KR101965331B1 - A nail grinder having antibacterial effects - Google Patents

Abstract

A structure for enhancing an antibacterial property in an instrument used for the beauty of a nail is disclosed. The present invention has a far-infrared radiation type gloss pattern and body that can remove germs and contamination of the hands and nails even after the glossy and cosmetic work is performed through friction with the surface of the nail, thereby providing hygienic and efficient nail care work .

Description

A nail grinder having antibacterial effects < RTI ID = 0.0 >

The present invention relates to a structure in which antibacterial properties are enhanced in an instrument used for the beauty of a nail.

Nail polish is a kind of beauty tool that polishes and cleans nails and polishes the surface of nails. It is also called emery board, nail pile and nail buffer. In recent years, it is common to print the surface of the nail polish with various colors and patterns so that the appearance of the nail polishers is good within a range that does not lose the polishing function.

FIG. 1 is a perspective view showing a conventional nail polish tool, and FIG. 2 is a sectional view taken along line B-B of FIG. 1. Referring to FIGS. 1 and 2, a conventional nail polish will be described.

As shown in FIGS. 1 and 2, a conventional nail polish N has a plastic plate 1 having a predetermined elasticity and rigidity to facilitate gripping during operation, A second double-sided tape 2 adhered on the sponge 3, a sponge 3 for relieving the pressure so that excessive pressure is not applied to the nail during work, a second double-sided tape 4 adhered on the sponge 3, A transfer sheet 5 for forming a layer and an abrasive layer 6 or a gloss layer 7 applied on the transfer sheet 5 and cured. At this time, the polishing layer 6 is composed of a mixture of fine stone powder, water, a bond, a perfume and a foaming agent, and the polishing layer 7 is made of a mixture of silicone, water, a bond, a fragrance and a foaming agent.

The conventional nail polish 1 constructed as described above is prepared by applying the polishing layer 60 or the gloss layer 70 mixture by the method of roll coating, spray coating or silk printing and heating Dried to cure the mixture, and then sublimed and transferred at 110 to 200 ° C to form a picture layer. However, since the conventional nail polishers 1 are subjected to heat at high temperature during the heat drying and sublimation transfer process, the picture layers are discolored or discolored due to the heat, so that various colors and patterns can not be expressed clearly.

In order to overcome the disadvantages described above, a polishing layer or a glossy layer is applied to a buffer sponge, and then a picture layer is printed on the surface with various colors and patterns. However, in order to perform printing on the surface of a sponge having a predetermined elasticity, an ink jet method for directly spraying ink must be used. Such an ink jet method has a problem that the printing speed is slow and the drying time is long and the production amount is reduced. In addition, a sponge having a certain thickness or more is used so that a part of the polishing layer or the polishing layer can permeate and luster in a short time, and such a sponge is difficult to recycle at the time of disposal and causes pollution.

In particular, in the case of a conventional device for nailing a nail or a toenail, it easily comes into contact with microbes which are always present in the hands, nails, feet or toenails and comes into contact with each other, thus causing a serious problem of contamination in hygiene. This is because even if water washing, light cleaning, or heat sterilization cleaning is performed from time to time, the contamination due to the use of the product is permanently incurred, and thus it is vulnerable to hygiene problems.

Korean Patent Registration No. 10-1043651

SUMMARY OF THE INVENTION The present invention has been made to solve the above-described problems, and an object of the present invention is to provide a radiographic apparatus and a method for radiating far infrared rays, The present invention is to provide a nail polish device having antimicrobial properties that can maximize the amount of far-infrared rays emitted through a far-infrared ray processing process on the entire part thereof and thereby store the device in an aseptic state without any disinfection or washing operation.

As a means for solving the above-mentioned problems, in the embodiment of the present invention, as shown in Figs. 3 and 4, a three-dimensional structure body 10 having one surface and another surface facing the one surface, And a gloss pattern part (20) including a plurality of unit gloss patterns formed on the one surface or the other surface, and a far-infrared ray emitting material inside the body part, .

In this case, the unit gloss pattern of the gloss pattern portion is realized by processing the surface of the body portion 10, and the height of the unit gloss pattern on the surface of the body portion is in the range of 0.01um to 50um And the uppermost portion on the surface of the body portion may have an attachment structure.

Further, the unit gloss pattern may be arranged such that the occupancy rate of the unit gloss pattern, which is the occupation ratio of the exposed surface of the body portion and the unit gloss pattern, is 80 to 90% based on the unit area of the gloss pattern portion. .

The far infrared ray emitting material contained in the body portion of the nail polisher having antibacterial function according to the embodiment of the present invention may be at least one selected from the group consisting of jade, Bead structure of quartz, porphyry, gneiss, acid tuff, pyloric tuff tuff, loess, clay, scoria, charcoal, germanium, elvan, tourmaline or ceramics and 5 to 10 parts by weight based on the main raw material constituting the body part .

In addition, the unit gloss pattern of the nail polisher having antibacterial function according to the embodiment of the present invention is a three-dimensional structure in the form of a conical radiation structure, and the angle between the side surface and the bottom surface is 48 to 52 degrees, And the protruding structure having a diameter larger than the height of the surface of the protruding structure.

The body portion and the gloss pattern portion are charged together with a far ultraviolet ray emitting mineral powder for processing having a size of 5,000 mesh or more in a hermetically sealed chamber capable of applying a high pressure and a high pressure of 8 atm or higher is charged into the chamber It is preferable to be able to be embodied as a nail polish device having an antibacterial function by applying a treatment that has been treated for more than a certain period of time.

The body part 10 is a plate-like structure, and a glass plate structure having a handle 25 with a pattern removed on one side of the luster pattern part 20 is applied, Mechanisms may also be implemented.

Further, the unit gloss pattern formed on one surface of the body part may be formed by directly processing the body part.

In addition, a zirconia-alumina coating layer may be formed on the surface of the body portion, and materials such as MnO ₂ , Fe ₂ O ₃ , and CuO, which are ceramics of transition element oxides, may be coated on the coating layer.

According to the embodiment of the present invention, it is possible to provide a far-infrared ray-type glossy pattern and a body that can remove bacteria or pollutants in the hands and nails even after the glossy beauty work is implemented through friction with the surface of the nail, It is possible to implement an effective nail-beauty work.

In addition, since the substance emitting the far infrared ray material is contained in the body portion, it is possible to maintain the effect of the permanent far-infrared ray emission, and further, the far-infrared ray emission amount can be maximized through the far- It also has the effect of storing the equipment in aseptic condition without washing.

1 and 2 are views showing the structure of a conventional nail polish polishing apparatus.
3 is a perspective view illustrating a structure of a nail polish device having an antibacterial function according to an embodiment of the present invention.
FIG. 4 is an enlarged conceptual view of the unit gloss pattern in the 'X' region of FIG. 3. FIG.
Figure 5 is an inspection report for the structure of the present invention having the structure of Figure 3, in accordance with an embodiment of the present invention.
FIG. 6 is a schematic side view of a far-infrared ray processing apparatus according to an embodiment of the present invention, and FIG. 7 is a conceptual diagram of a side sectional view of FIG. FIG. 8 illustrates an actual system implementation of a far-infrared ray processing apparatus according to an embodiment of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings, which will be readily apparent to those skilled in the art. The present invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. In order to clearly explain the present invention in the drawings, parts not related to the description are omitted, and similar parts are denoted by similar reference numerals throughout the specification.

3 is a perspective view showing a structure of a nail polish device having antibacterial function according to an embodiment of the present invention (hereinafter referred to as 'the present invention'). FIG. 4 is an enlarged conceptual view of the unit gloss pattern in the 'X' region of FIG. 3. FIG.

3 and 4, the present invention relates to a three-dimensional structure body 10 having one surface 12 and another surface 14 opposite to the one surface, And a gloss pattern unit 20 including a plurality of unit gloss patterns, and the far infrared ray emitting material is contained in the body unit.

The body portion 10 may include a three-dimensional structure including a glossy pattern portion 20 including a plurality of unit gloss patterns 5 on one surface thereof, and may be considered to be included in the embodiment of the present invention. In the example, a plate structure will be described as a preferred embodiment.

The body 10 may be a glass substrate, or more specifically, a tempered glass substrate. In some cases, the material may be formed of a material including a ceramic material. Particularly, the present invention is characterized in that a far infrared ray material can be contained in the raw material in the process of processing the body portion 10. [

The far-infrared ray material may be selected from the group consisting of jade, giant stone, sericite, kaolin, bentonite, feldspar, boulderite, auburnite, serpentinite, granite, quartz, porphyry, gneiss, acid tuff, pyloric tuff, , Charcoal, germanium, elvan, tourmaline or ceramics. The content of the far-infrared ray material may be 5 to 10 parts by weight based on the main raw material constituting the body part. The content of the far infrared ray material is preferably 5 to 10 parts by weight in order to uniformly emit the far-infrared ray according to the size of the equipment to secure an optimum antimicrobial rate against the input cost, The sufficient amount of far-infrared radiation can be ensured even if the content of the base body is 5 to 10 parts by weight based on the total weight of the body part.

The far infrared ray material itself can emit far-infrared rays. In one preferred embodiment of the present invention, the light ray ceramic particles having a diameter of 0.01 to 3 mu m or the diameter of 0.01 to 7 um can be applied .

3 and 4, the present invention can be embodied as a structure that is integrally formed with a structure protruding upward from the surface of the body 10. [ More specifically, the unit gloss pattern of the gloss pattern portion is realized by processing the surface of the body portion 10, and the unit gloss pattern is implemented in a range of 0.01 to 50 um of the height of the surface of the body portion . If the height of the surface of the body exceeds 0.01 袖 m to 50 袖 m, the glossiness of the fingernail is remarkably reduced and the fine damage of the fingernail may occur. In the category below this range, I will not.

Furthermore, it is preferable that the uppermost portion on the surface of the body portion is realized as a structure having an attachment. As an example of such a structure, a conical radiation structure can be applied.

4, the conical radiation structure 5 can be realized as a conical structure in which the angle formed by the side surface and the bottom surface of the conical radiation structure is 48 degrees to 52 degrees, Infrared rays emitted from the far-infrared radiation material on the surface of the radiation apparatus or the inside of the present invention. As the number of the conical radiation structures (5) increases, the emission rate of the far-infrared rays is increased by 0.2 to 0.5 times per one.

In addition, when the angle between the side surface and the bottom surface of the conical radiation structure of the conical radiation structure 15 is out of the range of 48 to 52 degrees, the emission efficiency is reduced by about 50 to 60% even in the same conical structure.

In particular, in the present invention, the unit gloss pattern may be formed so that the pattern occupancy rate, which is the ratio occupied by the exposed surface of the body portion and the unit gloss pattern, is in the range of 80 to 90% . Such a pattern density maximizes far-infrared emission efficiency, but also exhibits a function of allowing foreign matters to easily fall between the pattern and the pattern.

Also, the body 10 of the present invention may be realized as a glass plate structure having a plate-shaped structure and a handle 25 with a pattern removed on one side of the gloss pattern 20. Such a handle 25 is also a part of the body part, and even after the work is carried out by hand, the contamination source can be naturally antifungal by far-infrared ray emission.

Further, in the present invention, the unit gloss pattern formed on one surface of the body part may be realized by directly processing the body part. Therefore, the far-infrared ray emission efficiency can be more uniformly improved due to the structure that the far-infrared ray material is contained in the unit gloss pattern itself.

In addition, in the embodiment of the present invention, the surface of the body portion may be treated with a structure in which substances such as MnO ₂ , Fe ₂ O ₃ , and CuO, which are ceramics of transition element oxides, are coated on the surface of zirconia and alumina to increase the far- There is also water. As such a coating material, zinc oxide, potassium oxide, calcium oxide, boron oxide, magnesium oxide, aluminum oxide, silicon oxide, manganese oxide, copper oxide, iron oxide, zirconium oxide, cobalt oxide, At least one of titanium, molybdenum oxide, carbonaceous material, barium oxide, lithium oxide, clay, Talc and combinations of two or more selected from these may be applied.

Particularly, the present invention relates to a method for manufacturing a high-pressure ultraviolet ray-emitting material, comprising the steps of charging the entire body portion and the gloss pattern portion together with a far ultraviolet ray-emitting mineral powder for processing having a size of 5,000 mesh or more in a hermetically- The high pressure is treated for 1 hour or more so that the emission rate of the far infrared ray can be emitted from the raw material of the body part, that is, the surface of the glass material.

Figure 5 is an inspection report for the structure of the present invention having the structure of Figure 3, in accordance with an embodiment of the present invention. The width and length of the body portion were machined to a size of 9 cm * 1.3 cm and the thickness of the neck was 2 mm.

The area of the gloss pattern area is 6cm * 1.3cm in width * length, and the unit gloss pattern is conical type radiation pattern, and the pattern occupancy rate is 85%. (The angle between the side and bottom of the conical radiation structure is 52 degrees Diameter, 2.5 μm in diameter, and 5 μm in height), the raw material contains 2 to 3 μm of non-woven particles, and the far-infrared emissivity is measured.

It was measured by the KIFA-FI-1005 test method as a result of measurement by the Korea Far Infrared Application Evaluation Institute of the Korea Infrared Association. The measurement was performed at 37 ° C and the resulting emissivity was 0.922 and the radiant energy was 3.55 × 10 ² W / m ² .mu.m. These results are judged to be very high emissivity (typically 0.6 to 0.7 emissivity) as compared to the case of the cylindrical far-infrared emissivity metal structure having the same volume.

6 to 8 are views for explaining a process and an apparatus for performing far-infrared ray processing on a nail polisher according to an embodiment of the present invention.

FIG. 6 is a schematic side view of a far-infrared ray processing apparatus according to an embodiment of the present invention, and FIG. 7 is a conceptual diagram of a side sectional view of FIG. FIG. 8 illustrates an actual system implementation of a far-infrared ray processing apparatus according to an embodiment of the present invention.

6 to 8, the far-infrared ray processing apparatus according to the embodiment of the present invention includes a body 100 having a width in the longitudinal direction y and a width in the height direction x, A vortex forming part 140 disposed in one side of the longitudinal direction y of the body 100 and accommodating the mineral powder therein and generating a gas outflow in the longitudinal direction y inside the body, A motor part 130 connected to one end of the vortex forming part 140 through a rotation shaft 132 and disposed outside the body 100 to apply rotational force to the body part 100, A safety device 110 for stopping the supply of the pressure when the internal air pressure of the body exceeds the set air pressure and discharging the excess pressure to the outside through the safety bag and a control device for controlling the internal air pressure of the body do.

The body 100 may be made of a metal material having a hollow structure and capable of being hermetically sealed to the outside and capable of withstanding a high pressure of 5 atm or higher, and a material capable of emitting far-infrared rays is coated on the inner surface of the body 100 . ≪ / RTI > In the embodiment of the present invention, the processing object is processed through the far-infrared ray emitted from the vortex forming unit 140, which will be described later, but in order to increase the efficiency, the coating material for far- have.

As such a coating material, it is possible to increase the far-infrared ray emissivity by treating the inner surface of the body 100 with a structure in which substances of MnO ₂ , Fe ₂ O ₃ , and CuO, which are ceramics of transition element oxides, are coated on the inner surface of the body 100 in addition to zirconia and alumina There is also water. As such a coating material, zinc oxide, potassium oxide, calcium oxide, boron oxide, magnesium oxide, aluminum oxide, silicon oxide, manganese oxide, copper oxide, iron oxide, zirconium oxide, cobalt oxide, At least one of titanium, molybdenum oxide, carbonaceous material, barium oxide, lithium oxide, clay, Talc and combinations of two or more selected from these may be applied.

The vortex forming part 140 disposed inside the body 100 is disposed inside one side of the longitudinal direction y of the body 100 and accommodates the mineral powder in the body 100 and rotates, And acts to generate gas outflow in the longitudinal direction (y). That is, the vortex forming part 140 may be disposed in a lateral direction rather than an upper direction of the body 100, so as to realize convection from the side to the side.

Even if the vortex forming part 140 is disposed in the upper direction of the body 100, the far infrared ray processing can be realized. However, in this case, convection occurs from the upper part to the lower part, The effect of the entire far-infrared ray treatment is less than the lateral arrangement.

The upper surface 141 of the vortex forming part 140 is formed in the body 100 and the upper surface 141 of the vortex forming part 140 is formed in a cylindrical shape having a receiving space for receiving minerals therein. And a lower surface 142 opposed to the upper surface 141 is connected to the rotation shaft 132. The lower surface 142 of the upper surface 141 And side portions 143 can be made of a metal material having a surface of a mesh structure.

In addition, in the case of the vortex forming part 140, a material such as zirconia, alumina, transition element oxide ceramics such as MnO ₂ , Fe ₂ O ₃ and CuO may be coated on the upper and side surfaces of the metal material. So that the far-infrared radiation efficiency can be increased.

Also, in the embodiment of the present invention, the width d of the upper surface may be in the range of 1/3 to 1/2 of the width D of the body. When the width (d) of the upper surface is less than 1/3 of the width (D) of the body, the efficiency of vortex formation is extremely low and the far-infrared ray treatment rate is significantly lowered. It takes up too much of the internal side space and acts as an element that hinders the movement of the air.

Further, in the case of the far-infrared ray processing apparatus according to the embodiment of the present invention, the air suction / discharge unit 160 may be provided for discharging the air inside the body or controlling the air pressure .

Further, the vortex forming unit 140 may be disposed inside the opening and closing door of the body, and the motor unit and the vortex forming unit may be exposed to the opening operation of the opening and closing door. In the case where the vortex forming part 140 is mounted on the inside of the opening and closing door and is connected to a motor disposed outside the opening and closing door, when the opening and closing door is opened after the processing operation, (140) is also exposed to the outside, so that it is very easy to insert or repair the inside of the apparatus, and the working efficiency can be greatly improved.

FIG. 8 is a block diagram showing an outer valve, an air, and a pressure control line according to an embodiment of the present invention.

The structure in which the vortex forming part connected to the motor M is disposed on the side of the body has been described above and a plurality of air control valves AOV, a pressure regulating part PG and a plurality of valves BV are disposed, The dashed line can be divided into the water movement line, the solid line can be divided into the air line, and the dotted line can be divided into the air line.

Hereinafter, a method of processing an object to be treated by applying a far-infrared ray processing apparatus according to an embodiment of the present invention described in FIGS. 6 to 8 will be described.

In the present invention, the object to be treated is charged into a closed container together with a far-infrared emitting mineral powder having a size of 300 mesh or more, and a high pressure of 8 atm or higher can be applied to the closed container for 1 hour or more.

When the object to be manufactured by the far-infrared ray radiator and the far-infrared ray emitting mineral powder are placed in the same sealed space and the pressure is applied to the sealed space, the object which is not originally produced by the far-infrared ray radiation effect is manufactured as a far- Lt; / RTI > It is considered that the far - infrared radiation powder does not directly penetrate the object or surface, but the mineral energy is transferred to the object due to the pressurized condition. It is as a result of confirming that the radiator can be manufactured under the condition that the far-infrared radiation mineral powder is completely wrapped with vinyl or the like and does not contact the object. In the present invention, the mineral powder may be disposed inside the vortex forming portion.

In the present invention, it is possible to use the gypsum, gypsum, sericite, kaolin, bentonite, feldspar, leaf rock, alabaster, serpentinite, granite, quartz, porphyry, gneiss, acid tuff, pyloric tuff, Tourmaline, and the like may be used as the far-infrared radiation minerals, but the present invention is not limited thereto, and any mineral that emits far-infrared rays can be used. However, it is preferable to use jade among these minerals.

In the present invention, a high pressure is applied to the inside of the sealed container. At this time, the higher the pressure and the longer the processing time of the pressure, the higher the effect becomes. However, it is preferable to apply a pressure of 8 to 10 atm and a treatment time of 1 to 2 hours in consideration of the deformation of the product due to the pressure and the process time. It is appropriate to treat for about 2 hours at 8 atmospheres, about 90 minutes at 9 atmospheres, and about 1 hour at 10 atmospheres. According to the present invention, it was confirmed that the far infrared ray radiation effect or the food freshness maintenance effect and the process efficiency are superior to other conditions under the pressure condition and the treatment time condition.

In the present invention, the far-infrared ray-emitting mineral is powdered and used, and the particle size of the powder is made to be 300 mesh or less. According to the present invention, the smaller the particle size of the powder, the better the effect. Therefore, although it is preferable to use powdered nanoparticles in small particles, there is a problem that a separate processing or equipment is required to reduce the size of the particles. Therefore, considering the efficiency, It is suitable.

In the present invention, the far-infrared ray-emitting mineral powder is preferably used in a sealed manner by a sealing means of a transparent material. If the mineral powder is used as it is without being hermetically sealed, the high pressure may cause the mineral powder to adhere to or penetrate the surface of the object to be treated, thereby causing a problem that the quality of the object to be treated deteriorates.

As a sealing means of a transparent material, it is preferable to use a bag made of a transparent vinyl material. In addition, a bag or a container made of a material that can withstand the pressure used in the present invention and does not leak when containing the mineral powder can be used. In addition, if the possibility of leakage of the mineral powder by high pressure can not be totally excluded even if the mineral powder is sealed by the sealing means of such a material, the hole is formed stronger than the physical pressure and the mineral energy such as far- It is preferable to further use a woven fabric or a nonwoven fabric. For example, a method may be used in which a mineral powder is sealed in a transparent plastic bag and the plastic bag is wrapped and fixed with a fiber fabric.

Applying pressure can be done by injecting gas into the enclosed space. A device such as a compressor may be used for this purpose. Nitrogen, and carbon dioxide, it is preferable to use air in consideration of ease of operation and cost. The degree of pressure can be checked using a pressure sensor and can be adjusted through the operation of the compressor.

In order to sufficiently impart the far-infrared ray radiation function or the food freshness-retaining effect to the object to be treated, it is preferable to charge the far-infrared ray-emitting mineral powder at a rate of 100 to 500 g per 1 m 3 of the space inside the closed container.

It is preferable that the object to be treated is charged so as to occupy a volume of 2/3 or less based on the volume of the space inside the closed container, and about 2/3 to 1/3 is suitable. In this case, if the material to be treated is a material through which far-infrared rays can be transmitted, it can be loaded in a sealed container without any additional treatment. However, when it is difficult to transmit far-infrared rays like metal, It is preferable to load them so as to leave an interval of about 5 mm or more.

In order to more efficiently perform the present invention, it is preferable that the mineral powder is contained in a container rotating in one axis, and the container is rotated inside the container to generate a vortex of the gas. As a result of comparing the case where the container containing the far - infrared ray emitting mineral is rotated and the case where the container containing the far - infrared ray emitting mineral is rotated, the far - infrared radiation effect or the food freshness maintaining effect of the subject is remarkably excellent.

[Example 1]

250-300 g of jade powder of 300 ~ 10,000 mesh was placed in a transparent vinyl zipper bag of about 0.5 mm in thickness, sealed with a cotton cloth, and placed on a rotating plate. A nail polisher (material: tempered glass) manufactured by the structure of the embodiment of FIG. 3 was placed inside the body and filled with about 1 m.sup.3, and the opening and closing door of the apparatus was closed to close the interior. Then, Time.

[Example 2]

In the same manner as in Example 1, the far-infrared ray emitting material of the nail polish device to be treated was used in the same amount as germanium.

[Example 3]

The same procedure as in Example 1 was carried out except that the same amount of far infrared ray material was used as a mixture in a mixture of jade and germanium.

[Example 4]

In the same manner as in Example 1, except that the material to be treated did not contain a far-infrared ray emitting material was used.

≪ Measurement results according to the structure of experimental apparatus >

The following table shows the results of the treatment (arrangement structure) disposed on the side surface (opening and closing door) of the body according to the embodiment of the present invention in Fig.

Measured object Emissivity (5 ~ 20um) - Comparison 1 Emissivity (5 ~ 20um) - Implementation structure Radiant energy (W / m2.um, 37 ℃ - Comparison 1 Radiant energy (W / m2.um, 37 ℃ - Conducted structure Example 1 0.886 0.893 3.41 × 10 ²
3.50 x 10 ² Example 2 0.883 0.892 3.40 x 10 ²
3.52 × 10 ² Example 3 0.893 0.897 3.44 × 10 ²
3.53 × 10 ² Example 4 0.850 0.856 3.04 × 10 ²
3.53 × 10 ²

The far infrared ray emissivity and radiant energy of each sample prepared in the above examples were measured using the KFIA-FI-1005 test method, with the Korean Far Infrared Application Evaluation Research Institute, which is affiliated with the Korean Far Infrared Ray Association. Measurements were made at 37 ° C and measured as a result of FT-IR spectrometer versus BLACK BODY (positive control with high emissivity).

As a result, as shown in Table 1, as shown in Example 4, far-infrared rays were emitted from a product having no far-infrared radiation effect.

Further, when the far-infrared ray material is contained in the body part according to the embodiments 1 to 3 of the present invention, the emissivity and the radiant energy intensity in the body part that does not contain the far-infrared ray material in the embodiment 4 are much more effective Can be confirmed.

While the present invention has been described in connection with what is presently considered to be practical exemplary embodiments, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, And such variations and modifications are intended to fall within the scope of the appended claims.

10:
20: Gloss pattern portion
25: Handle portion
100: Body
110: Safety device
120: Barometer
130:
140: vortex forming part
150: opening / closing door
160: Air suction / discharge unit

Claims (9)

A body portion (10) of a three-dimensional structure having a work surface and another surface facing the work surface; And
And a gloss pattern part (20) including a plurality of unit gloss patterns formed on the one surface or the other surface,
And a far-infrared ray emitting material inside the body portion and the luster pattern portion,
The far-infrared ray-
Bead bead particles having a diameter of 0.01 to 3 占 퐉 or single-light ceramic particles having a diameter of 0.01 to 7 占 퐉 and being contained in an amount of 5 to 10 parts by weight based on the main raw material constituting the body part,
Wherein the unit gloss pattern
Wherein the body has a height in the range of 0.01 to 50 탆 from the surface of the body, and a cone-shaped radiation structure having a top at the surface of the body, wherein the angle between the side and the bottom is 48 to 52 degrees,
The body portion and the luster pattern portion may include:
A nail polish device having an antimicrobial function, which is charged in a sealed chamber capable of applying a high pressure together with a far infrared ray emitting mineral powder for processing and a high pressure of 8 atmospheres or higher for 1 hour or more.
delete The method according to claim 1,
Wherein the unit gloss pattern
Based on a unit area of the gloss pattern portion,
Wherein the pattern occupancy ratio of the exposed surface of the body portion and occupied ratio of the unit gloss pattern is 80 to 90%
A nail polish device with antibacterial function.
The method of claim 3,
The far-infrared ray-
Gypsum, porphyry, porphyry, porphyry, gneiss, acid tuff, pyloric tuff, loess, clay, scoria, charcoal, germanium, quartz, tourmaline or ceramics The bead structure of the material,
A nail polish device with antibacterial function.
The method of claim 4,
Wherein the unit gloss pattern
Wherein the protruding structure has a length greater than a height of the one surface or the surface contacting the other surface,
A nail polish device with antibacterial function.
The method of claim 5,
The body portion and the luster pattern portion may include:
In a hermetically sealed chamber capable of applying a high pressure,
Characterized in that it is charged together with the ultraviolet ray-emitting mineral powder for processing having a size of 5,000 mesh or more, and a high pressure of 8 atm or higher is treated in the chamber for 1 hour or more.
A nail polish device with antibacterial function.
The method of claim 6,
The body portion (10)
A glass plate structure comprising a plate-like structure and a handle (25) with a pattern removed on one side of the luster pattern (20)
A nail polish device with antibacterial function.
The method of claim 7,
The unit gloss pattern, which is formed on one surface of the body portion,
A body portion,
A nail polish device with antibacterial function.
The method of claim 8,
A zirconia-alumina coating layer is formed on the surface of the body portion,
Wherein the coating layer is coated with a material of MnO ₂ , Fe ₂ O ₃ , and CuO, which are ceramics of transition element oxides,
A nail polish device with antibacterial function.

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