KR100564822B1 - Photo Biotic Rays Shower Clinic System - Google Patents

Abstract

The present invention relates to a light energy optical bath, comprising: a hollow housing having an opening formed on an upper surface thereof; An ocher wall interposed on an outer wall of the housing; A functional light energy emitter lamp embedded in the housing; A metal net formed on the inner lower surface of the housing to be spaced apart from each other between the lamp and the ocher wall; A bracket coupled to the metal mesh; A functional light energy emitter glass plate material having at least one through hole mounted on an upper end of the bracket; It consists of a functional light energy shower system including a controller provided to control the lamp, and dry to directly radiate far infrared rays and functional light energy to the affected part of the user in an air environment purified by Ag + ions, anions and titanium oxide (TiO₂). It is a structured left bath functional light energy heat treatment device.

Left bath, far infrared ray, anion, Ag + ion, TiO₂, photo bath, photocatalyst, light shower system,

Description

Light Energy Solar Bath {Photo Biotic Rays Shower Clinic System}

1 is a perspective view showing a photo bath according to the present invention.

FIG. 2 is a combined perspective view of FIG. 1.

3 is a cross-sectional view of FIG. 1.

4 and 5 are photographs showing the results before and after the E. coli antibacterial test by the silver plated metal mesh.

<< Explanation of symbols for main part of drawing >>

10 housing 12 cover

12a: opening 14: base frame

14a, 22a: through hole

20: base for light bath 22: housing base

30: ocher wall

40: light source means 42: socket portion

44: lamp

50 support member 52 prop

54: metal mesh 56a, 56b: support

58: bracket

60: glass plate 62: through hole

80: combined casing

90 controller 92 panel portion

94: function switch

The present invention relates to a functional light energy photo bath, and more particularly, to radiate heat by directly radiating far-infrared rays and anions directly to the affected part of a user in a clean air environment by photocatalysis of Ag + ions, anions and titanium oxide (TiO₂). The present invention relates to a dry bath-type thermal therapy device composed of a functional light energy shower system capable of implementing the treatment.

Conventional left-handed thermal therapy device mainly consists of a wet or hot liquid that heats solid or liquid medicines with a heat source to directly contact a user's skin, such as a female organ, with a treated liquid or expose it to a fumigation condition so that heat can penetrate the affected area. have.

Here, the wet type treatment device is a heating device, a water storage device, a drug treatment device, a drying device, etc., and its structure and configuration are complicated, so that the manufacturing cost is high, and in order to use it safely and hygienically, microorganisms are reproduced before and after use. There was a hassle and difficulty to keep clean and dry. In addition, since the user's environment of use is a wet environment before and after the most suitable temperature for propagation of various bacteria exposed to the atmosphere, there was a risk of being exposed to the propagated bacteria during use.

Therefore, this wet type of treatment device has a problem that can add to the affected part of the patient or even cause a secondary infection in the warm bath treatment process.

An object of the present invention created to solve the above problems, the photocatalyst of anion, Ag + ion and TiO₂ by using a radiator emitting far infrared rays and anions, a emitter generating Ag + ions and a titanium oxide (TiO₂) photocatalytic radiator The functional light energy shower system is configured to improve skin breathing in the air environment where the area around the affected area is clean and to absorb far infrared rays, which are 3 to 15 ㎛ deep, deeply in the affected area. Therefore, to solve the trouble of using and to provide a functional light energy photobath that can always be used safely and hygienically.

An object of the present invention, the housing of the hollow structure formed with an opening on the upper surface; An ocher wall interposed on an outer wall of the housing; A functional light energy emitter lamp embedded in the housing; A metal net formed on the inner lower surface of the housing to be spaced apart from each other between the lamp and the ocher wall; A bracket coupled to the metal mesh; A functional light energy emitter glass plate material having at least one through hole mounted on an upper end of the bracket; It can be achieved by a photobath, characterized in that consisting of a functional light energy shower system including a controller provided to control the lamp,

Preferably, the light source means of the present invention comprises a socket portion mounted on the inner bottom surface of the housing, and a lamp mounted on the socket portion.

More preferably, the present invention further comprises a base frame interposed between the socket portion and the inner bottom surface of the housing.

More preferably, the present invention further comprises at least one vent on the bottom surface and the base frame of the housing to increase the convection effect of the air inside the housing.

More preferably, the lamp of the present invention comprises a precursor glass containing a gemstone [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ )] component having excellent far-infrared and anion emissivity.

More preferably, the present invention is a bracket attached to the upper end of the metal mesh and the metal mesh formed on the inner base frame of the housing so as to be spaced apart from the middle of the lamp and the ocher wall, and the glass plate material It comprises a, but the surface of the metal mesh and the bracket is coated with silver particles having a diameter of 10nm.

More preferably, the present invention further comprises a lower support interposed between the upper surface of the base frame and the lower end of the metal mesh.

More preferably, the present invention further includes an upper support interposed between the upper end of the metal mesh and the lower portion of the bracket, wherein the bracket is coupled to the upper support.                         

Preferably, the present invention is coated with titanium oxide (TiO₂) particles having a diameter of 10nm excellent in anti-fouling, antibacterial, and deodorizing function by the photocatalytic effect of the light energy of the AMP between the lower end of the opening and the upper end of the ocher wall of the housing. It further comprises a coupling casing.

Preferably, the glass sheet of the present invention is coated with a powder of jade [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ )] having excellent far-infrared and anion emissivity.

Preferably, the controller of the present invention comprises a plurality of function switches for adjusting the intensity control, power supply or release of the light source means, and a panel unit for displaying a state corresponding to the operation of the function switch.

Preferably, the present invention further comprises a removable seat with a lower end inserted into the opening.

Hereinafter, the configuration of the present invention with reference to the drawings in detail.

1 is a perspective view showing a photo bath according to the present invention, Figure 2 is a combined perspective view of Figure 1, Figure 3 is a cross-sectional view of FIG.

1 to 3, the optical bath according to the present invention, the light source means 40 and the metal mesh 54, the glass plate 60, the ocher wall 30 and the coupling casing (built in the housing 10) Functional light energy generated by 80) is configured to be directly radiated to the affected part of the user through the space for the bath bath 20.

The housing 10 of the present invention can be variously manufactured in any shape, for example, a polygon or a cylindrical shape and a combination thereof, and is limited to a polygon in this embodiment. Here, the lid 12 which can be opened and closed is attached to the upper part of the housing 10, and the photo bath base 20 of a detachable structure is inserted in the opening part 12a formed in the center part of the lid 12. As shown in FIG.

And the ocher wall 30 is interposed in the wall of the housing 10.

Here, a method for manufacturing the ocher wall 30 excellent in breathability, far infrared rays and anion radiation is briefly described as follows.

1. Grind high quality ocher powder about 200 mesh and mix it with a certain amount of water and shape it into press form manufacturing method in plate shape.

2. Allow the ocher molding to air dry in the shade.

3. Dip the dried ocher molding into the ocher fluid and dry it in the shade again.

Here, the ocher oil is prepared by stirring and mixing 95 to 99% of 200 mesh loess powder and 1 to 5% of 300 mesh gemstone [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ )] powder.

4. After the latex treatment, the naturally dried ocher molded product is calcined at a temperature of about 750 to 800 ° C. to prepare a final ocher wall.

In addition, a base frame 14 having a hollow structure for supporting the light source means 40 is mounted on the inner lower surface of the housing 10. More specifically, the base frame 14 and the housing base 22 are formed with at least one through hole 14a, 22a corresponding to each other.

Here, the light source means 40 is composed of a socket portion 42 provided on the upper surface of the base frame 14 as described above, and a lamp 44 mounted to the socket portion 42.

In particular, the lamp 44 of the present invention uses a precursor glass containing a jade (Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ )] powder to improve the emissivity of far infrared rays and anions.
More specifically, the lamp 44 has a weight composition ratio of 90 to 93% of a glass raw material powder consisting of silica sand, soda ash, limestone, aluminum hydroxide, and carbonate powder; Coral [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ ] powder having a particle size of about 300 mash, mixed and melted at a weight composition ratio of 10 to 7% to form a light bulb, and used as a general lighting bulb glass. At the same time, far infrared rays and minus ions of radiation [W / cm ² ] are generated in proportion to the square of the surface temperature of the bulb glass, and the wavelength range when the bulb glass surface temperature is 183 ° C. And a light bulb made of far-infrared and anion emitter bulb glass having a Spectral Radiance [W / cm ² · μm · sr] of 3 to 14 µm or more from "1.29E-3" to "7.646E-3". .

The upper and side portions of the light source means 40 are provided with a glass plate 60 which is heated by the lighting of the lamp 44 to emit far infrared rays and anions and a metal mesh 54 which generates Ag + ions. In order to support 60, a metal mesh 54 is embedded in the housing base 22 so as to be spaced apart from the edges of the light source means 40 and the base frame 14.

In particular, the glass plate 60 of the present invention uses a glass coated with a jade (Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ )] powder to improve the emissivity of far infrared rays and anions.

The support member 50 may be formed of a metal mesh 54 so as to support the metal mesh 54 and the glass plate 60 which are molded and mounted to be spaced apart from the base frame 14 attached to the central portion of the inner bottom surface 22 of the housing 10. 54) is configured to include a bracket 58 attached to the upper end portion. Here, the surfaces of the metal mesh 54 and the bracket 58 are coated with silver particles having a diameter of 10 nm to generate far infrared rays, anions and Ag + ions.

In addition, the support member 50 of the present invention is provided with lower and upper supports 56a and 56b respectively coupled to the upper and lower portions of the metal mesh 54 so that the metal mesh 54 is safely embedded in the housing 10. It is. Accordingly, the lower support 56a is interposed between the upper surface of the base frame 14 and the lower end of the metal mesh 54, and the upper support 56b is between the upper end of the metal mesh 54 and the bracket 58. Intervened.

Here, the bracket 58 is attached to the upper support 56b.

Moreover, the metal mesh 54 serving as the supporting member 50 of the present invention is heated by the lighting of the lamp 44, and the metal mesh coated with silver particles having a diameter of 10 nm in which a large amount of far infrared rays and anions and especially Ag + ions are radiated. (54) is attached. Here, the metal mesh 54 is molded and mounted so that the same surface is spaced apart, and the light source means 40 is accommodated therein.

As described above, the glass plate 60 has a jade [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ ]] component on the surface of the glass so that the far infrared rays and anions are radiated by the heat energy generated when the light source means 40 is turned on. Coated. In addition, the glass plate 60 is spaced apart from the bottom surface of the cover 12 of the housing 10 by a predetermined distance, and is also spaced apart from the surface of the ocher wall 30 of the housing 10. In addition, one through hole 62 is formed in the center portion of the glass plate 60.

In addition, the photo bath of the present invention has a coupling casing 80 is formed between the lower end of the inner opening 12a of the housing 10 and the upper end of the ocher wall 30, and the lamp 44 on the inner surface of the casing 80. Titanium oxide (TiO₂) particles with a diameter of 10 nm with excellent anti-corrosion, antibacterial, and deodorizing functions are coated by photocatalytic action with light energy.

The controller 90 provided on the side of the housing is a panel for displaying a function switch 94 for controlling the intensity of the light source 40, applying power or de-applying, and a state corresponding to the operation of the function switch 94. It is comprised including the part 92.

Referring to the operation relationship of the optical bath according to the present invention having the configuration as described above is as follows.

1. The user operates the function switch 94 of the controller 90 of the optical bath of the present invention to apply power to increase the internal temperature of the housing to about 40 ° C.

2. After the user sits bare skin on the pedestal 20 of the bath basin of the present invention, the user adjusts the intensity control function switch 94 of the light source means 40 to adjust a bath atmosphere suitable for him or her, The ambience of the photo bath treatment is controlled by the program installed in the 90).

Here, when the lamp 44 is turned on, the surface temperature of the glass plate 60 and the metal mesh 54 is increased by thermal energy, and at the same time, the temperature inside the housing is raised, thereby heating the ocher jar wall surface 30 and the coupling casing 80. The photocatalytic action of anion, Ag + ion and TiO₂ generated from each material directly radiates far infrared rays, anions and functional light energy to the area to be treated by the user. In addition, the present invention, in particular, the Ag + ions generated in the metal mesh 54 coated with silver particles having a diameter of 10 nm, far infrared rays and anions generated inside and outside the glass plate 60 and the ocher wall 30 and Photocatalytic action of titanium oxide (TiO₂) applied to the coupling casing 80 purifies the outside air inside the housing 10 and around the housing 10, resulting in functional light energy in a therapeutic environment in which the air is purified. It is a therapeutic means that can expect the maximum therapeutic effect under the best treatment environment because the photo bath is achieved.

3. When the bath is completed, the user stands up from the bath of the present invention and de-energizes the power to complete all the operation relations.

Photovoltaic bath (left bath) according to the present invention having the configuration and operation as described above has been subjected to the antibacterial test by the anion emission amount and the metal network (54) at the Korea Institute of Construction Materials Testing and Research Institute for Far-Infrared Application Evaluation for the actual performance test The results are shown in Table 1 and Table 2.

The photo-bath was confirmed to release 108 anions per unit volume by the KICM-FIR-1042 test method.

Here, the test conditions are briefly described, and the measurement conditions are 50 cm between the charge particle measuring device and the anion generating bulb, and the measurement time is the result of measuring 20 minutes after 40 minutes after the power of the photo bath is turned on. It was tested at 22 ℃, 58% humidity and 86 / cc condition in the air. The anion released from the measurement object (photo bath) was measured and expressed as the number of ions per unit volume.

In the above results, the photobath was measured for 20 minutes in the anion 86 / cc state in the air, and it was confirmed that the anion was increased to 108 (ION / cc) per unit volume. It turned out.

In addition, the metal mesh (silver plated copper mesh) of the present invention was used in the test method KICM-FIR-1002 initial concentration 400 (CFU / 40p) of the strain used after 24 hours in FIG. 4 concentration 2 (CFU / 40p) was significantly reduced as shown in Figure 5 as shown in Table 2.

Here, briefly explaining the test conditions, the strain used is Escherichia coli ATCC 25922, "BLANK" is measured without the sample. In addition, "CFU" stands for "Colony Forming Unit", "40p" means "0.04mL", the number of bacteria on the medium is calculated by multiplying the dilution factor.

In the above results, the metal network according to the present invention was measured after 24 hours at the initial concentration of 400 (CFU / 40p) of the strain used, and was significantly reduced to 99.5% of bacterial reduction rate to the concentration of 2 (CFU / 40p) of the strain used. It was confirmed that the antibacterial function was very excellent.

Although the present invention described above is limited to one embodiment, the present invention is not limited thereto, and the present invention may be easily modified by those skilled in the art without departing from the scope of the present invention. It is obvious that it belongs to the technical idea.

The present invention having the above configuration has the following advantages.

First, the present invention is free from any risk of disorder or side effects.

Second, the configuration of the present invention has the convenience of use that requires no prior preparation in actual use.

Third, the configuration of the present invention is a hygienic structure that does not require frequent cleaning to implement a clean use atmosphere before and after use in a dry type rather than a wet type.

Fourth, the configuration of the present invention has the effect that the intensity control of the light bath is implemented in real time by the control of the light source means.

Fifth, the present invention has the advantage that the configuration is very simple and easy to maintain. In particular, the photo bath of the present invention is limited to the part that needs maintenance, so that even the inexperienced person can always implement the optimal photo bath atmosphere.

Sixth, the configuration of the present invention is far infrared rays and negative ions and Ag + ions are directly radiated to the skin of the user to improve the skin breathing while far infrared rays are deeply radiated deep in the affected area is excellent thermal treatment effect.

Seventh, the present invention is a dry type does not irritate the skin or affected areas, there is no user restriction, such as age, sex, the elderly, patients.

Eighth, the configuration of the present invention is particularly suitable for the elderly, patients and children with poor immune function because the photo bath is made in a state in which a clean atmosphere by Ag + ions, anions and TiO 2 photocatalysis is maintained.

Claims (8)

A hollow housing 10 having an opening 12a formed in an upper surface thereof; An ocher wall 30 interposed on an outer wall of the housing 10; A light energy emitter lamp (44) embedded in the housing (10); A metal mesh (54) formed on an inner lower surface of the housing (10) so as to be spaced apart from each other between the lamp (44) and the ocher wall (30); A bracket 58 coupled with the metal mesh 54; A light energy emitter glass plate member 60 having at least one through hole 62 mounted to an upper end of the bracket 58; A light bath comprising a light energy shower system comprising a controller (90) provided to control the lamp (44). The method of claim 1; The housing 10 exterior walls of ocher wall 30 has an ordinary press method particles of a loess molding made of a size of 200 mesh of yellow earth powder 95 to 99% and a particle size of 300 mesh jinok [Ca ₂ Mg interposed in ₅ Si ₈ O ₂₂ (OH) ₂ )] 1 to 5% of the powder by stirring and mixing in an emulsion prepared by dipping into the emulsion, and then naturally dried ocher moldings are calcined at a temperature of 750 to 800 ℃ characterized in that the final production Solar bath. The method of claim 1, The lamp 44 has a weight composition ratio of 90 to 93% of a glass raw material powder consisting of silica sand, soda ash, limestone, aluminum hydroxide and carbonate powder; It is formed in the shape of a bulb by mixing and melting at a weight composition ratio of 10 to 7% of the jade jade [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ ] powder having about 300 mash, When used as a general lighting bulb glass, at the same time as the illumination generates far infrared rays (Minus ion) of radiation [W / cm ² ] in proportion to the square of the surface temperature of the bulb glass, When the surface temperature of the bulb glass is 183 ° C, the far-infrared radiance [W / cm ² · µm · sr] in the wavelength range of 3 to 14 µm is between "1.29E-3" and "7.646E-3." A photo bath comprising: a bulb made of far infrared rays and anion emitter bulb glass above. The method of claim 1, Forming and mounting the metal mesh 54 on the inner bottom surface of the housing 10 so as to be spaced apart from each other between the lamp 44 of the light source means 40 and the ocher wall 30, It comprises a bracket 58 attached to the upper end of the metal mesh 54 to support the glass plate material 60, The surface of the metal mesh (54) and the bracket (58) is coated with a silver particle having a diameter of 10nm. The method of claim 1, The glass plate (60) is a photo-bath, characterized in that the coating of the fine jade [Ca ₂ Mg ₅ Si ₈ O ₂₂ (OH) ₂ )] powder with excellent infrared and anion emissivity. The method of claim 1, Coupling coated with titanium oxide (TiO₂) particles having a diameter of 10 nm excellent in anti-fouling, antibacterial and deodorizing functions by photocatalytic action of the light energy of the AMP 44 between the lower end of the opening 12a and the upper end of the ocher wall 30. A photo bath further comprising a casing (80). The method of claim 1, The controller 90, A plurality of function switches 94 for adjusting the intensity of the light source means 40, applying power, or releasing the light; and a panel unit 92 for displaying a state corresponding to the operation of the function switch 94. A photo bath, characterized in that configured. The method of claim 1, A photo bath according to claim 1, further comprising a seat for a photo bath having a lower end inserted into the opening (12a).

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