KR20210120264A - Antimicrobial mask - Google Patents

Abstract

An antibacterial mask is provided. The antibacterial mask, according to one embodiment of the present invention, sequentially comprises: a first fabric forming an external exposure surface; a filter medium; and a second fabric fixed to at least a part of the first fabric, forming a receiving part for receiving the filter medium, formed by including a first fiber including a silver wire, and disposed to be in contact with a facepiece of a wearer, and further comprises ear bands provided on the opposite ends of the first fabric. Accordingly, the antibacterial mask includes the silver wire so as to fundamentally prevent the generation of bacteria by a user's saliva and re-inhalation of proliferated bacteria and exhibit excellent antibacterial performance. In addition, the antibacterial mask is provided with the filter medium so as to exhibit excellent filtering efficiency. In addition, the antibacterial mask is provided with a ply yarn including a silver wire and a general-purpose fiber so as to exhibit excellent washing durability and elasticity and can exhibit the effect of maintaining antibacterial performance and washing durability even when the silver wire included in the mask is broken.

Description

Antimicrobial mask

The present invention relates to an antibacterial mask.

Masks are generally sanitary household items that can cover the nose and mouth to block the cold or to prevent inhalation of dust (dust) and droplets in the air.

However, in addition to these dusts in the air, there are countless pathogens such as bacteria, fungi, and viruses that directly harm the human body. Patients who are undergoing treatment are highly likely to become ill due to the penetration of these pathogens. Moreover, pathogens that can be transmitted through influenza or air cannot be prevented with a normal general mask.

Accordingly, antibacterial treatment of the mask body or an antibacterial mask using an antibacterial fabric or the like is also used. However, a mask with a separate antibacterial treatment has a bad smell, and if worn for a long time, it may cause side effects on the skin or decrease antibacterial durability due to washing.

In addition, if the conventional general mask is worn for a long time, the mask is contaminated with the bacteria in the mouth, and the odor in the mouth is not deodorized. also have

On the other hand, in general, silver (Ag) is excellent in sterilization and deodorization action, and the effect of electromagnetic wave or pulse wave blocking is also very excellent. In addition, silver (Ag) is known to have excellent radiation effects of far-infrared rays including negative ions, and also to have excellent antibacterial and antifungal actions. In addition, silver (Ag) is known as one of the essential metals for enhancing immunity in the body. It is known that silver (Ag) ions are easily absorbed into the human body and block the function of enzymes when bacteria or fungi metabolize oxygen, and act as a strong catalyst to kill these pathogens.

Moreover, silver (Ag) has been widely used as an antidote due to its excellent detoxification action, and has been used as a silver spoon or silver tableware in the royal court since ancient times because of its discoloration by neutralizing or adsorbing heavy metals or various harmful components.

As for the efficacy of silver (Ag), it is written in the herbal medicine Gangmok, "When silver is in the body, the five organs are comfortable, the mind and body are stable, and the body is lightened and morale is expelled. It is recorded as "to make it longer." and in Donguibogam, "Silver is effective in the prevention and treatment of mental disorders such as epilepsy and competition, as well as gynecological diseases such as cold and hay fever." It is written that

Due to the efficacy of silver, there has been an attempt to apply silver (Ag) to a mask in the prior art in order to solve the above-mentioned problems.

In particular, as silver (Ag) nano has become an issue in recent years, many products using silver nano have been developed. However, in the case of the mask to which the silver nano is applied, the silver nano is detached from the mask body by the user's breathing or physical stimulation and is inhaled into the user's respiratory tract, and the antibacterial performance of the mask is deteriorated due to poor washing durability.

Accordingly, it is possible to fundamentally prevent the generation of bacteria by the user's saliva and re-suction of the proliferated bacteria, and it has excellent antibacterial performance, washing durability and elasticity, and even if single yarn of the silver wire included in the mask occurs, antibacterial performance and washing There is an urgent need to develop an antibacterial mask that exhibits the effect of maintaining durability.

KR 1999-0008251 A (published on: 1999.01.25)

The present invention has been devised to solve the above problems, and the problem to be solved by the present invention is to fundamentally prevent the generation of bacteria by the user's saliva and re-suction of the proliferated bacteria, filtration efficiency, antibacterial performance, An object of the present invention is to provide an antibacterial mask that has excellent washing durability and elasticity, and exhibits the effect of maintaining antibacterial performance and washing durability even if single yarn of the silver wire included in the mask occurs.

In order to solve the above problems, the present invention is fixed to a first fabric forming an external exposed surface, a filter media, and at least a portion of the first fabric to form a receiving portion for accommodating the filter media, and comprising a silver wire It provides an antibacterial mask having; a second fabric that is formed to include the first fiber and is in close contact with the wearer's face part, is sequentially arranged, and ear bands are provided on both side ends of the first fabric.

According to an embodiment of the present invention, the first fiber includes a core, a first covering part provided by winding a first covering yarn including a silver wire to surround the core, and a first covering part disposed to surround the first covering part The second covering yarn may be a ply-twisted yarn including a second covering portion wound and provided.

In addition, the screening and the second covering yarn may each independently include any one or more selected from natural fibers and synthetic fibers.

In addition, the screening and the second covering yarn may each independently have a fineness of 20 ~ 100De.

Also, the first covering yarn may be twisted at a twist number of 550 to 1400 TPM, and the second covering yarn may be twisted at a twist number of 350 to 1100 TPM.

In addition, the silver wire may be a sheath-core fiber including a core including copper (Cu) and a sheath including silver (Ag).

Also, the sheath may have an average thickness of 3 to 3200 nm.

In addition, the silver wire may have an average fiber diameter of 10 to 60 μm.

In addition, the filter media may include a porous first support, a porous second support, a nanofiber web formed of a plurality of nanofibers, and a porous third support, which are sequentially stacked.

In addition, the first support may be a spunbond nonwoven fabric, the second support may be a melt blown nonwoven fabric, and the third support may be a thermal bond nonwoven fabric.

In addition, the first support may be a water/oil repellent spunbond nonwoven fabric, and the nanofiber web may be a water/oil repellent nanofiber web.

In addition, at least a portion of the second support may be electrostatically treated.

In addition, the third support and the nanofiber web may be provided by thermal lamination.

In addition, one surface of the first support, one surface of the third support, and the first support, the second support, the nanofiber web, and the fourth support in any one of the regions between two adjacent members of the third support may further include.

In addition, the first fabric and the second fabric may each independently be a woven or knitted fabric.

In addition, the second fabric may be a fabric including a warp and a weft, the warp may include the first fiber, and the weft may include a second fiber.

In addition, the second fiber may include any one or more selected from natural fibers and synthetic fibers.

In addition, the nose pad provided on the upper end of the first fabric; and a chinrest provided at the lower end of the first fabric.

The antibacterial mask of the present invention can fundamentally prevent the generation of bacteria by the user's saliva and re-suction of the proliferated bacteria by including a silver wire, and has excellent antibacterial performance, and the filtration efficiency is improved by having a filter medium Excellent in washing durability and elasticity by having a ply-twisted yarn including a silver wire and general-purpose fiber, and even if single yarn of the silver wire included in the mask occurs, antibacterial performance and washing durability can be maintained.

1 is an exploded perspective view of an antibacterial mask according to an embodiment of the present invention;
2 is a perspective view of an antibacterial mask according to another embodiment of the present invention;
3 is a schematic diagram showing a ply-twisted yarn provided in an antibacterial mask according to an embodiment of the present invention, and,
4 and 5 are cross-sectional views of a filter medium according to an embodiment of the present invention.

Hereinafter, with reference to the accompanying drawings, the embodiments of the present invention will be described in detail so that those of ordinary skill in the art to which the present invention pertains can easily implement them. The present invention may be embodied in many different forms and is not limited to the embodiments described herein. In order to clearly explain the present invention in the drawings, parts irrelevant to the description are omitted, and the same reference numerals are added to the same or similar elements throughout the specification.

The antibacterial mask 1000 according to an embodiment of the present invention is a first fabric 100, a filter medium 200, and at least a portion of the first fabric 100 forming an external exposed surface as shown in FIG. The second fabric 300 and the first fabric (300) fixed to the 100) is implemented by having the ear bands 400 provided on both side ends.

First, the first fabric 100 will be described.

The first fabric 100 is positioned outside the antibacterial mask 1000 so as not to directly touch the user's mouth.

At this time, the first fabric 100 may express hydrophobicity, quick-drying properties, water repellency, etc. in order to prevent the generation and proliferation of bacteria caused by external water, moisture, or user's saliva.

In addition, the first fabric 100 can be used without limitation as long as it is a material of the mask shell that can be commonly used in the art, but preferably it may be formed including any one or more selected from natural fibers and synthetic fibers, More preferably, the use of polyester is more advantageous in terms of expressing hydrophobicity, quick-drying properties and water repellency.

The natural fiber may be, for example, a fiber made of any one of Korean paper, PLA (poly lactic acid; biodegradable fiber), cotton, hemp, wool, and silk. The synthetic fiber may be, for example, a fiber made of any one of nylon, polyester, polyvinyl chloride, polyacrylonitrile, polyamide, polyolefin, polyurethane, and polyfluoroethylene.

Furthermore, as the synthetic fiber, fibers obtained by using the following polymers can be used.

- Polyethylene-based resins, for example, low-density polyethylene resin (LDPE), ultra-low-density polyethylene resin (LLDPE), high-density polyethylene (HDPE), ethylene-vinyl acetate resin (EVA), copolymers thereof, etc.

- Polystyrene-based resin, for example, HIPS, GPPS, SAN, etc.

- Polypropylene-based resin, for example, HOMO PP, RANDOM PP, copolymers thereof

- Transparent or general ABS (acrylonitrile-butadiene-styrene terpolymer)

- Rigid PVC

- Engineering plastics, for example, nylon, PRT, PET, POM (acetal), PC, urethane, powder resin, PMMA, PES, etc.

In addition, as the natural fiber or synthetic fiber, it is also possible to use other well-known fibers in addition to the above-described fiber materials.

Meanwhile, the first fabric 100 may be a fabric or knitted fabric manufactured by weaving or knitting.

First, the structure of the fabric may be made by any one method selected from the group consisting of plain weave, twill weave, weave weave and double weave.

When the above plain weave, twill weave, and weaving weave are referred to as ternary weaving, the specific weaving method of each ternary weaving is based on the conventional weaving method, and the ternary weave may be a modified fabric by modifying the structure or combining several tissues. For example, the variable plain weave includes duduk weave and basket weave, the variable twill weave includes new twill weave, non-twill weave, non-twill weave, and mountain type twill weave. There is this.

The double weave is a weaving method of a fabric in which either one of the warp or weft yarns is double or both are double, and the specific method may be a conventional double weaving method.

However, it is not limited to the base of the fabric structure, and the warp and weft density in weaving are not particularly limited.

Preferably, the knitting may be performed by a method of weft knitting or warp knitting, and the specific method of knitting the weft and warp knitting may be a conventional knitting method of weft knitting or warp knitting.

Through the weft knitting, a weft knitted product such as flat knitted fabric, a rubber piece, a pearl piece, etc. can be specifically manufactured, and a warp knitted product such as a tricot, Millennise, Raschel, etc. can be specifically manufactured through the warp knitting.

Next, the filter medium 200 will be described.

As shown in FIG. 4, the filter media 200 is sequentially stacked, a porous first support 210, a porous second support 220, and a nanofiber web 230 formed of a plurality of nanofibers. And, it may include a porous third support (240).

The first support 210 supports the filter media and selectively performs a function of imparting and/or improving water/oil repellency. In this case, the first support 210 may preferably be a nonwoven fabric, and more preferably a chemical bond nonwoven fabric, a thermal bond nonwoven fabric, a dry nonwoven fabric such as an airlay nonwoven fabric or a wet nonwoven fabric, spanless nonwoven fabric, needle punching nonwoven fabric, spun It may be a bonded nonwoven fabric or a melt blown nonwoven fabric, and more preferably a spunbond nonwoven fabric.

On the other hand, the first support 210 is a synthetic polymer component selected from the group consisting of polyester, polyurethane, polyolefin and polyamide; Alternatively, a natural polymer component including cellulose may be used.

In addition, the first support 210 is a water/oil repellency spunbond implemented by spinning or spinning by including a water/oil repellent agent together with the above-described polymer in a spinning solution to impart water/oil repellency. It may be non-woven.

In addition, the first support 210 may be formed of a plurality of fibers having a predetermined average fiber diameter. If the average fiber diameter of the fibers forming the first support is excessively low, air permeability may decrease and pressure loss may increase, and if excessively high, water/oil repellency may be reduced or filtration efficiency may be reduced.

In addition, the first support 210 may exhibit a predetermined basis weight. If the basis weight of the first support is excessively low, the filtration efficiency may be reduced as the deviation increases, or uniform filtration efficiency may not be expressed, water/oil repellency may be reduced, and if the basis weight is excessively high, the air permeability is lowered, and pressure loss may increase.

The second support 220 is to improve the filtration efficiency of the filter medium 200, at least a portion may be electrostatically treated. In this case, the second support 220 may preferably be a nonwoven fabric, more preferably a chemical bond nonwoven fabric, a thermal bond nonwoven fabric, a dry nonwoven fabric such as an airlay nonwoven fabric, a wet nonwoven fabric, a spanless nonwoven fabric, a needle punching nonwoven fabric, or a mel It may be a blown nonwoven fabric, and more preferably a melt blown nonwoven fabric. As the melt blown nonwoven fabric may be a known melt blown nonwoven fabric, the present invention is not particularly limited thereto.

On the other hand, the second support 220 is a synthetic polymer component selected from the group consisting of polyester-based, polyurethane-based, polyolefin-based and polyamide-based; Alternatively, a natural polymer component including cellulose may be used.

In addition, the second support 220 may be formed of fibers having a predetermined average diameter of fibers, and when the average diameter of the fibers is excessively small, air permeability may decrease, pressure loss may increase, and the average diameter of fibers If this is excessively large, the filtration efficiency may be reduced.

In addition, the second support 220 may have a predetermined average pore diameter. If the average pore diameter of the second support is excessively small, air permeability may decrease and pressure loss may increase, and if the average pore diameter is excessively large, filtration efficiency may decrease.

In addition, the second support 220 may exhibit a predetermined basis weight. If the basis weight of the second support is excessively low, as the deviation increases, the filtration efficiency may be reduced or uniform filtration efficiency may not be expressed.

The nanofiber web 230 is responsible for the physical filtration of the fluid to be treated, preferably the air to be treated, and may have a three-dimensional network structure formed by randomly stacking a plurality of nanofibers three-dimensionally.

In addition, the nanofiber web 230 is a water/oil repellency nanofiber web, and the water/oil repellency nanofiber web is formed by coating a water/oil repellent agent on the surface of the nanofiber web, or a polymer resin and water/oil repellency It may be formed by spinning a spinning solution containing an emulsion, but it may be more advantageous to apply it to an outdoor environment to preferably form it by spinning a spinning solution containing a polymer resin and a water/oil repellent agent, and the water/oil repellency and In addition, it may be more advantageous in terms of excellent air permeability and filtration efficiency.

The polymer resin may be used without limitation as long as it is a polymer resin that can be used to form nanofibers conventionally in the art, and may preferably include a fluorine-based compound, and more preferably a polytetrafluoroethylene (PTFE)-based polymer. , tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer (PFA)-based, tetrafluoroethylene-hexafluoropropylene copolymer (FEP)-based, tetrafluoroethylene-hexafluoropropylene-perfluoroalkyl vinyl Ether copolymer (EPE), tetrafluoroethylene-ethylene copolymer (ETFE), polychlorotrifluoroethylene (PCTFE), chlorotrifluoroethylene-ethylene copolymer (ECTFE), and polyvinylidene fluoro It may include any one or more compounds selected from the group consisting of fluoride (PVDF), and more preferably polyvinylidene fluoride (PVDF). In this case, when the polymer resin includes PVD, the weight average molecular weight of the PVDF may be 10,000 to 1,000,000, preferably 300,000 to 600,000, but is not limited thereto.

In addition, the water/oil repellent agent may be used without limitation as long as it is a water/oil repellent agent that can be commonly used in the art, preferably a solvent type water/oil repellent agent, and more preferably a fluorine-based solvent type water/oil repellent agent. can

In addition, the plurality of nanofibers forming the nanofiber web 230 may have a predetermined average fiber diameter. If the average fiber diameter of the nanofiber is excessively low, air permeability may decrease and pressure loss may increase, and if the average fiber diameter is excessively high, filtration efficiency may be reduced, and water/oil repellency may be reduced. have.

In addition, the nanofiber web 230 may have a predetermined average pore diameter. If the average pore diameter of the nanofiber web is excessively low, air permeability may decrease and pressure loss may increase. can't

And, the nanofiber web 230 may represent a predetermined basis weight. If the basis weight of the nanofiber web is excessively low, it is not possible to express the desired level of water/oil repellency, and as the deviation increases, the filtration efficiency may decrease or it may not be possible to express a uniform filtration efficiency, and the basis weight is excessive. If it is too large, the air permeability may decrease, pressure loss may increase, and the filtration area may decrease due to the adhesion of acids and acids when implementing a composite filter.

On the other hand, as the filter medium 200 according to the present invention includes the second support 220 and the nanofiber web 230 described above, even if the efficiency of the electrostatically treated second support 220 is reduced, the nanofiber web Since it contains (230), it is possible to prevent a decrease in filtration efficiency.

When the third support 240 is adhered to the nanofiber web 230 and further includes a fourth support 250 to be described later on one surface of the third support 240 ′, as shown in FIG. 2 , nano As a function of adhering the fiber web and the fourth support, it may preferably be a nonwoven fabric, and more preferably a chemical bond nonwoven fabric, a thermal bond nonwoven fabric, a dry nonwoven fabric such as an airlay nonwoven fabric, a wet nonwoven fabric, a spanless nonwoven fabric, It may be a needle punched nonwoven fabric or a melt blown nonwoven fabric, and more preferably a thermal bond nonwoven fabric.

On the other hand, the third support 240 is a synthetic polymer component selected from the group consisting of polyester, polyurethane, polyolefin and polyamide; Alternatively, a natural polymer component including cellulose may be used.

In addition, as another example, the third support 240 may be made of a composite fiber including a low-melting component. The composite fiber may be arranged such that at least a portion of the low-melting-point component, including the supporting component and the low-melting-point component, is exposed to the outer surface. For example, a sheath-core type composite fiber in which a support component forms a core portion and a low melting point component forms a sheath portion surrounding the core portion, or a side-by-side composite fiber in which a low melting point component is disposed on one side of the support component can be As described above, the low-melting component and the supporting component may be preferably polyolefin-based in terms of flexibility and elongation of the support, for example, the supporting component may be polypropylene, and the low-melting component may be polyethylene. However, the present invention is not limited thereto.

In addition, the third support 240 may be formed of fibers having a predetermined average fiber diameter. If the average fiber diameter of the fibers forming the third support is excessively small, air permeability may be reduced, pressure loss and interlayer adhesion may be reduced, and if the average fiber diameter is excessively large, filtration efficiency may be reduced.

Also, the third supporter 240 may have a predetermined average pore diameter. If the average pore diameter of the third support is excessively low, air permeability may decrease and pressure loss may increase, and if the average pore diameter is excessively large, filtration efficiency and interlayer adhesion may decrease.

In addition, the third support 240 may exhibit a predetermined basis weight. If the basis weight of the third support is excessively low, interlayer adhesion may decrease, and if the basis weight is excessively large, air permeability may decrease and pressure loss may increase.

The third support 240 may be provided by being thermally laminated with the above-described nanofiber web 230, thereby further improving interlayer adhesion.

On the other hand, the filter medium according to an embodiment of the present invention may further include a fourth support. The fourth support is a porous member and performs a function of reinforcing the filter medium, such as reinforcing the strength of the filter medium or further preventing moisture permeation.

The fourth support may be included in any one of the one surface of the first support, one surface of the third support, and the area between two adjacent members among the first support, the second support, the nanofiber web, and the third support. . For example, as shown in FIG. 5 , the fourth support 250 may be provided on one surface of the third support 240 ′.

The fourth support 250 may preferably be a nonwoven fabric, and more preferably a chemical bond nonwoven fabric, a thermal bond nonwoven fabric, a dry nonwoven fabric such as an airlay nonwoven fabric, a wet nonwoven fabric, a spanless nonwoven fabric, a needle punched nonwoven fabric, or a melt blown nonwoven fabric. It may be a non-woven fabric, but is not limited thereto.

In addition, the fourth support 250 has a relatively small average pore diameter compared to the first support 210 ′, the second support 220 ′, the nanofiber web 230 ′ and the third support 240 ′. can have However, the present invention is not limited thereto.

Next, the second fabric 300 will be described.

As described above, the second fabric 300 is fixed to at least a part of the first fabric 100 to form a receiving part for accommodating the filter media described above, and includes a first fiber including a silver wire. It is formed and is in close contact with the wearer's face. In this case, preferably, the second fabric may have an upper end and a lower end fixed to the first fabric to form a receiving portion.

As shown in FIG. 3 , the first fiber 10 has a core 11 and a first covering part ( 12a ) including a silver wire wound around the core 11 . 12) and may be a ply-twisted yarn including a second covering portion 13 provided by winding a second covering yarn 13a disposed to surround the first covering portion 12 .

The core 11 and the second covering yarn 13a may be used without limitation as long as they are fibers that can be used to improve the flexibility and elasticity of the fibers, and preferably, any one or more selected from natural fibers and synthetic fibers may be used. , More preferably, a polyester-based fiber may be used.

In addition, the core 11 and the second covering yarn 13a may be formed of a monofilament or a plurality of filaments, preferably a fiber formed of a plurality of filaments.

In addition, the core 11 and the second covering yarn 13a may be used without limitation as long as they are fibers of fineness that can be commonly used in the art, and preferably each independently may have a fineness of 20 to 100De, and more Preferably, the fineness may be 30 ~ 75De. If the fineness of the examination and the second covering yarn is independently less than 20De, the washing durability, antibacterial performance and washing durability according to the single yarn of the silver wire may be reduced, and if the fineness exceeds 100De, the elasticity may be reduced .

In addition, the second covering yarn 13a may be twisted at a twist number of 350 to 1100 TPM, and preferably at 450 to 1000 TPM to form the second covering part 13 . If the number of twists of the second covering member is less than 350 TPM, washing durability, antibacterial performance and washing durability due to single yarn of the silver wire may be reduced. As the area of the silver wire exposed to the surface decreases, the antibacterial performance may be relatively reduced.

Meanwhile, the first covering yarn 12a may include a silver wire as described above, and the silver wire may include silver alone, and a core including copper (Cu) for excellent flexibility ( core) and may be a sheath-core fiber, including a sheath comprising silver (Ag).

In this case, the silver wire is formed by drawing a copper material to be used as a core to a predetermined diameter, preparing a silver plate for the sheath, and integrating the copper material and the silver plate with the copper material by a cladding process. It may be formed including the steps of obtaining a double-structured wire in which the silver plate forms a sheath, and obtaining a silver wire, which is a sheath-core fiber, by wire-drawing the double-structured wire.

In addition, according to another embodiment of the present invention, the silver wire is formed uniformly on the surface of the copper material through a step of drawing a copper material to be used as a core to a predetermined diameter, and a dipping process in a bath containing a liquid Ag powder solution. It may be formed including the steps of obtaining a double-structured wire by coating thick Ag and obtaining a silver wire, which is a sheath fiber, by wire-drawing the double-structured wire.

And, according to another embodiment of the present invention, the silver nanowire is a double structure by drawing a copper material to be used as a core to a predetermined diameter and plating silver on the surface of the copper material by plating to form a sheath layer. It may be formed including the steps of obtaining a wire of and obtaining a silver wire, which is a sheath fiber, by wire-drawing the double-structured wire.

Meanwhile, the sheath may have an average thickness of 3 to 3200 nm, and preferably, an average thickness of 5 to 3000 nm. If the average thickness of the sheath is less than 3 nm, as the copper, which is the central metal, is easily exposed to the outside, the intrinsic functional properties of silver may be deteriorated, the silver may be detached from the silver wire and inhaled into the user's respiratory tract, and the average thickness If the value exceeds 3200 nm, the flexibility of the silver wire may be reduced.

In addition, the silver wire may include 0.1 to 15% by weight of copper, preferably 0.1 to 10% by weight of copper, and the balance of silver. If the copper content is less than 0.1% by weight, the flexibility of the silver wire may be reduced, and if it exceeds 15% by weight, the antibacterial performance may be relatively reduced.

In addition, the silver wire may have an average fiber diameter of 10 to 60 μm, and preferably, an average fiber diameter of 15 to 55 μm. In addition, the fineness of the silver nanowire may be 40 ~ 150De, preferably 60 ~ 120De. If the average fiber diameter of the silver wire is less than the range or the fineness is less than the range, the desired level of antibacterial effect may not be expressed, and if it exceeds the range, the flexibility of the silver wire may be reduced.

The first covering yarn 12a may be twisted at a twist number of 550 to 1400 TPM, preferably at 650 to 1300 TPM to form the first covering part 12 . If the number of twists of the first covering yarn is less than 550 TPM, the desired level of antibacterial performance cannot be expressed, and if the number of twists exceeds 1400 TPM, elasticity and flexibility of the second fabric may be reduced.

Further, according to another embodiment of the present invention, the first fiber may have a structure including a core including a silver wire and a first covering part provided by winding a first covering yarn to surround the core. In this case, the examination and the description of the first covering yarn are the same as the description of the first covering yarn 12a and the second covering yarn 13a, respectively, and thus will be omitted.

And, according to another embodiment of the present invention, the first fiber comprises a core in which a first core and a second core including a silver wire are braided, and a first covering yarn wound around the core. It may have a structure including a first covering part. In this case, the description of the first examination, the second examination, and the first covering yarn is the same as the description of the examination 11, the first covering yarn 12a, and the second covering yarn 13a, respectively. , to be omitted.

Meanwhile, the first covering yarn 12a may be twisted in the opposite direction to the second covering yarn 13a. For example, when the first covering yarn 12a is a left edge (Z twist), the second covering yarn 13a may be a coincidence (S twist), and the first covering yarn 12a is a coincidence (S twist). In Gunwoo, the second covering yarn 13a may be a left edge (Z twist). Through this, there is an effect that the first covering yarn 12a and the second covering yarn 13a are more firmly provided while the flexibility of the first fiber 10 is excellent.

If the first covering yarn 12a and the second covering yarn 13a are twisted in the same direction, the first covering yarn 12a and the second covering yarn 13a are not relatively strong, so weaving the fabric After that, if any one of the first covering part 12 or the second covering part 13 is damaged, a problem in which the yarn is unwound in one direction may occur.

The first fiber 10 may have a total fineness of 100 to 400De, preferably 130 to 370De. If the total fineness of the first fiber is less than 100 De, antibacterial performance may be reduced, washing durability and elasticity may be reduced, and if the total fineness exceeds 400 De, flexibility may be reduced.

Meanwhile, the second fabric 300 may be a fabric or knitted fabric manufactured by weaving or knitting.

According to an embodiment of the present invention, the second fabric 300 may be a fabric including warp and weft yarns, and the warp yarn may include the first fiber 10, and the weft yarn may include a second fiber. may include Alternatively, the weft yarn may include the first fiber 10 , and the warp yarn may include the second fiber.

In this case, the second fiber may be used without limitation as long as it is a fiber commonly used in the art, and preferably, any one or more selected from natural fibers and synthetic fibers may be used, and more preferably polyester-based fibers. Can be used.

The first fiber 10 provided in the second fabric 300 may have an arrangement width of 0.01 to 12 mm in the fabric, preferably 1 to 7 mm, and more preferably an arrangement width. This may be 3 to 6 mm. If the batch width in the second fabric of the first fiber is less than 0.01 mm, the flexibility of the fabric may be reduced, and if the batch width exceeds 12 mm, the desired level of antibacterial performance may not be expressed.

Meanwhile, the second fabric 300 may be a mesh formed of the first fibers 10 described above. In this case, the number of meshes of the second fabric 300 may be 40 to 450 meshes, preferably 50 to 400 meshes. If the second fabric is less than 40 mesh, antibacterial performance and mechanical properties of the second fabric may be reduced, and if it exceeds 400 mesh, flexibility may be reduced.

In addition, as shown in Figures 1 and 2, the antibacterial mask (1000, 1001) according to the present invention can be provided with a relatively small area of the second fabric (300, 301) compared to the first fabric (100, 101), preferably Preferably, the second fabrics 300 and 301 may be provided with a predetermined area that can be covered by being in close contact with the wearer's nose and mouth. In addition, the antibacterial mask (1000, 1001) according to the present invention may be provided with the filter media (200, 201) in a relatively small area compared to the first fabric (100, 101). In addition, the filter media 200 and 201 may be provided with a smaller area compared to the second fabric 300 and 301, but is not limited thereto.

In addition, the antibacterial mask 1000 according to the present invention includes ear bands 400 provided on both ends of the first fabric 100, and the ear band 400 is made of the same material and shape as the known ear bands. As it may have, it is not particularly limited in the present invention.

On the other hand, as shown in FIG. 2 , the antibacterial mask 1001 according to the present invention includes a nose pad 500 provided at the upper end of the first fabric 101 and a chinrest provided at the lower end of the first fabric 101 ( 600) may be further included.

The nose pad 500 serves to prevent the inflow of outside air and the discharge of bets in areas other than the first fabric 101 and the second fabric 201 when the user breathes, and is identical to the known nose pad. As it may have a material and a shape, the present invention is not particularly limited thereto. In addition, since the chinrest 600 may have the same material and shape as a known chinrest, the present invention is not particularly limited thereto.

Although one embodiment of the present invention has been described above, the spirit of the present invention is not limited to the embodiments presented herein, and those skilled in the art who understand the spirit of the present invention can add components within the scope of the same spirit. , changes, deletions, additions, etc. will be able to easily suggest other embodiments, but this will also fall within the scope of the present invention.

1000, 1001: antibacterial mask
100, 101: first fabric 200, 201: filter media
210,210': first support 220,220': second support
230,230': nanofiber web 240,240': third support
250: fourth support
300, 301: second fabric 400: ear band
500: nose pad 600: chinrest
10: first fiber 11: screening
12a: first covering yarn 12: first covering part
13a: second covering yarn 13: second covering yarn

Claims (18)

a first fabric forming an external exposed surface;
filter media; and
A second fabric that is fixed to at least a part of the first fabric to form a receiving part for accommodating the filter medium, is formed to include a first fiber including a silver wire, and is in close contact with the wearer's face; these are sequentially arranged become,
Antibacterial mask comprising; ear bands provided on both ends of the first fabric. According to claim 1, wherein the first fiber,
A ply-twisting comprising a screening, a first covering part provided by winding a first covering yarn including a silver wire to surround the screening, and a second covering part provided by winding a second covering yarn disposed to surround the first covering part Signed antibacterial mask. 3. The method of claim 2,
The screening and second covering yarns are each independently an antibacterial mask comprising at least one selected from natural fibers and synthetic fibers. 3. The method of claim 2,
The screening and second covering yarns are each independently an antibacterial mask having a fineness of 20 to 100De. 3. The method of claim 2,
The first covering yarn is twisted with a twist number of 550 to 1400 TPM,
The second covering yarn is an antibacterial mask in which the number of twists is 350 ~ 1100 TPM. According to claim 1,
The silver wire is an antibacterial mask that is a sheath-core fiber including a core containing copper (Cu) and a sheath containing silver (Ag). 7. The method of claim 6,
The sheath is an antibacterial mask having an average thickness of 3 to 3200 nm. According to claim 1,
The silver wire is an antibacterial mask having an average fiber diameter of 10 to 60 μm. According to claim 1, wherein the filter medium,
sequentially stacked,
An antibacterial mask comprising a porous first support, a porous second support, a nanofiber web formed of a plurality of nanofibers, and a porous third support. 10. The method of claim 9,
The first support is a spunbond nonwoven fabric,
The second support is a melt blown nonwoven fabric,
The third support is an antibacterial mask that is a thermal bond nonwoven fabric. 10. The method of claim 9,
The first support is a water/oil repellent spunbond nonwoven fabric,
The nanofiber web is an antibacterial mask that is a water/oil repellent nanofiber web. 10. The method of claim 9,
The second support is at least a part of the antibacterial mask electrostatically treated. 10. The method of claim 9,
The third support and the nanofiber web are thermally laminated antibacterial masks. 10. The method of claim 9,
One surface of the first support, one surface of the third support, and a fourth support in any one of the first support, the second support, the area between the two adjacent members among the nanofiber web and the third support. Antibacterial mask containing. According to claim 1,
The first fabric and the second fabric are each independently a woven or knitted antibacterial mask. 16. The method of claim 15,
The second fabric is a fabric including warp and weft,
The warp includes the first fiber,
The antibacterial mask including the weft yarn second fiber. 17. The method of claim 16,
The second fiber is an antibacterial mask comprising at least one selected from natural fibers and synthetic fibers. According to claim 1,
a nose pad provided at the upper end of the first fabric; and a chinrest provided at the lower end of the first fabric.

Images