Wave generator and wave generation method

Abstract

The present invention provides a wave generator and a wave generation method capable of generating predetermined waves using a colored body of a predetermined shape. [Solution] The wave generator 1 can generate a predetermined wave using an object 20 having a colored body 10a of a predetermined shape. The colored body 10a of the predetermined shape is preferably circular 10A or spiral 10B, and the circular shape 10A is more preferably a perfect circle. The coloring of the colored body 10a of the predetermined shape is preferably such that at least the R value among the R, G, and B values ​​in the RGB values ​​is 200 or more and 255 or less.

Description

Technical Field

[0001] The present invention relates to a wave generator and a wave generation method capable of generating a predetermined wave.

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 Documents

Patent Documents

[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 predetermined object having a colored body of a predetermined shape.

[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 generation method capable of generating a predetermined wave by a predetermined object having a colored body of a predetermined shape.

Means for Solving the Problems

[0006] To achieve the above object, the wave generator according to the present invention is characterized in that a predetermined wave is generated by a predetermined object having a colored body of a predetermined shape.

[0007] According to the present invention, the above configuration makes it possible to provide a wave generator that can generate a predetermined wave using a predetermined object having a predetermined colored body of a predetermined shape.

[0008] The colored body of the predetermined shape is preferably a two-dimensional or three-dimensional colored body. The planar colored body is preferably circular or spiral in shape. The three-dimensional colored body is preferably cylindrical, spherical, hemispherical, or spiral in shape with a predetermined thickness. It is even more preferable that the base of the circular or cylindrical shape, the projection surface of the spherical shape, and the base of the hemispherical shape be perfect circles.

[0009] The color of the colored body of the predetermined shape is preferably such that at least the R value among the R, G, and B values ​​in the RGB values ​​is 200 or more and 255 or less.

[0010] The color of the colored body of the predetermined shape is preferably such 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 250.

[0011] The color of the colored body of the predetermined shape is preferably one of the following: yellow, red, sky blue, pastel colors, skin tone, or white-green.

[0012] It is preferable that the colored body of the predetermined shape is present on one or both sides of a predetermined flat object.

[0013] The predetermined flat plate-shaped object having the predetermined colored body on one or both sides is preferably rectangular in shape, and the background of the predetermined colored body on the predetermined flat plate-shaped object is a different color from the color of the predetermined colored body, and is preferably white or yellow.

[0014] The background color of the colored body of the predetermined shape is preferably such 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, or the R value is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250.

[0015] The rectangular shape is preferably a rectangle, and the circular or spiral shape is preferably inscribed in or close to the longer side of the two pairs of opposing sides of the rectangular object.

[0016] The predetermined flat plate-shaped object having the predetermined colored material on both sides is preferably circular in shape, and the circular shape of the predetermined flat plate-shaped object is preferably the same shape and dimensions as the circular shape of the predetermined colored material, the cylindrical base, the spherical projection plane, and the hemispherical base, and the predetermined colored material is present in the entire area of ​​both circular sides.

[0017] Preferably, the predetermined flat plate-shaped object is formed as a single sheet or by stacking multiple sheets together, and it is preferable that the colored bodies of the predetermined shape in the multiple stacked predetermined flat plate-shaped objects have their outer contour positions aligned with each other.

[0018] The plurality of numbers is preferably a multiple of 3, more preferably a multiple of 9, and even more preferably a power of 3.

[0019] The predetermined flat object is preferably housed in a predetermined case, the predetermined case being transparent or translucent, and the predetermined colored object being visible from the outside of the predetermined case when the predetermined flat object is housed inside.

[0020] It is preferable that the predetermined flat object is housed in the predetermined case and a gap is formed between it and the inner surface of the predetermined case.

[0021] It is preferable that the colored body having the predetermined shape is provided on one side or both sides of each of the three sides of the side surface of the triangular prism-shaped object.

[0022] It is preferable that the predetermined flat plate-shaped object is sandwiched between predetermined wooden boards. It is preferable that the predetermined flat plate-shaped object is indirectly sandwiched between predetermined wooden boards via an intervening substance. It is preferable that the predetermined wooden board is cypress.

[0023] The colored body having the predetermined shape configured as described above can generate good waves while canceling the generation of waves in other objects.

[0024] It is preferable that the predetermined flat plate-shaped object or the predetermined object sandwiched between the predetermined wooden boards is covered with a predetermined cloth. It is preferable that the predetermined flat plate-shaped object or the predetermined object sandwiched between the predetermined wooden boards is indirectly covered with a predetermined cloth via an intervening substance.

[0025] It is preferable that the predetermined flat plate-shaped object or the predetermined object sandwiched between the predetermined wooden boards is stored in a bag formed of a predetermined cloth. It is preferable that the predetermined flat plate-shaped object or the predetermined object sandwiched between the predetermined wooden boards is indirectly stored in a bag formed of a predetermined cloth via an intervening substance.

[0026] It is preferable that the cloth is formed of at least one of cotton, wool, and hemp.

[0027] It is preferable that the color of the cloth has an R value of at least 200 and at most 255 among the R value, G value, and B value in the RGB value.

[0028] It is preferable that the color of the cloth has 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 value.

[0029] The color of the fabric is preferably one of the following: yellow, red, sky blue, pastel, skin tone, or white-green.

[0030] The three-dimensional colored body having the predetermined shape in the predetermined object is preferably in the form of at least one of powder, granules, powder-granules, granular form, and tablet form.

[0031] The three-dimensional colored material, which consists of at least one of the powder, granules, powder-granules, granular form, and tablet form, is preferably a pharmaceutical product or a supplement.

[0032] It is preferable that the three-dimensional colored material, which consists of at least one of the powder, granules, powder-granules, granules, and tablets, is contained so as to fill the inner space of a three-dimensional container and thus formed three-dimensionally.

[0033] Preferably, the three-dimensional container is a short cylindrical container, and the three-dimensional colored material, which consists of at least one of the powder, granules, powder-granules, and tablets, is housed in the inner space of the short cylindrical container so as to fill it and form the short cylindrical shape.

[0034] Preferably, the container has a main body and a lid, the main body is cylindrical with its bottom and sides closed and its top open, and the three-dimensional colored material consisting of at least one of the powder, granules, powder-granules, and tablets is filled into the inner space of the cylindrical body, and the lid is circular and plate-shaped and closes the top side of the main body where it is open.

[0035] Preferably, the predetermined object has a configuration in which three three-dimensional colored bodies, consisting of at least one of the powder, granules, powder-granules, and tablets, are arranged in a triangular shape.

[0036] Preferably, the predetermined object is configured to have an antenna portion for radiating waves to the outside on at least one of the upper and lower surfaces of three three-dimensional colored bodies, each consisting of at least one of the powder, granules, powder-granules, and tablet forms arranged in a triangular shape.

[0037] The antenna section is preferably made up of three long, plate-like or linear bodies arranged in a triangular shape.

[0038] Preferably, the predetermined object has a substantially triangular cylindrical housing, and the substantially triangular cylindrical housing contains three three-dimensional colored bodies arranged in a triangular shape, consisting of at least one of the powder, granules, powder-granules, granular material, and tablet form.

[0039] Preferably, the container has a main body and a lid, the main body is a roughly triangular tube with a closed bottom and sides and an open top, and contains three three-dimensional colored bodies arranged in a triangular shape, consisting of at least one of the powder, granules, powder-granules, granular particles, and tablets, the lid is a roughly triangular plate, and closes the open top side of the main body with its bottom surface, and an installation portion for installing the antenna is provided on the inside of the bottom of the main body and / or on the bottom surface of the lid.

[0040] The installation section preferably has three pairs of protrusions, each consisting of two parallel protrusions, and the three pairs of protrusions are arranged in a triangular shape, with the antenna section fitted between the two pairs of protrusions.

[0041] The aforementioned colored body of the predetermined shape can cancel the generation of waves in other objects.

[0042] To achieve the above objective, the wave generation method according to the present invention is characterized by generating a predetermined wave using a predetermined object having a colored body of a predetermined shape. [Effects of the Invention]

[0043] As described above, according to the present invention, a predetermined wave can be generated by a predetermined object having a colored body of a predetermined shape. [Brief explanation of the drawing]

[0044] [Figure 1] This figure shows the objects constituting a wave generator according to an embodiment of the present invention, where (a) is a plan view and (b) is a bottom view. [Figure 2] In another diagram showing the same object, (a) is a top view and (b) is a bottom view. [Figure 3] This is a side view showing multiple identical objects stacked on top of each other. [Figure 4] This is a side view showing the object stored in its case. [Figure 5] This diagram shows a triangular cylindrical object containing a colored body of a predetermined shape, with (a) being a side view and (b) being a top view. [Figure 6] Another diagram showing a triangular cylindrical object containing a colored body of a predetermined shape, where (a) is a side view and (b) is a top view. [Figure 7] Another diagram showing a triangular cylindrical object containing a colored body of a predetermined shape, where (a) is a side view and (b) is a top view. [Figure 8] This is a side view showing the object sandwiched between specified wooden boards. [Figure 9] This is a side view showing the object sandwiched between two wooden boards with an intervening material in between. [Figure 10] This is a side view showing the object stored in a bag made of a specific type of fabric. [Figure 11] This is a side view showing the object in a state where it is stored in a bag made of a predetermined fabric with an intermediary in between. [Figure 12] In yet another diagram showing the objects that make up the wave generator, (a) is a diagram showing the unfolded state, (b) is a plan view of the triangular cylindrical shape, and (c) is another plan view of the triangular cylindrical shape. [Figure 13] The figure shows an object constituting a wave generator according to a modified example of the present invention, where (a) is a diagram of the unfolded state, (b) is a plan view of the object configured in a triangular cylindrical shape, and (c) is another plan view of the object configured in a triangular cylindrical shape. [Figure 14] In another diagram showing the same object, (a) is a top view and (b) is a bottom view. [Figure 15] This figure shows an object constituting another wave generator according to an embodiment of the present invention, where (a) is a plan view and (b) is a bottom view. [Figure 16] In another diagram showing the same object, (a) is a top view and (b) is a bottom view. [Figure 17] This is a side view showing multiple identical objects stacked on top of each other. [Figure 18] This is a side view showing the object stored in its case. [Figure 19] This diagram shows a triangular cylindrical object containing a colored body of a predetermined shape, with (a) being a side view and (b) being a top view. [Figure 20] Another diagram showing a triangular cylindrical object containing a colored body of a predetermined shape, where (a) is a side view and (b) is a top view. [Figure 21] Another diagram showing a triangular cylindrical object containing a colored body of a predetermined shape, where (a) is a side view and (b) is a top view. [Figure 22] This is a side view showing the object sandwiched between specified wooden boards. [Figure 23] This is a side view showing the object sandwiched between two wooden boards with an intervening material in between. [Figure 24] This is a side view showing the object stored in a bag made of a specific type of fabric. [Figure 25] This is a side view showing the object in a state where it is stored in a bag made of a predetermined fabric with an intermediary in between. [Figure 26] In yet another diagram showing the objects that make up the wave generator, (a) is a diagram showing the unfolded state, (b) is a plan view of the triangular cylindrical shape, and (c) is another plan view of the triangular cylindrical shape. [Figure 27]The figure shows an object constituting another wave generator according to a modified example of the present invention, where (a) is a diagram of the unfolded state, (b) is a plan view of the triangular cylindrical shape, and (c) is another plan view of the triangular cylindrical shape. [Figure 28] The figure shows an object constituting yet another wave generator according to an embodiment of the present invention, where (a) is a top view, (b) is a bottom view, and (c) is a side view. [Figure 29] The figure shows an object constituting yet another wave generator according to an embodiment of the present invention, where (a) is a plan view, (b) is a bottom view, and (c) is a side view. [Figure 30] This is a plan view showing an object constituting yet another wave generator according to an embodiment of the present invention. [Figure 31] This is a plan view showing objects constituting another wave generator according to an embodiment of the present invention. [Figure 32] This is a plan view showing an object constituting yet another wave generator according to an embodiment of the present invention. [Figure 33] This is a plan view showing objects constituting yet another wave generator according to an embodiment of the present invention. [Figure 34] This is a plan view showing objects constituting yet another wave generator according to an embodiment of the present invention. [Figure 35] This is a plan view showing an object constituting another wave generator according to an embodiment of the present invention. [Figure 36] This is a plan view showing an object constituting yet another wave generator according to an embodiment of the present invention. [Figure 37] This is a plan view showing an object constituting yet another wave generator according to an embodiment of the present invention. [Figure 38] This is a plan view showing an object constituting yet another wave generator according to an embodiment of the present invention. [Figure 39] This is a plan view showing objects constituting another wave generator according to an embodiment of the present invention. [Figure 40]The figure shows an object constituting yet another wave generator according to an embodiment of the present invention, where (a) is a figure showing the unfolded state, (b) is a plan view configured in a triangular cylindrical shape, and (c) is another plan view configured in a triangular cylindrical shape. [Figure 41] The figure shows an object constituting another wave generator according to an embodiment of the present invention, where (a) is a figure showing the unfolded state, (b) is a plan view configured in a triangular cylindrical shape, and (c) is another plan view configured in a triangular cylindrical shape. [Figure 42] This figure shows objects constituting yet another wave generator according to an embodiment of the present invention, where (a) is a side view and (b) is a top view. [Figure 43] Figure 42 shows the configuration of the container, where (a) is a side view showing the configuration of the lid and (b) is a top view showing the configuration of the main body. [Figure 44] This figure shows an object constituting another wave generator according to an embodiment of the present invention, where (a) is a plan view and (b) is a side view. [Figure 45] The figure shows an object constituting yet another wave generator according to an embodiment of the present invention, where (a) is a top view, (b) is a bottom view, and (c) is a side view. [Figure 46] This figure shows an object constituting yet another wave generator according to an embodiment of the present invention, where (a) is a plan view and (b) is a side view. [Figure 47] Figure 46 shows the structure of the containment, where (a) is a plan view showing the bottom, sides, top, and installation area of ​​the containment, (b) is a side view showing the bottom, sides, top, and installation area of ​​the containment, (c) is a plan view showing the lid and installation area of ​​the containment, and (d) is a side view showing the lid and installation area of ​​the containment. [Figure 48] This diagram shows the configuration of the Rayocomp. [Figure 49] The figure shows the object used in Example 43, with (a) being a top view and (b) being a bottom view. [Figure 50] This figure shows another object used in Example 43, where (a) is a side view and (b) is a top view. [Modes for carrying out the invention]

[0045] Embodiments of the present invention will be described in detail below with reference to the drawings. The wave generator 1 of the present invention, shown in Figures 1 and 2, can generate a predetermined wave using a predetermined object 20 having a predetermined colored body 10a of a predetermined shape that is coated with a predetermined color using a predetermined dye and / or pigment. Furthermore, the wave generator 1 of the present invention can provide a wave generation method for generating a predetermined wave using a predetermined object 20 having a predetermined colored body 10a of a predetermined shape that is coated with a predetermined color using a predetermined dye and / or pigment. The wave generated by the wave generator 1 may include, for example, electromagnetic waves emitted from the object 20. That is, the wave generator 1 is considered to generate waves, i.e., electromagnetic waves, from a predetermined colored body 10a of a predetermined shape using a predetermined dye and / or pigment, according to the shape and color.

[0046] In other words, it is preferable that the colored body 10a of the predetermined shape be a planar colored body 10a. More specifically, it is preferable that the planar colored body 10a has a circular contour shape 10A, and it is even more preferable that the circular shape 10A is a perfect circle. By making the colored body 10a of the predetermined shape a circular shape 10A, and moreover a perfect circle, good waves can be generated. The power of the wave generator 1 can be increased in proportion to the size of the colored body 10a of the predetermined shape.

[0047] The color can be applied by filling the inside of the circular colored body 10a with a predetermined dye and / or pigment. The color can be applied to the inside of the circular colored body 10a with a predetermined dye and / or pigment by printing or other methods. The color can be applied to the inside of the circular colored body 10a with a predetermined thickness (the thickness of the dye and pigment applied to the inside of the circular colored body 10a) (in normal printing, the thickness applied is extremely small).

[0048] The color of the colored body 10a of a predetermined shape is preferably such that, when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, at least the R value among the R, G, and B values ​​in the RGB values ​​is 200 or more and 255 or less. By setting the color to at least an R value of 200 or more and 255 or less, even better wave patterns can be generated.

[0049] More specifically, the color of the colored body 10a of a predetermined shape is preferably such that, when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250.

[0050] More specifically, the color of the colored body 10a of a predetermined shape is preferably one of the following: yellow, red, sky blue, pastel, skin tone, or white-green. For example, the yellow can have an R value of 200 to 255, a G value of 100 to 255, and a B value of 0 to 210. For example, the red can have an R value of 255, a G value of 0, and a B value of 0. For example, the sky blue can have an R value of 222, a G value of 235, and a B value of 247. For example, the skin tone can have an R value of 249, a G value of 241, and a B value of 192. For example, the white-green can have an R value of 218, a G value of 234, and a B value of 208. Among these colors, the most preferable color of the colored body 10a of a predetermined shape is a yellow with an R value of 200 to 255, a G value of 100 to 255, and a B value of 0 to 210.

[0051] The colored body 10a of a predetermined shape is preferably present on one or both sides of a predetermined flat object 20. The object 20 can be made from various materials such as paper, wood, metal, or non-metal. For example, the object 20 can be made from Western paper, Japanese paper, or rigid polyvinyl chloride.

[0052] In other words, as shown in Figures 1 and 2, a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side (front surface 21a or back surface 21b, front surface 21a in Figure 1) of the object 20, or a predetermined flat plate-shaped object 22 having a colored body 10a of a predetermined shape on both sides (front surface 21a and back surface 21b) of the object 20, is preferably rectangular in shape. More specifically, the background 10' of the colored body 10a of a predetermined shape in the rectangular object 21 is a different color from the color of the colored body 10a of the predetermined shape, and is preferably white or yellow. By making the background 10' white or yellow, even better waves can be generated.

[0053] The color of the background 10' of the colored body 10a of a predetermined shape is preferably such that, when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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.

[0054] More specifically, when the background 10' of a colored object 10a of a predetermined shape is white, it is preferable that, in an RGB color space where R is red, G is green, and B is blue, and expressed in 256 gradations, 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. When the background 10' of a colored object 10a of a predetermined shape is yellow, it is preferable that, in an RGB color space where R is red, G is green, and B is blue, and expressed in 256 gradations, the R value in the RGB values ​​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 210 or less.

[0055] Here, the rectangular shape can be a rectangle, and it is preferable that the circular shape 10A is inscribed in or close to the longer sides 21A, 22A of the two pairs of opposing sides 21A, 21B, 22A, 22B of the rectangular objects 21, 22. By setting one of the circular shapes 10A to be inscribed in or close to the longer sides 21A, 22A of the rectangular objects 21, 22, even better waves can be generated.

[0056] As shown in Figure 3, it is preferable to form both a predetermined flat plate-shaped object 21 having a predetermined colored material 10a of a predetermined shape on one side (surface 21a) and a predetermined flat plate-shaped object 22 having a predetermined colored material 10a of a predetermined shape on both sides (surface 21a and back 21b) by stacking multiple objects 21 and 22. By stacking multiple objects 21 and 22, even better wave properties can be generated. It is preferable that the outer contour positions 10A' of the predetermined colored material 10a of the predetermined shape in the stacked predetermined flat plate-shaped objects 21 and 22 coincide. By coinciding the contour positions 10A', even better wave properties can be generated. The number of objects is preferably a multiple of 3, more preferably a multiple of 9, and a power of 3 (a power of 3 means, for example, when n is a natural number (positive integer) such as 1, 2, 3, ...). n It is even more preferable to represent it as follows (the same applies to powers of 3). A scalar wave can be generated by superimposing objects 21 and 22, with multiples of 9.

[0057] Furthermore, if the colored material 10a of a predetermined shape is present on both sides (front surface 21a and back surface 21b), the same power can be generated even if the number of colored material sheets is halved compared to the case where it is present on one side (front surface 21a).

[0058] As shown in Figure 4, it is preferable that the predetermined flat objects 21 and 22 are housed in a predetermined case 100. The predetermined case 100 is preferably transparent or translucent, and it is preferable that the predetermined colored body 10a is visible from the outside of the predetermined case when the predetermined flat objects 21 and 22 are housed inside. It is preferable that a gap d is formed between the predetermined flat objects 21 and 22 and the inner surface 100a of the predetermined case 100 when they are housed inside the predetermined case 100. By forming a gap d, even better wave generation is possible. The case 100 can be made of plastic, resin, or the like.

[0059] As shown in Figures 5 to 7, a colored body 10a of a predetermined shape may be provided on one side (front surfaces 21a, 22a or back surfaces 21b, 22b) or both sides (front surfaces 21a, 22a and back surfaces 21b, 22b) of each of the three sides of the triangular cylindrical object 23. The three sides of the triangular cylindrical object 23 can be formed using predetermined flat objects 21 and 22.

[0060] Here, as shown in Figure 8, it is preferable that the predetermined flat objects 21 and 22 are sandwiched between predetermined wooden boards 24.

[0061] Furthermore, as shown in Figure 9, it is preferable that predetermined flat objects 21 and 22 are indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200 (as shown in Figure 9, it is preferable that a gap d is formed between the inner surface 200a side of the intervening material 200).

[0062] The specified wooden board 24 can be made from various types of wood, such as cypress, bamboo, paulownia, zelkova, camphor, Japanese cypress, Aomori cypress, mountain cherry, Japanese cedar, Katsura tree, walnut, beech, maple, Phellodendron amurense, and Yezo spruce. Of these, cypress is the most preferred choice for the specified wooden board 24.

[0063] The intervening material 200 can be, for example, the case 100 described above. The intervening material 200 can be anything other than the case 100 described above, as long as it is interposed between the predetermined flat objects 21, 22 and the predetermined wooden board material 24 and generates good waves.

[0064] Furthermore, it is preferable that the predetermined flat objects 21 and 22 are covered so as to be wrapped in the predetermined cloth 25.

[0065] Furthermore, it is preferable that the predetermined flat objects 21 and 22 are indirectly covered with the predetermined cloth 25 via the intervening material 200 (it is preferable that a gap d is formed between the inner surface 200a side of the intervening material 200 and the cloth).

[0066] Furthermore, as shown in Figure 10, it is preferable that the predetermined flat objects 21 and 22 are housed in a bag 26 made of a predetermined cloth 25 (the objects 21 and 22 are housed in the bag 26 without any exposed parts).

[0067] Furthermore, as shown in Figure 11, it is preferable that the predetermined flat objects 21 and 22 are indirectly housed in a bag 26 formed of a predetermined cloth 25 via an intervening material 200 (as shown in Figure 11, it is preferable that a gap d is formed between the inner surface 200a side of the intervening material 200).

[0068] As shown in Figure 12, predetermined flat objects 21, 22, predetermined objects 21, 22 sandwiched between predetermined wooden boards 24, or predetermined objects 21, 22 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, may be placed in a bag 26 made of predetermined cloth 25, and three of these may be arranged in a row, bending (creating a curve) the intermediate portion 26a between adjacent bags 26 so that they intersect, and the ends 26b may be brought together to form a triangular cylindrical object 23, which may be used as the wave generator 1. It is preferable that the ends 26b are brought together so that they do not separate from each other (Figure 12(c) is an unsuitable example; in Figure 12, predetermined objects 21, 22 sandwiched between predetermined wooden boards 24, or predetermined objects 21, 22 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, are not shown)).

[0069] Furthermore, as shown in Figure 13, instead of storing predetermined flat objects 21, 22, predetermined objects 21, 22 sandwiched between predetermined wooden boards 24, or predetermined objects 21, 22 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200 in a bag 26 formed from predetermined cloth 25, a triangular cylindrical object 23 may be formed by arranging three of these objects in a row, bending (bending) the intermediate portions 26a of adjacent objects 21, 22 to intersect, and bringing their ends 26b together, thereby forming a wave generator 1. It is preferable that the ends 26b are brought together so that they do not separate from each other, as described above (Figure 13(c) is an unsuitable example; in Figure 13, predetermined objects 21, 22 sandwiched between predetermined wooden boards 24, or predetermined objects 21, 22 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, are not shown).

[0070] The cloth 25 and the bag 26 are preferably made of at least one of cotton, wool, and linen.

[0071] The colors of the cloth 25 and the bag 26 are expressed in the RGB color system (RGB color space) where R is red, G is green, and B is blue, and in 256-level notation, it is preferable that at least the R value among the R, G, and B values ​​in the RGB values ​​is 200 or more and 255 or less.

[0072] The colors of the cloth 25 and the bag 26 are preferably expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, with the R value being between 200 and 255, the G value between 100 and 255, and the B value between 0 and 250.

[0073] The colors of the cloth 25 and the bag 26 are preferably yellow, red, sky blue, pastel colors, skin tone, or white-green.

[0074] The colored body 10a of the predetermined shape in the wave generator 1 configured in this way can generate good waves while canceling the generation of waves in other objects.

[0075] In other words, by bringing another object into contact with or close to the side of a predetermined flat object 21, 22 that has a predetermined colored body 10a of a predetermined shape, or by placing another object in the inner space 23' of the triangular prism-shaped object 23, it is possible to generate good waves while canceling the generation of waves in the other object.

[0076] As described above, according to this embodiment, the wave generator 1 can generate predetermined waves using predetermined objects 21, 22, and 23 having a predetermined colored body 10a of a predetermined shape with a predetermined dye and / or pigment, as described above. More specifically, the wave generator 1 can generate all frequencies on the front surfaces 21a, 22a and back surfaces 21b, 22b of the predetermined objects 21, 22, and 23 having a predetermined colored body 10a of a predetermined shape with a predetermined dye and / or pigment, and can normalize the polarity of other objects.

[0077] It should be noted that the present invention is not limited to the embodiments described above, and various modifications and applications are possible within the scope of the invention described in the claims.

[0078] In other words, in the embodiments described above, the predetermined flat objects 21 and 22 are rectangular in shape. However, as shown in Figure 14, the predetermined flat object 21 having a colored body 10a of a predetermined shape on one side (front surface 21a or back surface 21b) and the predetermined flat object 22 having a colored body 10a of a predetermined shape on both sides (front surface 22a and back surface 22b) are circular in shape 21A' and 22A'. Furthermore, the circular shapes 21A' and 22A' of the predetermined flat objects 21 and 22 are the same shape and dimensions as the colored body 10a of the predetermined shape, and the colored body 10a of the predetermined shape can be found in the entire area of ​​one or both sides of the circular shapes 21A' and 22A' of the objects 21 and 22 (the positions of the circular shapes 21A' and 22A' of the objects 21 and 22 and the colored body 10a of the predetermined shape coincide). By setting a colored body 10a of a predetermined shape over the entire area of ​​one or both sides of the circular shapes 21A' and 22A' of objects 21 and 22 (by aligning the positions of the colored body 10a of the predetermined shape with the circular shapes 21A' and 22A' of objects 21 and 22), even better waves can be generated.

[0079] Furthermore, in the embodiment described above, the colored body 10a of a predetermined shape is a planar circular shape 10A, but the desired effect can also be achieved by substituting it with a planar spiral shape 10B.

[0080] In other words, as shown in Figures 15 and 16, the wave generator 1A has a spiral shape 10B which has a predetermined shape with a predetermined thickness d' and spiral length. The spiral shape 10B is set to be inscribed in or close to the longer sides 21A, 22A of the two pairs of opposing sides 21A, 21B, 22A, 22B of the rectangular objects 21a', 22a'.

[0081] Similarly to the above, the spiral shape 10B is preferably such that, when the color of the predetermined colored body 10b is expressed in 256 gradations using the RGB color system (RGB color space) where R is red, G is green, and B is blue, at least the R value among the R, G, and B values ​​in the RGB values ​​is 200 or more and 255 or less.

[0082] Furthermore, when the coloring of the colored body 10b of a predetermined shape is expressed in RGB color space (RGB color system) where R is red, G is green, and B is blue, and is represented in 256 gradations, 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 250.

[0083] Furthermore, it is preferable that the colored body 10b of the predetermined shape be colored in one of the following colors: yellow, red, sky blue, pastel, skin tone, or white-green.

[0084] Furthermore, it is preferable that the spiral-shaped colored body 10b is set on one or both sides of a predetermined flat object 21a', 22a'.

[0085] Furthermore, it is preferable that the predetermined flat plate-shaped objects 21a', 22a', on which the spiral-shaped colored body 10b is set on one or both sides, be rectangular in shape.

[0086] Furthermore, the background 10' of the colored body 10b of the spiral shape 10B in the predetermined flat objects 21a', 22a' is preferably a different color from the colored body 10b of the spiral shape 10B, and is preferably white or yellow.

[0087] Furthermore, the color of the background 10' of the spiral-shaped colored body 10b is preferably such that, when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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.

[0088] Furthermore, as shown in Figure 17, the wave generator 1 can also be formed by stacking and combining a plurality of predetermined flat plate-shaped objects 21a', 22a', each having a colored body 10b with a spiral shape 10B.

[0089] Furthermore, it is preferable that the colored bodies 10b of the spiral shape 10B in the multiple stacked predetermined flat plate-shaped objects 21a', 22a' have their outer contour positions 10B' aligned with each other.

[0090] Furthermore, it is preferable that the number of elements be a multiple of 3, more preferably a multiple of 9, and even more preferably a power of 3.

[0091] Furthermore, as shown in Figure 18, it is preferable that the predetermined flat plate-shaped objects 21a', 22a' having a spiral-shaped colored body 10b are housed in a predetermined case 100.

[0092] Furthermore, it is preferable that the predetermined case 100 be transparent or translucent, and that the spiral-shaped colored body 10b be visible from the outside of the predetermined case 100 when the predetermined flat objects 21a', 22a' are housed inside.

[0093] Furthermore, it is preferable that when the predetermined flat objects 21 and 22 are housed in the predetermined case 100, a gap d is formed between them and the inner surface 100a of the predetermined case 100.

[0094] Furthermore, as shown in Figures 19 to 21, it is preferable that the colored spiral-shaped body 10b is set on one or both sides of each of the three sides of the triangular cylindrical object 23a'.

[0095] Furthermore, as shown in Figure 22, it is preferable that the predetermined flat plate-shaped objects 21a', 22a' having a spiral-shaped colored body 10b are sandwiched between predetermined wooden boards 24.

[0096] Furthermore, as shown in Figure 23, it is preferable that predetermined flat plate-shaped objects 21a', 22a' having a spiral-shaped colored body 10b are indirectly sandwiched between predetermined wooden boards 24 via an inclusion 200 (as shown in Figure 23, it is preferable that a gap d is formed between the inclusion 200 and the inner surface 200a side).

[0097] The specified wooden board 24 can be made from various types of wood, such as cypress, bamboo, paulownia, zelkova, camphor, Japanese cypress, Aomori cypress, mountain cherry, Japanese cedar, Katsura tree, walnut, beech, maple, Phellodendron amurense, and Yezo spruce. Of these, cypress is the most preferred choice for the specified wooden board 24.

[0098] The inclusion 200 can be, for example, the case 100 described above. The inclusion 200 can be anything other than the case 100 described above, as long as it is interposed between the predetermined flat objects 21a', 22a' and the predetermined wooden board material 24 and generates good waves.

[0099] Furthermore, it is preferable that the predetermined flat objects 21a', 22a' having a spiral-shaped colored body 10b are covered so as to be wrapped in a predetermined cloth 25.

[0100] Furthermore, as shown in Figure 24, it is preferable that predetermined flat objects 21a', 22a' having a spiral-shaped colored body 10b are housed in a bag 26 made of a predetermined cloth 25 (objects 21a', 22a' are housed in the bag 26 without any exposed portions).

[0101] Furthermore, as shown in Figure 25, it is preferable that predetermined flat objects 21a', 22a' having a spiral-shaped colored body 10b are indirectly housed in a bag 26 made of a predetermined fabric 25 via an intervening material 200 (as shown in Figure 25, it is preferable that a gap d is formed between the inner surface 200a side of the intervening material 200).

[0102] As shown in Figure 26, a predetermined flat plate-shaped object 21a', 22a' having a spiral-shaped colored body 10b, a predetermined object 21a', 22a' having a spiral-shaped colored body 10b sandwiched between predetermined wooden boards 24, or a predetermined object 21a', 22a' having a spiral-shaped colored body 10b indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, can be placed in a bag 26 made of a predetermined cloth 25, and three of these can be arranged in a row, bending (creating) the intermediate portion 26a between adjacent bags 26 and bringing the ends 26b together to form a triangular cylindrical object 23a' having a spiral-shaped colored body 10b. It is preferable that the abutting ends 26b are not spaced apart from each other (Figure 26(c) is an unsuitable example; in Figure 26, predetermined objects 21a', 22a' having a spiral-shaped colored body 10b sandwiched between predetermined wooden boards 24, or predetermined objects 21a', 22a' having a spiral-shaped colored body 10b indirectly sandwiched between predetermined wooden boards 24 via an inclusion 200, are not shown).

[0103] Furthermore, as shown in Figure 27, predetermined flat plate-shaped objects 21a', 22a' having a spiral-shaped colored body 10b, predetermined objects 21a', 22a' sandwiched between predetermined wooden boards 24 having a spiral-shaped colored body 10b, or predetermined objects 21a', 22a' having a spiral-shaped colored body 10b indirectly sandwiched between predetermined wooden boards 24 via an inclusion 200, are not placed in a bag 26 formed of a predetermined cloth 25, but rather three of these are placed in a row between adjacent objects 21a', 22a'. A triangular cylindrical object 23 may be formed by bending (bending) the parts 26a so that they intersect and bringing the ends 26b together (Figure 27(c) is an unsuitable example; in Figure 27, predetermined objects 21a', 22a' having a spiral-shaped colored body 10b sandwiched between predetermined wooden boards 24 having a spiral-shaped colored body 10b, or predetermined objects 21a', 22a' having a spiral-shaped colored body 10b indirectly sandwiched between predetermined wooden boards 24 via an inclusion 200, are not shown).

[0104] Furthermore, it is preferable that the fabric 25 is made of at least one of cotton, wool, and linen.

[0105] Furthermore, when the color of the fabric 25 is expressed in RGB color space (RGB color system) where R is red, G is green, and B is blue, using 256 gradations, it is preferable that at least the R value among the R, G, and B values ​​in the RGB values ​​be between 200 and 255.

[0106] Furthermore, when the color of the fabric 25 is expressed in RGB color space (RGB color system) where R is red, G is green, and B is blue, using 256 gradations, it is preferable that the R value in the RGB values ​​is between 200 and 255, the G value is between 100 and 255, and the B value is between 0 and 250.

[0107] Furthermore, the color of the fabric 25 is preferably one of the following: yellow, red, sky blue, pastel, skin tone, or white-green.

[0108] Furthermore, although the specified colored bodies 10a and 10b are assumed to be planar colored bodies 10a and 10b as described above, they may be replaced with three-dimensional colored bodies 11, 12, 13, and 14.

[0109] In other words, in the modified wave generator 1B, the three-dimensional colored bodies 11, 12, 13, and 14 may be any of the cylindrical shape 11a shown in Figures 28 to 30, the spherical shape 12a shown in Figures 31 to 33, the hemispherical shape 13a shown in Figures 34 to 36, and the spiral shape 14a having a predetermined thickness shown in Figures 37 to 39 (the spiral shape 14a is a colored body 14 of a predetermined shape having a predetermined thickness d' and spiral length).

[0110] In other words, the three-dimensional colored bodies 11, 12, 13, and 14 are set to be inscribed in or close to the longer sides 21A and 22A of the two pairs of opposing sides 21A, 21B, 22A, and 22B of the rectangular objects 21b' and 22b'.

[0111] The colors of the three-dimensional colored objects 11, 12, 13, and 14 are, as described above, in the RGB color space where R is red, G is green, and B is blue, and when expressed in 256 gradations, it is preferable that at least the R value among the R, G, and B values ​​in the RGB values ​​is between 200 and 255.

[0112] Furthermore, when the colors of the three-dimensional colored objects 11, 12, 13, and 14 are expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, it is preferable that the R value in the RGB values ​​is between 200 and 255, the G value is between 100 and 255, and the B value is between 0 and 250.

[0113] Furthermore, it is preferable that the three-dimensional colored objects 11, 12, 13, and 14 be in one of the following colors: yellow, red, sky blue, pastel, skin tone, or white-green.

[0114] Furthermore, it is preferable that the three-dimensional colored bodies 11, 12, 13, and 14 are located on one or both sides of the predetermined flat objects 21b' and 22b'.

[0115] Furthermore, it is preferable that the predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 on one or both sides be rectangular in shape.

[0116] Furthermore, the background 10' of the three-dimensional colored bodies 11, 12, 13, 14 in the predetermined flat objects 21b', 22b' is preferably a different color from the color of the three-dimensional colored bodies 11, 12, 13, 14, and is preferably a white or yellow color.

[0117] Furthermore, the colors in the background 10' of the three-dimensional colored objects 11, 12, 13, and 14 are preferably such that, when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value 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.

[0118] Furthermore, although not shown, the wave generator 1 can also be formed by stacking and combining a plurality of predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14.

[0119] Furthermore, it is preferable that the three-dimensional colored bodies 11, 12, 13, and 14 in the predetermined flat plate-shaped objects 21b' and 22b' that are stacked together have their outer contour positions 10B' aligned with each other.

[0120] Furthermore, it is preferable that the number of elements be a multiple of 3, more preferably a multiple of 9, and even more preferably a power of 3.

[0121] Furthermore, although not shown in the figures, it is preferable that predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 are housed in a predetermined case 100.

[0122] Furthermore, it is preferable that the predetermined case 100 be transparent or translucent, and that the three-dimensional colored objects 11, 12, 13, and 14 be visible from the outside of the predetermined case 100 when the predetermined flat objects 21b' and 22b' are housed inside.

[0123] Furthermore, it is preferable that a gap d is formed between the predetermined flat objects 21b' and 22b' and the inner surface 100a of the predetermined case 100 when the objects are housed in the predetermined case 100.

[0124] Furthermore, as shown in Figures 30, 33, 36, and 39, it is preferable that the three-dimensional colored bodies 11, 12, 13, and 14 are located on one or both sides of each of the three sides of the triangular cylindrical object 23b'.

[0125] Furthermore, although not shown in the figures, it is preferable that predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 are sandwiched between predetermined wooden boards 24.

[0126] Furthermore, although not shown, it is preferable that predetermined flat plate-shaped objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 are indirectly sandwiched between predetermined wooden boards 24 via an inclusion 200 (although not shown, it is preferable that a gap d is formed between the inclusion 200 and the inner surface 200a side).

[0127] The specified wooden board 24 can be made from various types of wood, such as cypress, bamboo, paulownia, zelkova, camphor, Japanese cypress, Aomori cypress, mountain cherry, Japanese cedar, Katsura tree, walnut, beech, maple, Phellodendron amurense, and Yezo spruce. Of these, cypress is the most preferred choice for the specified wooden board 24.

[0128] The intervening material 200 can be, for example, the case 100 described above. The intervening material 200 can be anything other than the case 100 described above, as long as it is interposed between the predetermined flat objects 21b', 22b' and the predetermined wooden board material 24 and generates good waves.

[0129] Furthermore, it is preferable that predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 are covered so as to be wrapped in a predetermined cloth 25.

[0130] Furthermore, although not shown in the figures, it is preferable that predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 are housed in a bag 26 made of a predetermined cloth 25 (objects 21b', 22b' are housed in the bag 26 without any exposed parts).

[0131] Furthermore, although not shown, it is preferable that predetermined flat objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 are indirectly housed in a bag 26 formed of a predetermined cloth 25 via an intervening material 200 (as shown in Figure 23, it is preferable that a gap d is formed between the intervening material 200 and the inner surface 200a side).

[0132] As shown in Figure 40, a predetermined flat plate-shaped object 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14, a predetermined object 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 sandwiched between predetermined wooden boards 24, or a predetermined object 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, may be placed in a bag 26 made of a predetermined cloth 25, and three of these may be arranged in a row, bending (creating a curve) the intermediate portion 26a between adjacent bags 26 and bringing the ends 26b together to form a triangular cylindrical object 23b' having three-dimensional colored bodies 11, 12, 13, 14. It is preferable that the butt joints of the ends 26b are not spaced apart from each other (Figure 40(c) is an unsuitable example; in Figure 40, predetermined objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 sandwiched between predetermined wooden boards 24, or predetermined objects 21b', 22b' having three-dimensional colored bodies 11, 12, 13, 14 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, are not shown).

[0133] Furthermore, as shown in Figure 41, predetermined flat plate-shaped objects 21a', 22a' having three-dimensional colored bodies 11, 12, 13, 14, predetermined objects 21a', 22a' sandwiched between predetermined wooden boards 24 having three-dimensional colored bodies 11, 12, 13, 14, or predetermined objects 21a', 22a' having three-dimensional colored bodies 11, 12, 13, 14 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200, are arranged in a bag 26 formed of a predetermined cloth 25, with three of these arranged in a row to form adjacent objects 21a', 22a'. A triangular cylindrical object 23 may be formed by bending (bending) the intermediate portion 26a so that it intersects with the end portions 26b, and then butting them together (Figure 41(c) is an unsuitable example; in Figure 41, predetermined objects 21a', 22a' having three-dimensional colored bodies 11, 12, 13, 14 sandwiched between predetermined wooden boards 24, or predetermined objects 21a', 22a' having three-dimensional colored bodies 11, 12, 13, 14 indirectly sandwiched between predetermined wooden boards 24 via an intervening material 200 are not shown).

[0134] Furthermore, it is preferable that the fabric 25 is made of at least one of cotton, wool, and linen.

[0135] Furthermore, when the color of the fabric 25 is expressed in RGB color space (RGB color system) where R is red, G is green, and B is blue, using 256 gradations, it is preferable that at least the R value among the R, G, and B values ​​in the RGB values ​​be between 200 and 255.

[0136] Furthermore, when the color of the fabric 25 is expressed in RGB color space (RGB color system) where R is red, G is green, and B is blue, using 256 gradations, it is preferable that the R value in the RGB values ​​is between 200 and 255, the G value is between 100 and 255, and the B value is between 0 and 250.

[0137] Furthermore, the color of the fabric 25 is preferably one of the following: yellow, red, sky blue, pastel, skin tone, or white-green.

[0138] Furthermore, the wave generator 1 may be constructed by appropriately overlapping or combining objects 21b', 22b' in which a predetermined planar colored body 10b is in the shape of a circle 10A, objects 21b', 22b' in which a predetermined planar colored body 10b is in the shape of a spiral 10B, and three-dimensional colored bodies 11, 12, 13, 14.

[0139] Furthermore, as shown in Figure 42, the three-dimensional colored body 15, which is a colored body 10a of a predetermined shape and has a predetermined color applied to a predetermined object 27, is preferably in the form of at least one of powder, granules, powder-granules, granules, and tablets. The three-dimensional colored body 15, which is at least one of powder, granules, powder-granules, granules, and tablets, is preferably a pharmaceutical or a supplement.

[0140] In other words, it is preferable that the three-dimensional colored body 15, which consists of at least one of powder, granules, powder-granules, granular form, and tablet form, is contained in such a way as to fill the inner space 300' of the three-dimensional container 300 and thus formed three-dimensionally.

[0141] In other words, it is preferable that the three-dimensional container 300 be a short cylindrical container 300, and that the three-dimensional colored body 15, which consists of at least one of powder, granules, powder-granules, and tablets, be filled into the inner space 300' of the short cylindrical container 300 and formed into a short cylindrical shape.

[0142] As shown in Figure 43, the container 300 has a main body 310 and a lid 320. The main body 310 is cylindrical with its bottom 311 and sides 312 closed and its top 313 open. It is preferable that the cylindrical inner space 300' is filled with a three-dimensional colored material 15 consisting of at least one of powder, granules, powder-granules, granular material, and tablet form. The lid 320 is a circular plate and is configured to close the top 313 side of the main body 310 where it is open.

[0143] More specifically, the predetermined object 27 is preferably configured such that, as shown in Figure 44, three three-dimensional colored bodies 15, 15, 15, which consist of at least one of powder, granules, powder-granules, and tablets, are arranged in a triangular shape.

[0144] More specifically, the three three-dimensional colored bodies 15, 15, 15 are all cylindrical in shape and of the same dimensions. The three three three-dimensional colored bodies 15, 15, 15 are arranged in a triangular shape so that they are touching each other, and as a result, the predetermined object 27 is constructed such that the line segment L connecting the centers O of the three three three-dimensional colored bodies 15, 15, 15 forms an equilateral triangle.

[0145] Furthermore, it is preferable that the predetermined object 27 is configured such that, as shown in Figure 45, it has antenna portions 330, 330, 330 for propagating waves to the outside on at least one of the upper surface 15a and lower surface 15b sides of three three-dimensional colored bodies 15, 15, 15 arranged in a triangular shape, consisting of at least one of powder, granules, powder-granules, granular particles, and tablets.

[0146] The antenna section 330, 330, 330 is preferably made up of three long plate-like or linear bodies arranged in a triangular shape.

[0147] Furthermore, it is preferable that the predetermined object 27 has a substantially triangular cylindrical housing 400, as shown in Figure 46, and houses three three-dimensional colored bodies 15, 15, 15, which consist of at least one of powder, granules, powder-granules, granular particles, and tablets, arranged in a triangular shape in the inner space 400' of the substantially triangular cylindrical housing 400. It is preferable that the three-dimensional colored bodies 15, 15, 15 are housed in the housing 400 while filled in containers 300, 300, 300.

[0148] The roughly triangular cylindrical container 400 is more specifically roughly a regular triangular cylinder, and more specifically, the corners 400A, 400B, and 400C of the regular triangular cylinder are rounded in an arc shape, so that its appearance resembles a rice ball.

[0149] As shown in Figure 47, the housing 400 has a main body 410 and a lid 420. The main body 410 is a roughly triangular tube with a closed bottom 411 and sides 412 and an open top 413, and houses three three-dimensional colored objects 15, 15, 15 arranged in a triangular shape within the roughly triangular tube's inner space 400', each consisting of at least one of powder, granules, powder-granules, granular particles, and tablets. The lid 420 is a roughly triangular plate, and preferably closes the open top 413 side of the main body 410 with its bottom surface. Installation portions 430 for installing the antennas 330, 330, 330 are provided on the inside 411' of the bottom 411 of the main body 410 and / or on the bottom 420' of the lid 420.

[0150] The mounting section 430 has three pairs of protrusions 430A, each consisting of two parallel protrusions 431 and 432, and these three pairs of protrusions 430A are arranged in a triangular shape. It is preferable that the antenna sections 330, 330, 330 are fitted between the two protrusions 431 and 432. The housing 400 is preferably made of resin or plastic.

[0151] By providing the installation section 430 in this manner, the colored bodies 15, 15, 15 can be housed in the housing 400, while antenna sections 330, 330, 330 for propagating waves to the outside can be provided on at least one of the upper surface 15a and lower surface 15b sides of the colored bodies 15, 15, 15.

[0152] Here, the color of the three-dimensional colored object 15 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, it is preferable that at least the R value among the R, G, and B values ​​in the RGB values ​​is between 200 and 255.

[0153] Furthermore, when the color of the three-dimensional colored object 15 is expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, it is preferable that the R value in the RGB values ​​is between 200 and 255, the G value is between 100 and 255, and the B value is between 0 and 250.

[0154] Furthermore, it is preferable that the color of the three-dimensional colored body 15 be one of the following: yellow, red, sky blue, pastel colors, skin tone, or white-green.

[0155] Furthermore, even if the three-dimensional object 15', which consists of at least one of powder, granules, powder-granules, granular particles, and tablets, is not colored (such as white), it can still generate good waves.

[0156] In other words, for three-dimensional objects 15' that are not colored, such as white, and consist of at least one of the following forms: powder, granules, powder-granules, granular form, and tablet form, it is preferable to use them as pharmaceuticals or supplements, similar to the above.

[0157] Furthermore, it is preferable that three-dimensional objects 15', which are not colored (such as white) and consist of at least one of powder, granules, powder-granules, granular form, and tablet form, be contained and filled into the inner space 300' of the three-dimensional container 300 to form a three-dimensional shape.

[0158] Furthermore, it is preferable that the three-dimensional container 300 be a short cylindrical container 300 as described above, and that the three-dimensional shaped object 15', which is not colored such as white and consists of at least one of powder, granules, powder-granules, and tablets, be filled into the inner space 300' of the short cylindrical container 300 to form a short cylindrical shape.

[0159] Furthermore, the container 300 also has a main body 310 and a lid 320, similar to the above, and the main body 310 is cylindrical with the bottom 311 and sides 312 closed and the top 313 open, and the cylindrical inner space 300' is filled with a three-dimensional object 15' consisting of at least one of white or other colorless material, simply in the form of powder, granules, powder-granules, granules, and tablets, and the lid 320 is a circular plate that closes the top 313 side of the main body 310 which is open.

[0160] Furthermore, it is preferable that the predetermined object 27 is configured in the same manner as described above, with three three-dimensional objects 15' arranged in a triangular shape, consisting of at least one of the following: white or other colorless objects, which are simply in the form of powder, granules, powder-granules, or tablets.

[0161] In other words, the three three-dimensional shapes 15', 15', 15' are all cylindrical and of the same dimensions and shape. The three three three-dimensional shapes 15', 15', 15' are arranged in a triangular shape so that they are touching each other, and it is preferable that the predetermined object 27 is configured such that the line segment L connecting the centers O of the three three three-dimensional shapes 15', 15', 15' forms an equilateral triangle.

[0162] Furthermore, it is preferable that the predetermined object 27 is configured to have antenna portions 330, 330, 330 for propagating waves to the outside on at least one of the upper surface 15a and lower surface 15b sides of three three-dimensional shaped objects 15', 15', 15' arranged in a triangular shape, which are not colored, such as white, and consist of at least one of powder, granules, powder-granules, granular particles, and tablets.

[0163] Furthermore, it is preferable that the antenna section 330, 330, 330 be made up of three long plate-like or linear bodies arranged in a triangular shape, as described above.

[0164] Furthermore, it is preferable that the predetermined object 27, similar to the above, has a substantially triangular cylindrical container 400 and contains three three-dimensional objects 15', 15', 15' arranged in a triangular shape in the inner space 400' of the substantially triangular cylindrical container 400, which are not colored, such as white, and consist of at least one of powder, granules, powder-granules, granular particles, and tablets. It is preferable that the three-dimensional objects 15', 15', 15' are contained in the container 400 while filled in containers 300, 300, 300, similar to the above.

[0165] The roughly triangular cylindrical container 400 is preferably, in the same manner as described above, more specifically, roughly a regular triangular cylinder, and even more specifically, the corners 400A, 400B, and 400C of the regular triangular cylinder are rounded in an arc shape, so that its appearance resembles a rice ball.

[0166] Furthermore, the housing 400 also has a main body 410 and a lid 420, similar to the above, and the main body 410 is a roughly triangular tube with a closed bottom 411 and sides 412 and an open top 413, and houses three three-dimensional objects 15', 15', 15' which are not colored such as white and are simply arranged in a triangular shape, consisting of at least one of powder, granules, powder-granules, granular particles, and tablets, and the lid 420 is a roughly triangular plate, and the open top 413 side of the main body 410 is closed on the bottom side, and it is preferable that an installation portion 430 for installing the antenna portion 330, 330, 330 is provided on the inside 411' of the bottom 411 of the main body 410 and / or on the bottom surface 420' of the lid 420.

[0167] Furthermore, the installation section 430 preferably has three pairs of protrusions 430A, each consisting of two parallel protrusions 431 and 432, and the three pairs of protrusions 430A are arranged in a triangular shape, with the antenna sections 330, 330, and 330 fitted between the two protrusions 431 and 432. In the embodiment described above, the wave generator 1 is formed by stacking multiple predetermined flat objects 21 together, but the desired effect can also be achieved with just one object.

[0168] [Example 1] Embodiment 1 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 1 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R being red, G being green, and B being blue, and using 256 gradations, the R value in the RGB values ​​is set to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0169] (Method for measuring wave motion) The wave measurements of this invention were performed using a Rayonex 2 manufactured in Germany, as shown in Figure 48.

[0170] The Rayocomp 2 comprises a main unit 3, a petri dish 4, and a sensor 5. The Rayocomp 2 can generate waves of a predetermined frequency using the main unit 3 while an object to be measured for wave activity is placed in the petri dish 4. The Rayocomp 2 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.

[0171] Whether or not the object being measured resonates with a wave of that frequency is measured by the vibration of the tip 5a of the sensor 5. If the tip 5a of the sensor 5 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.

[0172] On the other hand, when the tip 5a of the sensor 5 rotates, the object being measured is not in a state of resonance with the wave of that frequency and is not generating the wave of that frequency.

[0173] If the left-right vibration of the tip 5a of sensor 5 is large, it is considered that the waves generated from the object being measured are relatively strong. If the left-right vibration of the tip 5a of sensor 5 is small, it is considered that the waves generated from the object being measured are relatively weak. Furthermore, if the rotation of the tip 5a of sensor 5 is large, it is considered that the state in which waves of that frequency are not being generated is more pronounced. If the rotation is smooth and fluid, it is considered that the state in which waves of that frequency are not being generated is even more pronounced.

[0174] The sensor 5 is operated by the user holding the base end 5b of the sensor 5 in their hand and visually determining whether the tip 5a vibrates from side to side or rotates.

[0175] 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 has extensive experience using the Rayocomp 2 in his regular medical practice.

[0176] (Measurement results of wave motion) The wave generator 1 shown in Figure 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated.

[0177] [Example 2] Embodiment 2 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 2 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to 200 or more and 255 or less, the G value is set to 100 or more and 255 or less, and the B value is set to 0 or more and 250 or less. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0178] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 1.

[0179] [Example 3] Embodiment 3 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 3 as the object to be measured, and the object 21 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0180] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 1.

[0181] [Example 4] Embodiment 4 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 3 as the object to be measured, and the object 22 is a predetermined flat plate-shaped object 22 having a colored body 10a of a predetermined shape on both sides. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0182] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 2.

[0183] [Example 5] Embodiment 5 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 4 as the object to be measured, wherein the object 21 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0184] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 3.

[0185] [Example 6] Embodiment 6 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 4 as the object to be measured, wherein the object 21 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side, and no gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0186] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was smaller than that of the wave generator 1 in Example 5.

[0187] [Example 7] Embodiment 7 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 4 as the object to be measured, wherein the object 22 is a predetermined flat plate-shaped object 22 having a predetermined colored body 10a of a predetermined shape on both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the predetermined colored body 10a in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0188] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 4.

[0189] [Example 8] Embodiment 8 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 4 as the object to be measured, wherein the object 22 is a predetermined flat plate-shaped object 22 having a predetermined colored body 10a on both sides, and no gap d is formed between the wave generator 1 and the case 100. The color of the predetermined colored body 10a in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0190] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was smaller than that of the wave generator 1 in Example 7.

[0191] [Example 9] Embodiment 9 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 5 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0192] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 1.

[0193] [Example 10] Embodiment 10 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 6 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0194] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was equivalent to that of the wave generator 1 in Example 9.

[0195] [Example 11] Embodiment 11 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 7 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in the RGB values ​​is set 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. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0196] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 9 and 10.

[0197] [Example 12] Embodiment 12 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 8 as the object to be measured, and the object 22 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one or both sides. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0198] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 3 and 4.

[0199] [Example 13] Embodiment 13 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 9 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0200] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 5 and 7.

[0201] [Example 14] Embodiment 14 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 10 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0202] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 3 and 4.

[0203] [Example 15] Embodiment 15 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 11 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0204] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 3 and 4.

[0205] [Example 16] Embodiment 16 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 12 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0206] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 9, 10, and 11.

[0207] [Example 17] Embodiment 17 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 13 as the object to be measured, and the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R being red, G being green, and B being blue, and using 256 gradations, the R value in the RGB values ​​is set 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. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0208] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 9, 10, and 11.

[0209] [Example 18] Embodiment 18 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 14 as the object to be measured, wherein the object 22 is a predetermined flat plate-shaped object 22 having a predetermined colored body 10a on both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the predetermined colored body 10a in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R being red, G being green, and B being blue, and using 256 gradation notation, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250.

[0210] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 2.

[0211] [Example 19] Embodiment 19 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 15 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0212] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated.

[0213] [Example 20] Example 20 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 16 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0214] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 19.

[0215] [Example 21] Embodiment 21 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 17 as the object to be measured, and the object 21 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R being red, G being green, and B being blue, and using 256 gradations, the R value in the RGB values ​​is set 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. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0216] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 19.

[0217] [Example 22] Embodiment 4 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 17 as the object to be measured, and the object 22 is a predetermined flat plate-shaped object 22 having a colored body 10a of a predetermined shape on both sides. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0218] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 20.

[0219] [Example 23] Embodiment 23 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 18 as the object to be measured, wherein the object 21 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0220] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 21.

[0221] [Example 24] Embodiment 24 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 18 as the object to be measured, wherein the object 21 is a predetermined flat plate-shaped object 21 having a colored body 10a of a predetermined shape on one side, and no gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0222] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was smaller than that of the wave generator 1 in Example 23.

[0223] [Example 25] Embodiment 25 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 18 as the object to be measured, wherein the object 22 is a predetermined flat plate-shaped object 22 having a predetermined colored body 10a on both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the predetermined colored body 10a in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0224] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 22.

[0225] [Example 26] Embodiment 26 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 18 as the object to be measured, wherein the object 22 is a predetermined flat plate-shaped object 22 having a predetermined colored body 10a on both sides, and no gap d is formed between the wave generator 1 and the case 100. The color of the predetermined colored body 10a in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0226] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was smaller than that of the wave generator 1 in Example 25.

[0227] [Example 27] Embodiment 27 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 19 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0228] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 19.

[0229] [Example 28] Embodiment 28 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 20 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R being red, G being green, and B being blue, and using 256 gradations, the R value in the RGB values ​​is set to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0230] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was equivalent to that of the wave generator 1 in Example 27.

[0231] [Example 29] Embodiment 29 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 21 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0232] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 27 and 28.

[0233] [Example 30] Embodiment 30 of the present invention is an example in which the wave is measured using the wave generator 1 shown in Figure 22 as the object to be measured, and the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0234] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 21 and 22.

[0235] [Example 31] Embodiment 31 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 23 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0236] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 23 and 25.

[0237] [Example 32] Embodiment 32 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 24 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0238] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 21 and 22.

[0239] [Example 33] Embodiment 33 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 25 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0240] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 21 and 22.

[0241] [Example 34] Embodiment 34 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 26 as the object to be measured, wherein the objects 21 and 22 are predetermined flat plate-shaped objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides, and a gap d is formed between the wave generator 1 and the case 100. The color of the colored body 10a of the predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in RGB values ​​is 200 to 255, the G value is 100 to 255, and the B value is 0 to 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0242] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 27, 28, and 29.

[0243] [Example 35] Example 35 of the present invention is an example in which the object to be measured is the wave generator 1 in FIG. 27, and the waves are measured with the objects 21 and 22 being predetermined flat objects 21 and 22 having a colored body 10a of a predetermined shape on one or both sides. The color of the colored body 10a of a predetermined shape in the wave generator 1 is any one of yellow, red, sky blue, pastel color, skin color, and white-green. 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 in the RGB values 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. The background 10' of the colored body 10a of a predetermined shape is white or yellow. 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 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.

[0244] Such a wave generator 1 was placed on the petri dish 4, and waves of a predetermined range of frequencies (0 to 99.9 in the same reference) generated by the remote controller 2 were sequentially irradiated by the above-described wave measurement method. As a result, it was confirmed that the tip 5a of the sensor 5 vibrated left and right in the waves of a predetermined range of frequencies (0 to 99.9) generated by the remote controller 2, and that the waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was larger than that of the wave generator 1 in Examples 27, 28, and 29.

[0245] [Example 36] Example 36 of the present invention is an example in which the object to be measured is used as the wave generator 1 in FIG. 28 to measure waves. The color of the colored body 10a with a predetermined shape in the wave generator 1 is any one of yellow-based, red-based, sky blue-based, pastel color-based, skin color-based, and white-green-based. 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 in the RGB values 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. The background 10' of the colored body 10a with a predetermined shape is white-based or yellow-based. 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 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.

[0246] Such a wave generator 1 was placed on the petri dish 4, and waves with a predetermined frequency range (0 to 99.9 in the same) generated by the remote controller 2 were sequentially irradiated by the above-described wave measurement method. As a result, it was confirmed that the tip 5a of the sensor 5 vibrated left and right in the waves with a predetermined frequency range (0 to 99.9 in the same) generated by the remote controller 2, and that the waves with that frequency range (0 to 99.9 in the same) were being generated.

[0247] [Example 37] Embodiment 37 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 29 as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, the R value in the RGB values ​​is set to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0248] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 36.

[0249] [Example 38] Embodiment 38 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 30(a) as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in RGB color space (RGB color system) with R as red, G as green, and B as blue, and represented in 256 gradations, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0250] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Example 36.

[0251] [Example 39] Embodiment 39 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 30(c) as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, 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 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0252] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was equivalent to that of the wave generator 1 in Example 38.

[0253] [Example 40] Embodiment 40 of the present invention is an example in which waves are measured using the wave generator 1 shown in Figure 30(c) as the object to be measured. The color of the colored body 10a of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0254] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of the wave generator 1 in Examples 38 and 39.

[0255] [Example 41] Embodiment 41 of the present invention is an example in which the wave of a three-dimensional colored body 15, consisting of at least one of powder, granules, powder-granules, granular form, and tablet form, is measured using the wave generator 1 shown in Figure 46 as the object to be measured. The color of the colored body 15 of a predetermined shape in the wave generator 1 is one of the following: yellow, red, sky blue, pastel color, skin tone, or white-green. When expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value is set 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. The background 10' of the colored object 10a of a predetermined shape is either white or yellow, and when expressed in 256-level notation using the RGB color system (RGB color space) where R is red, G is green, and B is blue, the R value in the RGB values ​​is set to be between 240 and 255, the G value to be between 240 and 255, and the B value to be between 240 and 255, or the R value to be between 200 and 255, the G value to be between 100 and 255, and the B value to be between 0 and 250.

[0256] [Example 42] Embodiment 42 of the present invention is an example in which the wave of a three-dimensional object 15', which is not colored such as white and consists of at least one of powder, granules, powder-granules, granular form, and tablet form, is measured with the wave generator 1 shown in Figure 46 as the object to be measured. The color of the three-dimensional object 15' in the wave generator 1 is white, 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 in the RGB values ​​is 200 to 255, the G value is 200 to 255, and the B value is 200 to 255.

[0257] The wave generator 1 was placed on a petri dish 4, and waves of a predetermined frequency range (0 to 99.9) generated by the Rayocomp 2 were sequentially irradiated using the wave measurement method described above. As a result, the tip 5a of the sensor 5 vibrated from side to side in the predetermined frequency range (0 to 99.9) generated by the Rayocomp 2, confirming that waves of that frequency (0 to 99.9) were being generated. The magnitude of the vibration was greater than that of any of the wave generators 1 in Examples 1 to 40.

[0258] [Example 43] Example 42 of the present invention is an example in which waves were measured using white rectangular flat objects 21 and 22 having no colored body of a predetermined shape in FIG. 49 and a white triangular prism-shaped object 23 having no colored body of a predetermined shape in FIG. 50. Both objects 21 and 23 were made of paper.

[0259] These objects 21 and 23 were placed in the petri dish 4, and waves in a predetermined frequency range (0 to 99.9 in the same) generated by the raycom 2 were sequentially irradiated by the above-described wave measurement method. As a result, it was confirmed that the tip 5a of the sensor 5 rotated at any of the waves in the predetermined frequency range (0 to 99.9 in the same) generated by the raycom 2 and that waves in that frequency range (0 to 99.9 in the same) were not generated.

Explanation of Signs

[0260] d: Gap d´: Thickness L: Line segment O: Center 1: Wave generator 2: Raycom 3: Main body 4: Petri dish 5: Sensor 5a: Tip 5b: Base end 10: 10A: Circular shape 10A´: Contour position 10B: Spiral shape 10B´: Contour position 10a: Colored body 10b: Colored body 10´: Background 11, 12, 及び13, 14, 及び15: Colored body 15´: Three-dimensional shaped object 15a: Upper surface 15b: Lower surface 20, 21, 22, 21a´, 22a´, 21b´, 22b´, 27: Objects 21A, 21B, 22A, 22B: Side parts 21A´, 22A´: Circular shape 21a: Surface 21b: Back surface 22a: Surface 22b: Back side 23, 23a', 23b': Triangular cylindrical object 23': Inner space 24: Board material 25: Cloth 26: Bag 26a: Middle part 26b: End 27:Object 100: Case 100a: Inner surface 200: Inclusions 300: Container 300': Interior space 310: Main body 311: Bottom 312: Side 313: Top 320: Lid 330: Antenna section 400: Containment 400': Interior space 400A, 400B, 400C: Corner 411: Bottom 411': Inside 412: Side 413: Top 420: Lid 430: Installation part 430A: A pair of convex stripes 431,432: Convex stripe

Claims

1. A wave generator characterized by generating a predetermined wave using a predetermined object having a predetermined color and a predetermined shape.

2. The wave generator according to claim 1, characterized in that the colored body of the predetermined shape is a planar or three-dimensional colored body.

3. The wave generator according to claim 1, characterized in that the planar colored body is circular or spiral in shape.

4. The wave generator according to claim 1, characterized in that the three-dimensional colored body is one of a cylindrical shape, a spherical shape, a hemispherical shape, or a spiral shape having a predetermined thickness.

5. The wave generator according to claim 2, characterized in that the circular base, cylindrical base, spherical projection surface, and hemispherical base are all perfect circles.

6. The wave generator according to claim 1, characterized in that the color of the colored body of the predetermined shape is such that at least the R value among the R value, G value, and B value in the RGB values ​​is 200 or more and 255 or less.

7. The wave generator according to claim 1, characterized in that the color of the colored body of the predetermined shape is such that the R value in the RGB values ​​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.

8. The wave generator according to claim 1, characterized in that the color of the colored body of the predetermined shape is one of the following: yellow, red, sky blue, pastel, skin tone, or white-green.

9. The wave generator according to claim 1, characterized in that the colored body of the predetermined shape is located on one or both sides of a predetermined flat plate-shaped object.

10. The wave generator according to claim 7, characterized in that the predetermined flat plate-shaped object having the predetermined colored body on one or both sides is rectangular in shape.

11. The wave generator according to claim 7, characterized in that the background of the colored body of the predetermined shape in the predetermined flat object is a different color from the color of the colored body of the predetermined shape, and is white or yellow.

12. The wave generator according to claim 9, characterized in that the background color of the colored body of the predetermined shape is 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.

13. The wave generator according to claim 8, characterized in that the rectangular shape is a rectangle, and the circular or spiral shape is inscribed in or close to the longer side of two pairs of opposing sides of the rectangular object.

14. The wave generator according to claim 7, characterized in that the predetermined flat plate-shaped object having the predetermined colored body on both sides is circular in shape.

15. The wave generator according to claim 12, characterized in that the circular shape of the predetermined flat plate-shaped object is the same shape and dimensions as the circular shape of the predetermined colored body, the base of the cylindrical shape, the projection surface of the spherical shape, and the base of the hemispherical shape, and the predetermined colored body is present in the entire area of ​​both sides of the circular shape of the predetermined flat plate-shaped object.

16. The wave generator according to claim 7, characterized in that it is formed by one or more of the predetermined flat plate-shaped objects stacked together.

17. The wave generator according to claim 14, characterized in that the colored bodies of the predetermined shape in the multiple superimposed predetermined flat plate-shaped objects have their outer contour positions aligned with each other.

18. The wave generator according to claim 14, characterized in that the plurality is a multiple of 3.

19. The wave generator according to claim 14, characterized in that the plurality is a multiple of 9.

20. The wave generator according to claim 14, characterized in that the plurality is a power of 3.

21. The wave generator according to claim 7, characterized in that the predetermined flat plate-shaped object is housed in a predetermined case.

22. The wave generator according to claim 20, characterized in that the predetermined case is a transparent or translucent case, and the predetermined colored body of the predetermined shape is visible from the outside of the predetermined case when the predetermined flat object is housed inside.

23. The wave generator according to claim 20, characterized in that when the predetermined flat object is housed in the predetermined case, a gap is formed between it and the inner surface of the predetermined case.

24. The wave generator according to claim 1, characterized in that the colored body of the predetermined shape is provided on one or both sides of each of the three sides of the triangular cylindrical object.

25. The wave generator according to claim 7 or 22, characterized in that the predetermined flat plate-shaped object is sandwiched between predetermined wooden boards.

26. The wave generator according to claim 7 or 22, characterized in that the predetermined flat plate-shaped object is indirectly sandwiched between predetermined wooden boards via an intervening material.

27. The wave generator according to claim 23, characterized in that the aforementioned specified wooden board material is cypress.

28. The wave generator according to claim 1 or 23, characterized in that the predetermined flat object or the predetermined wooden board sandwiched between the predetermined objects is covered with a predetermined cloth.

29. The wave generator according to claim 1 or 23, characterized in that the predetermined object sandwiched between the predetermined flat plate-shaped object or the predetermined wooden board is indirectly covered with a predetermined cloth via an intervening material.

30. The wave generator according to claim 1 or 23, characterized in that the predetermined flat object or the predetermined wooden board sandwiched between the predetermined flat objects is housed in a bag made of a predetermined cloth.

31. The wave generator according to claim 1 or 23, characterized in that the predetermined object sandwiched between the predetermined flat object or the predetermined wooden board is indirectly housed in a bag made of a predetermined cloth via an intermediary.

32. The wave generator according to claim 26 or 27, characterized in that the fabric is formed of at least one of cotton, wool, and linen.

33. The wave generator according to claim 26 or 27, characterized in that the color of the cloth is such that at least the R value among the R value, G value, and B value in the RGB values ​​is 200 or more and 255 or less.

34. The wave generator according to claim 26 or 27, characterized in that the color of the cloth has an R value of 200 or more and 255 or less in the RGB values, a G value of 100 or more and 255 or less, and a B value of 0 or more and 250 or less.

35. The wave generator according to claim 26 or 27, characterized in that the color of the cloth is one of the following: yellow, red, sky blue, pastel, skin tone, or white-green.

36. The wave generator according to claim 1, characterized in that the three-dimensional colored body having the predetermined shape in the predetermined object is in the form of at least one of powder, granules, powder-granules, granular form, and tablet form.

37. The wave generator according to claim 34, characterized in that the three-dimensional colored material, which consists of at least one of the powder, granules, powder-granules, granular form, and tablet form, is a pharmaceutical product or a supplement.

38. The wave generator according to claim 34, characterized in that the three-dimensional colored material, which consists of at least one of the powder, granules, powder-granules, granular form, and tablet form, is contained so as to fill the inner space of a three-dimensional container and is formed three-dimensionally.

39. The aforementioned three-dimensional container is a short cylindrical container. The wave generator according to claim 34, characterized in that the three-dimensional colored body, which consists of at least one of the powder, granules, powder-granules, granular form, and tablet form, is housed in such a way that it fills the inner space of a short cylindrical container and is formed into the short cylindrical shape.

40. The container has a main body and a lid, The main body is cylindrical in shape with its bottom and sides closed and its top open, and the three-dimensional colored material, consisting of at least one of the powder, granules, powder-granules, and tablets, is housed in the inner space of the cylindrical body. The wave generator according to claim 36, characterized in that the lid portion is in the shape of a circular plate and is configured to close the upper side of the main body portion where the opening is located.

41. The wave generator according to claim 34, characterized in that the predetermined object is configured in which three three-dimensional colored bodies, consisting of at least one of the powder, granules, powder-granules, granular form, and tablet form, are arranged in a triangular shape.

42. The wave generator according to claim 38, characterized in that the predetermined object is provided with an antenna portion for propagating waves to the outside on at least one of the upper and lower surfaces of three three-dimensional colored bodies, each consisting of at least one of the powder, granules, powder-granules, and tablet-like materials arranged in a triangular shape.

43. The wave generator according to claim 39, characterized in that the antenna section is made up of three long plate-like or linear bodies arranged in a triangular shape.

44. The wave generator according to claim 34, characterized in that the predetermined object has a substantially triangular cylindrical housing, and houses three three-dimensional colored bodies arranged in a triangular shape in the inner space of the substantially triangular cylindrical housing, consisting of at least one of the powder, granules, powder-granules, granular material, and tablet form.

45. The container has a main body and a lid, The main body has a roughly triangular cylindrical shape with its bottom and sides closed and its top open, and houses three three-dimensional colored bodies arranged in a triangular shape within the inner space of the roughly triangular cylindrical shape, consisting of at least one of the powder, granules, powder-granules, granular form, and tablet form. The lid portion is in the shape of a roughly triangular plate, and the upper side of the main body portion that has an opening is closed off by the lower side. The wave generator according to claim 42, characterized in that an installation portion for installing the antenna portion is provided on the inside of the bottom of the main body and / or on the lower surface of the lid.

46. The wave generator according to claim 42, characterized in that the mounting section has three pairs of protrusions, each consisting of two parallel protrusions, and the three pairs of protrusions are arranged in a triangular shape, and the antenna section is fitted between the two pairs of protrusions.

47. The wave generator according to claim 1, characterized in that the colored body of the predetermined shape cancels the generation of waves in other objects.

48. A wave generation method characterized by generating a predetermined wave using a predetermined object having a predetermined colored body of a predetermined shape and a predetermined color applied to it.

Images