other hand, if the tip R3a of sensor R3 rotates, the object being measured is not resonating with the wave at that frequency and is not generating the wave at that frequency. If the left-right vibration of the tip R3a of sensor R3 is large, it is considered that the waves generated from the object being measured are relatively strong. Conversely, if the left-right vibration of the tip R3a of sensor R3 is small, it is considered that the waves generated from the object being measured are relatively weak. The sensor R3 is operated by the user holding the base end R3b of the sensor R3 in their hand and visually determining whether the tip R3a vibrates from side to side or rotates. The wave measurements of this invention were performed by Dr. Sumio Sugiyama (inventor) at Musashi Arashiyama Hospital, Soryukai Medical Corporation (address: 1312-1 Kamitō, Higashimatsuyama City, Saitama Prefecture), in the presence of Dr. Kengo Kato (inventor) and Mr. Yokichi Ogawa (inventor). Dr. Sumio Sugiyama uses Rayocomp® in his regular medical practice and has extensive experience using it. (Measurement results of wave motion) The wave generator WG1 shown in Figures 1 and 2 was placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were generated. Furthermore, the wave generator WG1 shown in Figures 1 and 2 can generate better waves compared to a wave generator with a single circular section 110, 120, and 130, and a wave generator with a single linear body 11. Furthermore, when the coil-shaped member 10 was replaced with a plate-like body as shown in Figure 22, the wave power increased even further, and the wave properties changed completely, thus achieving the desired effects. The wave properties became scalar waves, and it was confirmed that the maximum power reached the surrounding area without attenuation, regardless of distance.

[0089] [Example 2] Embodiment 2 of the present invention is an example in which the wave of the object to be measured is measured using the wave generator WG2 shown in Figure 3. Specifically, the wave generator WG2 is constructed by stacking three wave generators WG1 from Embodiment 1, and the multiple stacked wave generators WG1 are arranged so as to be non-contact with each other via an intervening material 20. The wave generator WG2 shown in Figure 3 was placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, which are waves of the 0 to 99.9 frequency range indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, which are waves of the 0 to 99.9 frequency range indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, which are waves of the 0 to 99.9 frequency range indicated by Rayocomp R) were generated. The magnitude of the vibration was greater than that of the wave generator WG1 in Example 1. Furthermore, the wave generator WG2 in Figure 3 can generate better waves compared to a wave generator where the wave generators WG1 are in contact with each other and do not have the inclusion material 20. Also, the inclusion material 20, which is formed without wrinkles, can generate better waves compared to the inclusion material 20 that has wrinkles.

[0090] [Example 3] Embodiment 3 of the present invention is an example in which the wave was measured using the wave generator WG3 shown in Figure 7 as the object to be measured. In other words, the wave generator WG3 is constructed by stacking three sheet-like materials 40 on the top and bottom surfaces of the wave generator WG1 of Example 1. The sheet-like materials 40 have a circular colored portion 42 formed in the center using ink. The colored portion is a yellowish color (the yellowish color includes not only yellow but also cream yellow, etc.) or a skin-tone color. More specifically, the color of the colored portion 42 is a yellowish skin tone, and when expressed in 256 gradations using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is 240-255, the G value is 230-250, and the B value is 180-200. More specifically, when expressed in 256 gradations using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is 249, the G value is 241, and the B value is 192. In the sheet-like material 40, the area 41a other than the circular colored portion 42 formed in the center is a different color from the colored portion 42 and is white. Specifically, in the RGB color system (RGB color space) where R is red, G is green, and B is blue, and expressed in 256 gradations, the R value of the area 41a other than the colored portion 42 is 240-255, the G value is 240-255, and the B value is 240-255. More specifically, in the RGB color system (RGB color space) where R is red, G is green, and B is blue, and expressed in 256 gradations, the R value of the area 41a other than the colored portion 42 is 255, the G value is 255, and the B value is 255. The wave generator WG1 and the sheet-like material 40 are arranged so as not to be in contact with each other via an intervening material 60. The wave generator 3 is housed in case CA2. The wave generator WG1 is positioned in the center of the case CA2 and the sheet-like material 40 by the positioning member 50. The wave generator WG3 shown in Figure 7 was placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were generated. The magnitude of the vibration was greater than that of the wave generator WG1 in Example 1. Furthermore, the wave generator WG3 in Figure 7 can generate better waves compared to wave generators where the number of stacked sheet-like materials 40 is not a power of 3, and wave generators where the sheet-like materials 40 and wave generator WG1 are in contact without intervening materials 60. In addition, intervening materials 60 formed without wrinkles can generate better waves compared to intervening materials 20 with wrinkles.

[0091] [Example 4] Embodiment 4 of the present invention is an example in which waves are measured using wave generators WGD1 and WGD2 as shown in Figures 11 and 12. Specifically, wave generators WGD1 and WGD2 have three wave generators WG3 from Embodiment 3, and the three wave generators WG3 are arranged in a triangular shape. The wave generators WGD1 and WGD2 shown in Figures 11 and 12 were placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were generated. The magnitude of the vibration was greater than that of the wave generator WG3 in Example 3.

[0092] [Example 5] Embodiment 5 of the present invention is an example in which waves are measured using the wave generator WGD3 shown in Figure 13 as the object to be measured. Specifically, the wave generator WGD3 is configured such that the inner and outer surfaces of the wave generator WG3 of Embodiment 3, which is arranged in a triangular shape, are covered with a flat plate 70, and the flat plate 70 is made of cypress wood. The wave generator WGD3 shown in Figure 13 was placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, which are waves of the 0 to 99.9 frequency range indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, which are waves of the 0 to 99.9 frequency range indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, which are waves of the 0 to 99.9 frequency range indicated by Rayocomp R) were generated. The magnitude of the vibration was equivalent to that of the wave generator WG3 in Example 3, but the vibration was smoother than that of the wave generator WG3 in Example 3. Furthermore, the wave generator WDG3 shown in Figure 13 can generate better waves compared to a wave generator formed by covering only one of the inner or outer surfaces with a flat plate.

[0093] [Example 6] Embodiment 6 of the present invention is an example in which waves are measured using wave generators WGD4 and WGD5 as the object to be measured. Specifically, wave generators WGD4 and WGD5 house three stacked wave generators WG3, or wave generator WGD1 (see Figure 11), in which three wave generators WG3 are arranged in a triangular shape, inside a flat triangular cylinder 500 shown in Figures 15 and 16. The flat triangular cylinder 500 is constructed by arranging three rectangular flat plates 501 of the same dimensions in a triangular shape, and the flat plates 501 are made of cypress wood. These wave generators WGD4 and WGD5 were placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were generated. The magnitude of the vibrations was equivalent to that of the wave generator WG3 in Example 3 and the wave generators WGD1 and WGD2 in Example 4, but the vibrations were smoother than those of the wave generator WG3 in Example 3 and the wave generators WGD1 and WGD2 in Example 4.

[0094] [Example 7] Embodiment 7 of the present invention is an example in which waves are measured using the wave generator WGD3b shown in Figures 18 and 19 as the object to be measured. Specifically, the wave generator WGD3b is configured such that the inner and outer surfaces of the triangularly arranged wave generator WG3 of Embodiment 3 (i.e., the wave generators WGD1 and WGD2 of Embodiment 4) are covered with a first flat plate 70 (i.e., the wave generator WGD3 of Embodiment 5), and its outer surface is further covered with a second flat plate 702, with the first flat plate 70 and the second flat plate 702 being made of cypress wood. The wave generator WGD3b shown in Figures 18 and 19 was placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were generated. The magnitude of the vibrations in each case was equivalent to that of the wave generator WGD3 in Example 5, but the vibrations were smoother than those of the wave generator WGD3 in Example 5.

[0095] [Example 8] Embodiment 8 of the present invention is an example in which the wave of the object to be measured is measured using the wave generator WGD6 shown in Figure 20. Specifically, the wave generator WGD6 is constructed by housing the wave generator WG3 of Embodiment 3 in a bag-like object 80, the bag-like object 80 is made of natural fibers, and the bag-like object 80 has a predetermined color, which is a yellowish color (the yellowish color includes not only yellow but also cream yellow, etc.) or a skin-tone color, more specifically, the predetermined color is a yellowish skin tone, and when expressed in 256 gradations in the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is 240 to 255, the G value is 180 to 255, and the B value is 0 to 200, more specifically, when expressed in 256 gradations in the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is 249, the G value is 241, and the B value is 192. The bag-like object 80 houses the wave generator WG3 in a stack of three. The wave generator WGD6 shown in Figure 20 was placed on Petri dish R2, and waves of a predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were sequentially irradiated using the wave measurement method described above. As a result, it was confirmed that the tip R3a of sensor R3 vibrated from side to side at the predetermined frequency range generated by Rayocomp R (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R), and that waves of that frequency (more specifically, waves of all frequencies generated by Rayocomp R, and waves of the frequency range 0 to 99.9 indicated by Rayocomp R) were generated. The magnitude of the vibrations in each case was equivalent to that of the wave generator WG3 in Example 3, but the vibrations were smoother than those of the wave generator WG3 in Example 3. [Explanation of symbols]

[0096] R Rayocomp R1 Main Unit R2 Petri dish R3 sensor R3a tip R3b proximal end 10 Coil-shaped member 11 linear body 11' Plate-like body 20 Inclusions 30 cases 31 Ring-shaped body 31a String member 32 adjuster 33 Ring-shaped body 33a String member 40 Sheet-like material 41 Rectangular object 41a area 42 Colored part 50 Positioning member 51 Inner frame section 52 Outer frame 60 inclusions 70 flat plate 80 Bags 81 First sac-like structure 82 Second sac-like structure 83. Third sac-like structure 110 First circular section 111 First outer spiral section 112 First inner spiral section 113 Center 120 Second circular section 121 Second outer spiral section 122 Second inner spiral section 123 Center 130 Third circular section 131 Third outer spiral section 132 Third inner spiral section 133 center 200-layer structure 500 Flat triangular cylinder 501 Flat plate 700 Flat triangular cylinder 702 Second plate BD human body CA Case CA2 Case NK neck WG1 Wave generator of Embodiment 1 WG2 Wave generator of embodiment 2 WG3 Wave generator of Embodiment 3 WG3b Wave generator (used in the wave generator of Embodiment 5) WGD1 (First) Wave Generator of Embodiment 4 WGD2 (Second) Wave Generator of Embodiment 4 WGD3 Wave Generator of Embodiment 5 Wave generator of WGD3b embodiment 7 WGD4 First wave generator of Embodiment 6 WGD5 Second wave generator of Embodiment 6 WGD6 Wave Generator of Embodiment 8 c1 First case member c2 Second case member

Claims

1. A wave generator that generates a predetermined wave using a coil-shaped member, The wave generator is characterized in that the coil-shaped member is configured to have a circular portion formed by winding it in a spiral shape to create a substantially circular outer shape.

2. A wave generator that generates a predetermined wave using a coil-shaped member, The wave generator is characterized in that the coil-shaped member is configured to have a circular portion formed by winding it in a double helix shape to create a substantially circular outer shape.

3. A wave generator that generates a predetermined wave using a coil-shaped member, The wave generator is characterized in that the coil-shaped member is configured to have a first circular portion, a second circular portion, and a third circular portion, which are formed by winding the coil in a spiral manner to create a substantially circular outer shape.

4. A wave generator that generates a predetermined wave using a coil-shaped member, The wave generator is characterized in that the coil-shaped member is configured to have a first circular portion, a second circular portion, and a third circular portion, which are formed by winding the coil in a double helix shape to create a substantially circular outer shape.

5. The wave generator according to claim 4, characterized in that the first circular portion, the second circular portion, and the third circular portion are continuous in an endless manner and arranged in a triangular shape.

6. The first circular portion has a first outer spiral portion and a first inner spiral portion, the second circular portion has a second outer spiral portion and a second inner spiral portion, and the third circular portion has a third outer spiral portion and a third inner spiral portion. The first outer spiral portion of the first circular portion is wound spirally outward from the center of the first circular portion at a predetermined distance, The first inner spiral portion of the first circular portion is wound spirally outward from the center of the first circular portion at a predetermined interval, while being continuous with the first outer spiral portion, so as to pass through the predetermined interval in the first outer spiral portion, and the first outer spiral portion is formed so as to pass through the predetermined interval in the first inner spiral portion. The second outer spiral portion of the second circular portion is continuous with the outer end of the first inner spiral portion of the first circular portion, and is wound spirally toward the center of the second circular portion located inside, at a predetermined distance. The second inner spiral portion of the second circular portion is wound spirally outward from the center of the second circular portion at a predetermined interval, while being continuous with the second outer spiral portion, so as to pass through the predetermined interval in the second outer spiral portion, and the second outer spiral portion is formed so as to pass through the predetermined interval in the second inner spiral portion. The third outer spiral portion of the third circular portion is continuous with the outer end of the second inner spiral portion of the second circular portion, and is wound spirally toward the center of the third circular portion located inside, at a predetermined distance. The wave generator according to claim 4, characterized in that the third inner spiral portion of the third circular portion is wound spirally outward from the center of the third circular portion at a predetermined interval, while being continuous with the third outer spiral portion, so as to pass through the predetermined interval in the third outer spiral portion, and is continuous with the outer end of the first outer spiral portion of the first circular portion, and the third outer spiral portion is formed so as to pass through the predetermined interval in the third inner spiral portion.

7. The wave generator according to any one of claims 1 to 4, characterized in that it is composed of the aforementioned coil-shaped member as a single sheet or by stacking multiple sheets together.

8. The wave generator according to claim 7, characterized in that the multiple coil-shaped members, which are stacked together, are arranged so as to be non-contact with each other via intervening materials.

9. The wave generator according to claim 7, characterized in that the plurality is a power of 3.

10. The wave generator according to claim 1, characterized in that one or more sheet-like materials are stacked on the upper and / or lower surface of the coil-shaped member.

11. The wave generator according to claim 10, characterized in that the sheet-like material has a circular colored portion formed in the center using ink.

12. The wave generator according to claim 10, characterized in that the colored portion is yellow or skin-colored.

13. The wave generator according to claim 10, characterized in that the plurality is a power of 3.

14. The wave generator according to claim 10, characterized in that the coil-shaped member and the sheet-shaped material are arranged so as to be non-contact with each other via an intervening material.

15. A wave generating device characterized by having three wave generators according to any one of claims 1 to 4, wherein the three wave generators are arranged in a triangular shape.

16. The wave generating device according to claim 15, characterized in that at least one of the inner and outer surfaces of the triangularly arranged wave generators is covered with a flat plate.

17. The wave generating device according to claim 16, characterized in that the flat plate is made of cypress wood.

18. The wave generating device according to claim 15, characterized in that at least one of the inner and outer surfaces of each of the triangularly arranged wave generators is covered with a first flat plate, and the outer surface is further covered with a second flat plate.

19. The wave generating device according to claim 16, characterized in that the first plate and the second plate are made of cypress wood.

20. A wave generating device characterized by being configured by housing the wave generator described in any one of claims 1 to 4 in a bag-like object.

21. The wave generator according to claim 20, characterized in that the bag-like object has a predetermined color, and the color is a yellowish or skin-colored color.

22. The wave generator according to claim 21, characterized in that the aforementioned color is yellowish-skin color.

23. The wave generating device according to claim 20, characterized in that the bag-like material houses the wave generator either as a single piece or in stacks of powers of three pieces.

24. A wave generating device characterized by being constructed by sandwiching the wave generator described in any one of claims 1 to 4 between flat plates.

25. The wave generating device according to claim 24, characterized in that the flat plate is made of cypress wood.

26. A wave generating device characterized in that the wave generator according to any one of claims 1 to 4 is positioned inside a flat plate triangular cylinder formed by arranging three flat plates in a triangular shape.

27. The wave generating device according to claim 26, characterized in that the flat plate is made of cypress wood.

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