KR20230055425A - Leggings and the manufacturing method thereof - Google Patents

Abstract

The present invention prevents silver from directly contacting the skin to prevent mineral allergies like silver dermatosis from occurring in advance while obtaining a sterilization effect by depositing silver to a uniform thickness on non-stretchable fabric that forms a low-frequency pad, and integrally attaching each of layers forming the low-frequency pad using a breathable hot melt film. In particular, the present invention uniformly and effectively penetrates and coats a material with infrared radiation and heat generation functions to achieve excellent far-infrared radiation and heat generation effects by using, as an outer skin and an inner skin forming the leggings, fabric with far-infrared radiation, heat generation, and temperature rise functions. In addition, the present invention may maximize the benefits to the human body and sterilizing and antibacterial actions through the effective radiation function due to the far-infrared radiation and heat generation functions of fabric by using such fabric.

Description

Diet leggings and their manufacturing method {LEGGINGS AND THE MANUFACTURING METHOD THEREOF}

The present invention relates to diet leggings and a method for manufacturing the same, and more particularly, by depositing silver on fabric at a constant thickness to generate constant resistance and coating knitted fabric with copper to increase the effect of low-frequency treatment, while far-infrared radiation and heat generation By making the outer and inner skins with a fabric with a temperature-raising function, it maximizes sterilization and antibacterial action when using leggings, increasing user satisfaction, as well as preventing allergies such as silver skin caused by exposure to minerals, especially silver. that made it possible

Leggings are manufactured to cover from the waist to the toes and have excellent warmth and elasticity, so they are manufactured for various purposes such as outing, daily use, and underwear. These leggings, as shown in (Patent Document 1) to (Patent Document 3) below, are manufactured using various materials to obtain various purposes such as diet and functional enhancement.

(Patent Document 1) Korean Patent Publication No. 10-2021-0048453

By preventing the gap between the pad and the skin of the lower body, when a low frequency is generated by the low frequency stimulation device, the low frequency that can massage so that the pain of the lower body is relieved without burning between the pad and the skin of the lower body It is to provide used leggings. Leggings using low frequency to achieve the above object, leggings; and a plurality of conductive pads respectively mounted on a plurality of areas of the leggings.

(Patent Document 2) Korean Patent Publication No. 20-2021-0000881

It relates to functional leggings, comprising pants in which pants and legs are integrated, and leggings having front and back waist pattern parts sewn to the upper part of the pants to form a wide area waist band, wherein the inner surface of the front waist pattern part has a front side. Since the first and second silicone printing parts are formed to prevent the upper end of the front waist pattern part from being rolled up due to the frictional resistance generated when the waist pattern part is folded and sewn, the large area of the waist band is active. It is possible to prevent the inner surface from being rolled up due to the flesh of the abdomen (the nature of the skin) during exercise, and to improve product value such as ensuring activity during exercise and increasing wearing comfort.

(Patent Document 3) Korea Patent Registration No. 10-2259946

It relates to leggings that have excellent ventilation and tighten the wearer's waist and ankles to prevent them from being rolled up or flowed down due to movement. Leggings portion to be; a ventilation unit formed in the upper center of the leggings unit and provided with a plurality of ventilation holes for ventilation between the inside and outside of the leggings unit; a waist band portion formed at an upper end of the legging portion to tighten a wearer's waist; and an ankle band portion formed on both sides of the lower end of the legging portion to tighten both ankles of the wearer.

Korean Patent Publication No. 10-2021-0048453 (published date: 2021.05.03) Korean Patent Publication No. 20-2021-0000881 (published date: 2021.04.23) Korean Patent Registration No. 10-2259946 (registration date: 2021.05.27)

These leggings are also manufactured to be able to diet by mounting a low-frequency pad and supplying power from the outside. However, leggings that can be dieted using such existing low frequencies have the following problems.

(1) In existing low-frequency pads, silver is used to obtain effects such as sterilization. However, direct contact with the skin causes mineral allergy such as Argyria.

(2) In particular, as silver is directly coated on a low-frequency pad or absorbed into a thread, the silver directly touches the leggings user's skin, and this mineral allergy may occur more severely.

(3) At this time, silver is used by directly applying or immersing it to the fabric. In this way, as the fabric to which silver is applied or immersed increases, it is not evenly attached to or immersed in the fabric, so that constant resistance cannot be obtained.

(4) In addition, existing low-frequency pads have a multi-layer structure such as a copper layer that generates low frequencies, a surface layer that adheres to the skin, and a protective layer that protects the skin or fabric, so each layer must be integrally attached. As the adhesive is used, substances harmful to the human body may be generated from the adhesive or adhesive when low frequencies are generated.

(5) On the other hand, when using such a low-frequency pad, a hydrogel is applied to the skin to enhance the low-frequency effect, and as the hydrogel uses water as a dispersion medium, E. coli and the like may occur. There is a concern that E. coli generated when using a low-frequency pad infect leggings users.

The present invention takes this point into consideration and deposits silver with a uniform thickness on a non-stretchable fabric constituting the low-frequency pad, and integrally attaches each layer constituting the low-frequency pad using a breathable hot melt film, so that silver is directly applied to the skin. The purpose is to provide a diet leggings and a method for manufacturing the same that can prevent mineral allergies such as scleroderma in advance while obtaining a sterilization effect by preventing contact.

In particular, the present invention uses fabrics having far-infrared radiation, heat generation, and temperature raising functions for the outer and inner skin constituting the leggings, respectively, so that materials having infrared radiation and heat generation functions are uniformly and effectively penetrated and coated, resulting in far-infrared radiation and heating effects. Another object is to provide excellent diet leggings and a manufacturing method thereof.

In addition, another object of the present invention is to provide a diet leggings and a method for manufacturing the same, which can maximize the beneficial and sterilizing and antibacterial effects of the human body by effective radiation of the far-infrared ray radiation and heating function of the fabric by using such a fabric. there is

Diet leggings and a manufacturing method according to the present invention for achieving this object, when the leggings are manufactured by integrally attaching the outer skin (10 ') and the inner skin (10 "), several low-frequency pads ( 30) is inserted into the low-frequency pad 30, a non-stretch fabric 31 in which silver is deposited on at least one of both sides of the low-frequency pad 30; An air permeable hot-melt film 33 formed on the outer periphery of the fabric 31 and knitting 32 and the low-frequency pad 30; and installed to be exposed to the outside through the outer shell 10' to supply external power to the copper A connection terminal 34 that is connected and separated so as to be supplied; is included; The outer shell 10 'and the inner shell 10" are each composed of 46 to 63% by weight of silicon oxide, 7 to 9% by weight of feldspar oxide, and borax 10 to 20% by weight, 4 to 6% by weight of boric acid, 2 to 4% by weight of potassium carbonate, 1 to 1.2% by weight of saltpeter, 3 to 7% by weight of alumina hydroxide, 1.4 to 1.6% by weight of limestone, 0.8 to 1% by weight of barium carbonate , 0.7 to 0.9% by weight of lithium, 1 to 1.3% by weight of zircon, 0.2 to 0.4% by weight of phosphoric acid, 3.2 to 3.5% by weight of carbon, and 0.3 to 0.5% by weight of magnesium carbonate. A first process of mixing and stirring; A second step of melting the mixture mixed and stirred in the first step by putting it into a melting furnace at 1,300 to 1,600 ° C; a third step of cooling and decomposing the mixture melted in the second step by putting it into cooling water; A fourth process of powdering the mixture cooled and decomposed in the third process into nano-sized particles; A fifth step of mixing the powdered mixture in the fourth step with ionized water at a ratio of 5:5 and capsaicin at a ratio of 9:1; A sixth step of heating and maintaining the processed fabric at 80 to 90 ° C. for 1 to 2 hours by injecting the processed fabric into the solution mixed in the fifth step; A seventh process of correcting for 30 to 40 minutes while maintaining the solution at 30 to 40 ° C after heating in the sixth process; It is characterized by including; an eighth process of dehydrating the fabric after correction in the seventh process and then slowly drying it at room temperature.

In particular, the present invention includes diet leggings, characterized in that manufactured by the above-described manufacturing method of the diet leggings.

Diet leggings and a manufacturing method according to the present invention have the following effects.

(1) By depositing and using silver, which has sterilization and antibacterial action, on a non-stretch fabric by deposition method, silver can be deposited evenly on the fabric to a desired thickness, so that a constant resistance value of silver can be obtained. Accordingly, sterilization and antibacterial action can be obtained evenly through the deposited silver.

(2) As such, the silver-deposited fabric is inserted between the outer skin and the inner skin together with the copper-coated knitting to form an integral body, so that the silver does not directly touch the leggings user's skin, thereby preventing mineral allergies such as the silver skin layer (Argyria). can

(3) In addition, as described above, since the copper is coated on the knitted fabric and used, the knitted fabric contains as much moisture as the knitted fabric stretches, thereby enhancing the low-frequency effect.

(4) On the other hand, when attaching the fabric and knitting integrally, by using an air permeable hot melt film, it is possible to easily attach them by applying heat and pressure in a laminated state and increase the ventilation effect.

(5) And the outer and inner skins are stirred with silicon oxide, feldspar oxide, borax, boric acid, potassium carbonate, saltpeter, alumina hydroxide, limestone, barium carbonate, lithium, zircon, phosphoric acid, carbon, and magnesium carbonate, which are far-infrared emitting minerals, respectively. After mixing, high-temperature melting, and cooling in cooling water, the glass particles are powdered into nano-sized particles and stirred with ionized water to obtain a mixture of capsaicin in the liquid phase, and the fabric is put into a state where the fabric is heated, calibrated, dehydrated, and dried to obtain the fabric. By uniformly and effectively penetrating and coating a material with far-infrared radiation and heating function, it has excellent far-infrared radiation and heat generation and can obtain a temperature increase effect of about 1 ~ 2 ℃.

(6) In addition, the benefit of the human body and sterilization and antibacterial action can be maximized by effective radiation of far-infrared radiation and heat generation of the outer and inner skins made of these fabrics.

(7) In the low-frequency pad according to the present invention, the low-frequency effect can be further enhanced by applying a functional gel to the skin of the user facing the low-frequency pad and supplying sufficient moisture to the skin.

[Figure 1] is a view showing the front (a) and rear (b) of the leggings according to the present invention.
[Figure 2] is a cross-sectional view exploded to show the layer structure of the low-frequency pad constituted in the leggings according to the present invention.
[Figure 3] is a thermal imaging test photograph of a conventional plain fabric.
[Figure 4] is a thermal imaging test photograph of the fabric used as the outer skin and the inner skin according to the present invention.
[Figure 5] is a graph of the radiation energy measurement results of the fabric used as the outer skin and the inner skin according to the present invention.
[Figure 6] is a graph of emissivity measurement results of fabrics used as outer and inner skins according to the present invention.

Hereinafter, preferred embodiments of the present invention will be described in more detail with reference to the accompanying drawings. Prior to this, the terms or words used in this specification and claims should not be construed as being limited to their usual or dictionary meanings, and the inventors should properly define the concept of terms in order to best explain their invention. According to the principle that it can be interpreted as meaning and concept consistent with the technical spirit of the present invention.

Therefore, since the embodiments described in this specification and the configurations shown in the drawings are only one of the most preferred embodiments of the present invention and do not represent all of the technical spirit of the present invention, various equivalents that can replace them at the time of this application It should be understood that there may be variations.

[Production method of leggings]

In the manufacturing method of diet leggings according to the present invention, when manufacturing leggings by integrally attaching the outer skin (10') and the inner skin (10") as shown in [Figs. It is configured by inserting several low-frequency pads 30 and manufacturing them integrally.

At this time, the low-frequency pad 30 includes a fabric 31, a knitting 32, a breathable hot melt film 33, and a connection terminal 34, and the fabric 31 is layered by a silver deposition method And, by coating the knitted fabric 32 with copper so that it can be used for low frequency generation, silver is not only uniformly deposited on the non-stretching fabric 31, but also prevents direct contact with the skin so that it can be safely used and has sterilization and antibacterial action In addition, the water content can be increased through the knitting 32, so that the low-frequency effect can be further enhanced. In addition, by integrally attaching between the fabric 31 and the knitted fabric 32 using a breathable hot melt film 33, it is possible to increase the ventilation effect while easily attaching through heat and pressure.

On the other hand, the outer skin (10 ') and the inner skin (10 "), respectively, Patent No. 10-1064028 (title of the invention: "Manufacturing method of fabric having far-infrared radiation, heat generation and temperature raising function and A fabric by the fabric prepared thereby") is used, and the fabric is made of far-infrared ray emitting minerals such as silicon oxide, feldspar oxide, borax, boric acid, potassium carbonate, saltpeter, alumina hydroxide, limestone, barium carbonate, lithium, zircon, Phosphoric acid, carbon, and magnesium carbonate are stirred and mixed, melted at high temperature, and cooled in cooling water, and then powdered into nano-sized particles on glass and stirred with ionized water. By drying and processing, by uniformly and effectively penetrating and coating the obtained fabric with a far-infrared radiation and heating function, far-infrared radiation and heat generation are excellent, and a temperature increase effect of about 1 to 2 ° C can be obtained. The far-infrared ray emission and heating function of the outer and inner skins made of is able to maximize the benefit of the human body and sterilization and antibacterial action by effective radiation function.

Hereinafter, this configuration will be described in more detail with reference to the accompanying drawings. Here, the present invention will be divided into a structure for manufacturing diet leggings and a manufacturing method for manufacturing an outer skin and an inner skin among these layered structures. In the drawing, the 'low frequency generator' is portable and is illustratively displayed so as to look long to show the connection state of several low frequency pads 30 in the drawing.

(layer structure of leggings)

Diet leggings according to the present invention, as shown in [Figs. 1] and [Fig. 2], when the leggings are manufactured by integrally attaching the outer skin (10') and the inner skin (10"), several low frequencies are applied to the band portion of the leggings. It is integrally formed by inserting the pad 30. Here, the manufacturing method of the outer skin 10' and the inner skin 10" will be described later, and the configuration of the low-frequency pad 30 will be mainly described.

go. low frequency pad

The low-frequency pad 30 includes a fabric 31, a knitted fabric 32, an air permeable hot melt film 33, and a connection terminal 34, as shown in [FIG. 1] and [FIG. 2]. These low-frequency pads 30 are disposed in the band portion of the leggings, but preferably disposed at least one at least at positions facing at least the lower abdomen and the waist.

1. Fabric

As the fabric 31, as shown in [Fig. 2], silver is deposited on at least one side of both sides. This allows sterilization and antibacterial action to be performed through silver, and at this time, by integrating silver into the fabric 31 by a deposition method, silver is deposited with a uniform thickness over the entire surface of the fabric 31 to have a certain resistance. It is configured so that antibacterial and sterilizing action can be achieved. And since the fabric 31 does not stretch easily, it minimizes the expansion and contraction of the deposited silver so that a predetermined resistance value can always be maintained. These fabrics may be used for fabrication of the outer shell 10' and the inner shell 10", which will be described later.

In addition, in a preferred embodiment of the present invention, the fabric 31 is configured to be attached to the surface close to the outer skin 10 'to be described later, as shown in [Fig. 2], so that the inner skin 10" and the fabric 31 It is preferable to have a structure in which a knitting 32, which will be described later, is inserted between them so that the deposited silver can be prevented from directly touching the skin and the antibacterial and sterilizing effects can be further enhanced.

2. Knitting

Knitting 32 is disposed facing the fabric 31 described above, as shown in FIG. 2 . At this time, by coating one side of the knitted fabric 32 with copper, a low-frequency effect can be obtained by controlling a low-frequency generator through a connection terminal 34 to be described later. At this time, unlike the fabric 31, the knitted fabric 32 is stretched as it is pulled to both sides, so that more moisture (moisture) is held in the knitted fabric 32 to further increase the low-frequency effect. It is preferable to configure do.

3. Breathable hot melt film

As shown in FIG. 2, the air permeable hot melt film 33 is formed in the form of a film with a kind of adhesive made of a thermoplastic resin, and a ventilation hole having a predetermined diameter is formed through the entire one side. In particular, the breathable hot melt film 33 may be used only between the fabric 31 and the knitted fabric 32, or may be used when attaching the low-frequency pad 30 to the outer skin 10' and the inner skin 10". Such an air permeable hot melt film 33 is manufactured in the form of a film and can be easily attached and used as heat and pressure are applied, and a conventional technique that can obtain a ventilation effect through an adhesive surface is used.

4. Connection terminal

The connection terminal 34 is a terminal for connecting the low-frequency pad 30 and a portable low-frequency generator plugged into leggings, as shown in [FIG. 1] and [FIG. 2]. Therefore, it is preferable that the connection terminal 34 is mounted so that it can be separated from or assembled from the low frequency pad 30 so that it can be used only with leggings without using a portable low frequency generator. These connection terminals 34 can use a structure that can be connected/disconnected in various ways, such as a connector form or a harness connection form, but it is manufactured in the form of a snap button so that anyone can easily and conveniently connect the connection terminal 34 to a low-frequency It is desirable to configure it so that it can be connected to or disconnected from the generator.

The low-frequency pad 30 made as described above can further enhance the effect by using a low frequency while supplying sufficient moisture to the skin by applying a functional gel to the user's skin facing the low-frequency pad 30, to which the present invention belongs. Anyone working in the technical field can easily understand this.

me. outer and inner skin

As shown in [Fig. 1] and [Fig. 2], the outer skin (10') and the inner skin (10") are fabrics having far-infrared radiation, heat generation, and temperature rise functions, which are manufactured through the following 8 steps, respectively. Here, the fabric used for the outer shell 10' and the inner shell 10" is described as being different from the aforementioned fabric 31, but as described above, the outer shell 10' and the inner shell are made of the fabric 31. It does not matter if the fabric used for (10") is used.

Method for producing a fabric having far-infrared radiation, heat generation and temperature raising function according to the present invention, 46 to 63% by weight of silicon oxide, 7 to 9% by weight of feldspar oxide, 10 to 20% by weight of borax, 4 to 6% by weight of boric acid, Potassium carbonate 2-4 wt%, saltpeter 1-1.2 wt%, alumina hydroxide 3-7 wt%, limestone 1.4-1.6 wt%, barium carbonate 0.8-1 wt%, lithium 0.7-0.9 wt%, zircon 1-1.3 wt% %, a first step of mixing and stirring 0.2 to 0.4% by weight of phosphoric acid, 3.2 to 3.5% by weight of carbon, and 0.3 to 0.5% by weight of magnesium carbonate; A second step of melting the mixture mixed and stirred in the first step by putting it into a melting furnace at 1,300 to 1,600 ° C; a third step of cooling and decomposing the mixture melted in the second step by putting it into cooling water; A fourth process of powdering the mixture cooled and decomposed in the third process into nano-sized particles; A fifth step of mixing the powdered mixture in the fourth step with ionized water at a ratio of 5:5 and capsaicin at a ratio of 9:1; A sixth step of heating and maintaining the processed fabric at 80 to 90 ° C. for 1 to 2 hours by injecting the processed fabric into the solution mixed in the fifth step; A seventh step of correcting for 30 to 40 minutes while maintaining the solution at 30 to 40 ° C after heating in the sixth step; and an eighth process of dehydrating the fabric after correction in the seventh process and then slowly drying it at room temperature.

In particular, in the first process, various minerals are mixed at a certain mixing ratio to integrate the functions of each mineral. That is, silicon oxide, feldspar oxide, borax, boric acid, potassium carbonate, saltpeter, alumina hydroxide, limestone, barium carbonate, lithium, zircon, phosphoric acid, carbon, magnesium carbonate are used as minerals used as far-infrared emitting materials according to the present invention. do. At this time, the far-infrared ray emitting mineral is 46 to 63% by weight of silicon oxide, 7 to 9% by weight of feldspar, 10 to 20% by weight of borax, 4 to 6% by weight of boric acid, 2 to 4% by weight of potassium carbonate, and 1 to 1.2% by weight of nitrite. %, alumina hydroxide 3-7 wt%, limestone 1.4-1.6 wt%, barium carbonate 0.8-1 wt%, lithium 0.7-0.9 wt%, zircon 1-1.3 wt%, phosphoric acid 0.2-0.4 wt%, carbon 3.2-3.5 A mixing ratio of 0.3 to 0.5 wt% of magnesium carbonate is preferable for effective far-infrared radiation.

In addition, it is preferable to mix capsaicin in a ratio of 9: 1 to a solution obtained by mixing the powdered mixture with ionized water in a ratio of 5: 5 in the fifth step. If the capsaicin is mixed too much, skin rashes may be caused and too much This is because if you mix less, the degree of feeling heat due to microvascular dilation is remarkably reduced.

In the sixth step, in the process of heating and maintaining the mixed solution into which the processed fabric is added at 80 to 90 ° C. for 1 to 2 hours, penetration and coating of the mixture particles are achieved. If the temperature is lower, penetration and coating of the mixture particles are effective. This is because if the temperature is higher than this, it causes damage to the fabric.

In addition, in the seventh process, the mixed solution into which the processed fabric is added is maintained at 30 to 40 ° C and corrected for 30 to 40 minutes to penetrate the fabric and form a more stable state of the coated mixture particles. If the temperature is lower or higher This is because effective correction work is difficult.

The present invention stirs and mixes silicon oxide, feldspar oxide, borax, boric acid, potassium carbonate, saltpeter, alumina hydroxide, limestone, barium carbonate, lithium, zircon, phosphoric acid, carbon, and magnesium carbonate, which are far-infrared emitting minerals, in melting and cooling water A mixture of nano-sized mixed powder, ionized water, and capsaicin, which is decomposed into glass particles, is heated, and a fabric is put into the fabric to infiltrate and coat the fabric with a material that emits far-infrared rays and generates heat, and then corrects , dehydration and drying to produce fabrics with far-infrared radiation and heating functions.

The manufacturing method of the present invention preferably works together with the dyeing process in the dyeing process of the fabric.

(Fabric for outer skin and inner skin)

In the present invention, 46 to 63% by weight of silicon oxide, 7 to 9% by weight of feldspar oxide, 10 to 20% by weight of borax, 4 to 6% by weight of boric acid, 2 to 4% by weight of potassium carbonate, 1 to 1.2% by weight of nitrate, alumina hydroxide 3 to 7% by weight, limestone 1.4 to 1.6% by weight, barium carbonate 0.8 to 1% by weight, lithium 0.7 to 0.9% by weight, zircon 1 to 1.3% by weight, phosphoric acid 0.2 to 0.4% by weight, carbon 3.2 to 3.5% by weight, carbonic acid 0.3~0.5% by weight of magnesium is mixed and stirred, melted in a melting furnace at 1,300~1,600℃, poured into cooling water, cooled, decomposed, and pulverized into nano-sized particles, and capsaicin is mixed with ionized water at a ratio of 5:5 to 9:1 After mixing, the processed fabric is added, heated and maintained at 80 to 90 ° C for 1 to 2 hours, corrected for 30 to 40 minutes while maintaining at 30 to 40 ° C, and then dehydrated and dried. and endothelium (10").

The fabric of the present invention is made by mixing and powdering far-infrared ray emitting minerals such as silicon oxide, feldspar oxide, borax, boric acid, potassium carbonate, nitrite, alumina hydroxide, limestone, barium carbonate, lithium, zircon, phosphoric acid, carbon, and magnesium carbonate into nano-sized particles. Then, the mixed solution with ionized water and capsaicin is added to the fabric, and heating and correction are performed so that the material having far-infrared radiation and heating function penetrates and coats the fabric tissue uniformly and excellently. That is, the fabric of the present invention is excellent in far-infrared radiation and provides a temperature raising function of about 1 to 2 ° C.

As such, the fabric of the present invention is excellent in far-infrared radiation, heat generation and temperature rise, thereby providing excellent benefits to the human body and sterilization and antibacterial action.

Next, examples of fabrics used for outer skin and inner skin according to the present invention and various experimental examples using the same will be described.

(Example)

Silicon oxide 55 wt%, feldspar oxide 8 wt%, borax 15 wt%, boric acid 5 wt%, potassium carbonate 3 wt%, saltpeter 1 wt%, alumina hydroxide 4.6 wt%, limestone 1.5 wt%, barium carbonate 1 wt%, 0.8% by weight of lithium, 1.2% by weight of zircon, 0.3% by weight of phosphoric acid, 3.2% by weight of carbon, and 0.4% by weight of magnesium carbonate were mixed and stirred to melt in a melting furnace at 1,500 ° C, and then poured into cooling water to decompose, and the decomposed mixture Powdered to nano size and mixed with ionized water at a ratio of 5:5 to capsaicin at a ratio of 9:1, then inserting the processed fabric, heating it at 85°C for 1.5 hours, and maintaining it at 40°C for 40 minutes. After correction, dehydration and drying were performed to prepare a fabric.

(Experimental Example 1)

Infrared thermal images were measured for the fabric of the present invention and the general fabric prepared in the above example using an infrared thermal imaging device. At this time, as a result of testing with an infrared thermal imaging device at a room temperature of 23 ° C and a humidity of 29%, it can be confirmed that the fabric of the present invention shown in [Fig. 4] has a superior heating effect compared to the general fabric shown in [Fig. 3]. there was.

(Experimental Example 2)

Radiant energy and emissivity of the fabric of the present invention prepared by the above example were measured. At this time, as a result of measuring the radiant energy and emissivity compared to the BLACK BODY using an FT-IR Spectrometer at a room temperature of 37 ° C, the radiant energy was measured as 3.45 × 10² (W / ㎡㎛) as shown in [Fig. 5], [ As shown in FIG. 6, the emissivity was measured to be 0.894 (5 to 20 μm), confirming that the far-infrared radiation efficiency was excellent.

(Experimental Example 3)

Socks were prepared using the fabric of the present invention prepared in the above example, and far-infrared radiation, antibacterial, and anti-odor properties were tested by comparing socks made of conventional far-infrared radiation fabrics, and the results shown in Table 1 below were obtained.

At this time, the antibacterial and antiodor tests were confirmed after having 10 people each with athlete's foot fungus and foot odor wear socks for one week.

far infrared radiation

antibacterial
anti-odor
Example

◎
◎
◎
comparative example

○
○
○
◎: excellent improvement effect, ○: average improvement effect, △: poor improvement effect

That is, it was confirmed that the socks manufactured according to the embodiment of the present invention have far-infrared radiation, antibacterial, and anti-odor effects far superior to conventional far-infrared radiation socks.

[Leggings]

The present invention includes leggings manufactured by the manufacturing method of the above-described leggings.

10', 10": outer skin, inner skin
30: low frequency pad
31: fabric
32: knitting
33: breathable hot melt film
34: connection terminal

Claims (2)

When manufacturing leggings by integrally attaching the outer skin (10') and the inner skin (10"), several low-frequency pads (30) are inserted into the band portion of the leggings to be integrally manufactured,
The low-frequency pad 30 includes a non-stretch fabric 31 in which silver is deposited on at least one side of both sides; Stretching knit 32 coated with copper on one side; an air permeable hot melt film 33 formed on outer peripheries of the fabric 31 and the knitted fabric 32 and the low frequency pad 30; And a connection terminal 34 installed to be exposed to the outside through the shell 10 'and connected and separated to supply external power to the copper; included,
The outer shell (10') and the inner shell (10") are each composed of 46 to 63% by weight of silicon oxide, 7 to 9% by weight of feldspar oxide, 10 to 20% by weight of borax, 4 to 6% by weight of boric acid, and 2 to 6% by weight of potassium carbonate. 4% by weight, 1 to 1.2% by weight of saltpeter, 3 to 7% by weight of alumina hydroxide, 1.4 to 1.6% by weight of limestone, 0.8 to 1% by weight of barium carbonate, 0.7 to 0.9% by weight of lithium, 1 to 1.3% by weight of zircon, 0.2% by weight of phosphoric acid 0.4% by weight of carbon, 3.2 to 3.5% by weight of carbon, 0.3 to 0.5% by weight of magnesium carbonate are mixed and stirred in the first process; In the first process, the mixed and stirred mixture is put into a melting furnace at 1,300 to 1,600 ° C and melted Step 2; Step 3 of cooling and decomposing the mixture melted in step 2 into cooling water; Step 4 of pulverizing the mixture cooled and decomposed in step 3 into nano-size particles; Step 4 of Fifth step of mixing the powdered mixture with ionized water at a ratio of 5:5 and capsaicin at a ratio of 9:1; Processed fabric is added to the solution mixed in the fifth process and heated to 80 to 90 ° C. 6th process of heating and maintaining for time; 7th process of correcting for 30 to 40 minutes while maintaining the solution at 30 to 40°C after heating in the 6th process; and Eighth process of drying; manufacturing method of diet leggings comprising a.
Diet leggings, characterized in that produced by the manufacturing method of the diet leggings according to claim 1.

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