KR900008640Y1 - Gloss-irradiation stand - Google Patents

Abstract

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Description

Light irradiation stand

1 is a view for explaining an embodiment of the light irradiation treatment apparatus that the applicant has previously limited.

2 (a) and 2 (b) are an overall perspective view for explaining an embodiment of a light irradiation stand according to the present invention.

3 is a detailed cross-sectional view for explaining a light emitting end side of an optical conductor cable.

4 is a detailed perspective view for explaining an embodiment of a holding member for holding an optical conductor cable.

5 is a perspective view for explaining an embodiment of a solar collector used in the present invention.

6 is a diagram for explaining an apparatus for introducing sunlight into an optical conductor cable.

* Explanation of symbols for main parts of the drawings

1: optical conductor cable 2: hood member

3: therapeutic chair 11: optical conductor cable

15: light irradiation stand 16: stand

16a: upper portion of the pedestal 16b 16b: lower portion of the pedestal 16

17: conduit 18: holding member (support mechanism) (holding means)

20: outer cover 21: nut

22 connector 23 heat reflection filter

24: transparent cap 30: pin shaft (hinge shaft)

31, 32: semi-cylindrical body 31a, 31b: plate portion

33: axis 34: staple member

40: solar collector 41: the lens

42: solar direction sensor 43: support frame

44: first rotating shaft 45: the first motor

46: support arm 47: second axis of rotation

50: capsule 51: cylindrical gas part

52: help shape head

The present invention relates to a light irradiation stand capable of holding an optical conductor cable capable of transmitting light in any desired direction, in more detail than a light irradiation stand.

Recently, many suffer from gout, neuralgia, rheumatism, scars, fracture marks, or pain caused by unknown diseases.

Moreover, aging and aging of the skin are inevitable, and it progresses slowly from a relatively young age.

On the other hand, the present applicant has previously proposed to focus solar light or artificial light by a lens or the like, introduce the light into the optical conductor cable, and transfer the light to the desired place through the optical conductor cable.

The light transmitted in this way is used for the use of lighting guitars, for example, cultivation of plants and cultivation of chlorella.

In this process, it has been found that visible light, which does not include ultraviolet rays, infrared rays, or the like, enhances the biological response or prevents aging of the skin.

Moreover, there was a significant effect on the recovery and analgesic of gout, neuralgia, pressure sores, rheumatism, burn stimulation, skin disease, wound stimulation, fracture stimulation.

This excellent effect has been demonstrated by the applicant.

Further, based on the inventor's knowledge, the present applicant has previously proposed a light irradiation treatment apparatus capable of performing various treatments or cosmetics or promoting health.

The light irradiation treatment apparatus proposed by the applicant has an optical conductor cable, and sunlight or artificial light is introduced and transmitted at the end of the optical conductor cable.

White light, which corresponds to the visible light component of sunlight, has been transmitted as variously proposed by the applicant through an optical conductor cable.

The hood member is installed at the light emitting end of the optical conductor cable.

In carrying out the treatment, the patient sits on a chair and, in the manner described above, light containing visible light components is transmitted through the photoconductor cable and irradiated to the affected part of the patient.

As described above, since the light irradiated to the affected part of the patient is light corresponding to the visible light component of sunlight, it does not contain ultraviolet rays or infrared rays.

Thus, the treatment can be performed safely.

However, the above-described light irradiation treatment apparatus is very expensive because of its large scale.

The cost of using this device at home is enormous.

Conventional devices also require large spaces.

It is an object of the present invention to provide a light irradiation stand capable of irradiating light transmitted through an optical conductor cable in a desired direction.

Another object of the present invention is to provide a light irradiation stand that can be preferably used for home use.

Another object of the present invention is to provide a light irradiation stand which is inexpensive, easy to move, and can irradiate light in any desired direction without requiring a large place, and thus can be easily used.

EXAMPLE

1 is a block diagram for explaining an embodiment of the light irradiation treatment apparatus as proposed by the present applicant.

(1) in the figure is a photoconductor cable, at its end not shown, sunlight or artificial light is introduced and transmitted.

White light, which corresponds to the visible light component of sunlight, is transmitted through an optical conductor cable as the applicant has previously proposed in various ways.

(2) is a hood member provided at the light emitting end portion 1a of the optical conductor cable 1, and (3) is a treatment chair.

In carrying out the treatment, the patient sits on the chair 3, and the light composed of visible light components is transmitted through the optical conductor cable 1 and irradiated to the affected part of the patient in the manner described above.

As mentioned above, since the light irradiated to the affected part of a patient corresponds to the visible light component of sunlight, it does not contain an ultraviolet-ray or an infrared ray.

Thus, it is possible to safely carry out the treatment.

However, the light irradiation treatment apparatus described above is very expensive because it is large.

The cost of using this device at home is enormous.

Moreover, conventional devices will take up a lot of space.

2A and 2B are perspective views for explaining one embodiment of the light irradiation stand according to the present invention.

In FIG. 2A, reference numeral 11 denotes an optical conductor cable to which sunlight collected by a solar collector not shown is transmitted, and reference numeral 15 denotes a light irradiation stand according to the present invention.

The light irradiation stand 15 is mounted on a pedestal 16, at least one deformable conduit 17 installed perpendicular to the pedestal 16, and at an end of the conduit 17, to which the optical conductor cable 11 is attached. And a support mechanism 18 for attachably and detachably supporting.

In the use of the light irradiation apparatus, the end of the optical conductor cable 11 is supported by the support mechanism 18.

According to the present invention described above, the conduit 17 can be freely deformed and can maintain its state, so that the irradiation direction from the optical conductor cable 11 can be curved in any desired direction.

Therefore, the light radiation stand of the present invention can be easily used.

Moreover, when the stand is not used, the optical conductor cable 11 can be detached from the stand and conveniently placed in a small space to be high.

In another embodiment, shown in FIG. 2B, the pedestal 16 consists of two parts: 16a and 16b.

The portion 16b is composed of a pipe member, and the portion 16a is inserted into the pipe portion of the portion 16b to adjust the height of the stand by sliding the portion 16a inside the portion 16b up and down. Can be.

3 is a cross-sectional view for explaining an example of one end (light emitting end) of the optical conductor cable 11 shown in FIGS. 2A and 2B.

In the figure, reference numeral 11 denotes an optical conductor cable, 11a denotes a light emitting end of the optical conductor cable 11, 20 denotes an outer cover attached to a light emitting end of the optical conductor cable 11, and Nut, 22 is the connector, 23 is the heat reflection filter and 24 is the transparent cap.

As shown in FIG. 3, the nut 21 and the connector 22 are screwed into the part of the screw part 20a formed in the outer periphery part of the outer cover 20. As shown in FIG.

After screwing in, a tool that fits into a specially shaped hole is inserted into the similarly shaped holes 21a and 22a drilled into the nut 21 and the connector 22, respectively, whereby the nut 21 and the connector ( 22) are firmly fixed to opposite sides.

In this way, the nut 21 and the connector 22 are firmly fixed to the ends of the optical conductor cable 11.

After the nut 21 and the connector 22 are fixed, they cannot be detached from the optical conductor cable 11 without using the above-mentioned special tool, and thus safety is ensured.

After the connector 22 is fixed to the end bushing of the optical conductor cable 11 in this manner, the transparent cap 24 is attached to the connector 22 through the heat reflection filter 23 as necessary.

Light emitted from the end portion 11a of the optical conductor cable 11 is irradiated through the transparent cap 24.

4 is a perspective view showing an embodiment of a holding member (support mechanism) 18 for holding the optical conductor cable 11 shown in FIG.

The holding member 18 is a flat plate formed in the semicylindrical bodies 31 and 32 which can be rotated about the pin shaft 30, and the end portions of these semicylindrical bodies 31 and 32. It is comprised by the chuck member 34 which is provided in either the part 31a or 32a, and has a rectangular cross-sectional shape once opened so that it can rotate about the axis 33. As shown in FIG.

As is known, the semi-cylindrical bodies 31 and 32 are opened by pivoting around the hinge shaft 30.

As described above, the end portion (area A in FIG. 3) of the optical conductor cable 11 having the connector 22 securely fixed to a cylindrical portion formed of these semi-cylindrical bodies 31 and 32. Is inserted.

Thereafter, these semi-cylindrical bodies 31 and 32 are closed, and the chuck member 34 is rotated around the shaft 33, so that each of the flat plate portions of the semi-cylindrical bodies 31 and 32 is rotated. 31a and 32a are retained by a rectangular portion in which one of the chuck members 34 is open.

In this way, the tip of the optical conductor cable 11 is supported detachably and detachably by the support mechanism 18.

5 is an overall perspective view showing an embodiment of a solar collector for introducing sunlight into the optical conductor cable 11 described above.

In the figure, reference numeral 50 denotes a capsule, 51 denotes a cylindrical gas part, and 52 denotes an assisting head of a transparent body.

Capsule 50 of the solar collector is composed of a gas unit 51 and the head (52).

As shown in FIG. 5, the solar collector 40 is housed in a capsule 50 in use.

The solar light collecting device 40 integrally supports a plurality of lenses 41, a solar light direction sensor 42 for detecting the direction of the sun, and a lens 41 and a sensor 42. A support frame 43 for rotation, a first rotating shaft 44 for rotating the support frame 43, a first motor 45 for rotating the first rotating shaft 44, and a lens ( 41, the support arm 46 for supporting the sensor 42, the support frame body 43, the first rotational shaft 44 and the first motor 45, and perpendicularly intersect the first rotational shaft 44. It consists of the 2nd rotation shaft 47 provided so that it may rotate, and the 2nd motor which is not shown in FIG. 5 for rotating the 2nd rotation shaft 47. As shown in FIG.

The direction of the sun is detected by the sunlight direction sensor 42, the detection signal of which is always directed to the sun by controlling the first and second motors, and focused by the lens 41 Sunlight is introduced into the optical conductor cable, not shown in FIG. 5, and its light receiving end is formed at the focal position of the lens 41. FIG.

The light receiving end of the optical conductor cable 11 shown in FIG. 2 is not shown in FIG.

The introduced light beam is arbitrarily transmitted to the desired place through the optical conductor cable.

Regarding the above-described solar collector, the present inventors have proposed various types of apparatuses.

Each of these devices has one lens, several lenses (2 to 4) or a plurality of lenses (for example, about 7, 19, 61, 196, or 1600) depending on the application. .

6 is a detailed view for explaining the introduction of light corresponding to the visible light component of sunlight into the optical conductor cable 11.

In the figure, reference numeral 41 denotes a lens system composed of a Fresnel lens or the like, and the sunlight focused by the lens system 41 is introduced into the optical conductor cable as described above.

When sunlight is connected by the lens system, the sun image has a circumference portion including a plurality of light components composed of a central portion composed of almost white light and a wavelength corresponding to the focal position of the lens system.

That is, when the sunlight is connected by the lens system, the position of the lens system and the size of the sun image are changed according to the wavelength of the light beam.

For example, short wavelength blue light produces a solar image with a diameter D ₁ at the P ₁ position.

In addition, green light produces a solar image of diameter D ₂ at the P ₂ position and red light produces a solar image of diameter D ₃ at the P ₃ position.

Therefore, as shown in FIG. 6, when the light receiving end of the optical conductor cable is placed at the P ₁ position, it is possible to collect sunlight containing many blue components in its circumference, and when it is placed at the P ₂ position, You can collect the sun's rays, which contain many green rays in the area, and when you're in the P ₃ position, you can collect the sun's rays, which contain many red elements around it.

In each case, the diameter of the photoconductor cable is determined by the light components collected.

For example, its diameter becomes D ₁ , D ₂ and D ₃ depending on the color of light to be emphasized, that is, blue, green and red.

In this way, it is possible to reduce the consumption of the optical conductor cable, thereby collecting the sunlight which contains a large amount of light components of the desired color most efficiently.

Furthermore, as shown in FIG. 6, when the diameter of the light receiving end surface of the optical conductor cable is enlarged to D ₀ , visible light including all wavelength components can be collected.

As is apparent from the above description, according to the present invention, it is possible to irradiate light in any desired direction without incurring a large amount of space, which is inexpensive, easy to carry, and thus very easy to use. It is possible to provide a stand.

Claims (2)

As the light irradiation stand 15 for supporting the optical conductor cable 11 to emit the light transmitted through the optical conductor cable 11 at the end of the optical conductor cable 11, this light irradiation stand 15 Is a pedestal 16, one or more flexible flexible conduits 17 which are installed vertically on top of the pedestal 16, and optical conductor cable retaining means installed at the front end of each of the conduits 17. The light irradiation stand characterized by consisting of (18). 2. The pedestal (16) according to claim 1, wherein the pedestal (16) consists of two parts (16a) and (16b), the lower portion (16b) is made of a pipe member, and the upper portion (16a) is up and down to adjust the height of the stand. A light irradiation stand, characterized in that it is made of a pipe or hard metal that can be inserted into the lower portion (16b) so as to slide in.