KR100794778B1 - Tourmaline containing silicon patch - Google Patents

Abstract

A tourmaline-containing silicone patch is provided to restrain ripping by interposing a fiber sheet between upper and lower patches and to prevent a burn caused due to quick overheating. A tourmaline-containing silicone patch(2) is composed of: an upper patch(10) formed by compressing and molding silicone; a lower patch(20) containing the mixture of silicone and tourmaline; and a fiber sheet(30) installed between the upper and lower patches to prevent the patches from being rapidly heated and increase mechanical strength of the patch. The fiber sheet is a plane-type heating element made of carbon yarns heated in receiving power. The plane-type heating element comprises a heating unit consisting of general fiber threads arranged in a warp form and carbon fiber threads arranged in a weft form, and a conductive unit including conductive threads arranged at both edges of the heating unit across the carbon fiber threads.

Description

Tourmaline containing silicon patch

1 is a perspective view showing the configuration of a tourmaline-containing silicone patch according to an embodiment of the present invention.

Figure 2 is an exploded perspective view showing the configuration of a silicone patch containing tourmaline according to an embodiment of the present invention.

Figure 3 is a perspective view showing the configuration of a silicone patch containing tourmaline according to another embodiment of the present invention.

Figure 4 is a perspective view showing the configuration of a tourmaline-containing silicone patch according to another embodiment of the present invention.

5 is an exploded perspective view showing the configuration of a patch manufacturing apparatus according to the present invention.

Figure 6 is a perspective view showing the bottom configuration of the intermediate module according to the present invention.

7 and 8 are a perspective view and a cross-sectional view respectively showing the configuration of a patch manufacturing apparatus intervening an intermediate module according to the present invention.

9 and 10 are a perspective view and a cross-sectional view respectively showing the configuration of the patch manufacturing apparatus is removed from the intermediate module according to the present invention.

Figure 11 is a perspective view showing a patch manufacturing process seated on the lower patch according to the present invention.

12 is a perspective view showing a patch manufacturing process seated on the upper patch according to the present invention.

Figure 13 is a perspective view showing a patch manufacturing process in which the upper module is covered in a state in which the intermediate module according to the present invention.

Figure 14 is a perspective view showing a patch manufacturing process seated on the lower holder module according to the present invention.

Figure 15 is a perspective view showing a patch manufacturing process in which the module of the present invention is pressed onto the upper holder.

16 is a perspective view illustrating a patch manufacturing process in which the middle module according to the present invention is removed from the upper and lower modules.

Figure 17 is a perspective view showing a patch manufacturing process seated fibrous paper according to the present invention.

18 is a perspective view illustrating a patch manufacturing process in which an upper module is covered in a state in which an intermediate module according to the present invention is removed;

19 is a perspective view illustrating a patch manufacturing process in which a patch according to the present invention is separated from a module.

** Description of Codes for Major Configurations of Drawings **

2: patch 10: upper patch

20: lower patch 30: fiber paper

40: planar heating element 42: general fiber yarn

44: carbon fiber yarn 46: conductive yarn

100: patch manufacturing apparatus 110: upper module

112: upper patch forming groove 114, 124: hinge portion

116: handle 118: guide pin

120: lower module 122: lower patch molding groove

128, 138: pinhole 130: intermediate module

130a: upper surface of the middle module 130b: lower surface of the middle module

132: forming protrusion 150: upper holder

160: lower holder

The present invention relates to a silicone patch containing tourmaline, and more particularly, to form an upper patch using only silicon suitable for compression molding and excellent in heat resistance, and a permanent anion with silicon as a main raw material and without electricity. The lower patch is formed by adding tourmaline that generates far infrared rays and zeolite which increases metabolism and immunity with ion exchange, and increases the mechanical strength of the patch between the upper patch and the lower patch and prevents rapid overheating of the patch. The patch relates to a secondary molded patch.

In general, as a pad for attaching the body, a 'foaming agent' or a 'paste' and the like are known, which are provided by applying a pressure-sensitive adhesive mixed with a drug on one surface of a substrate having an approximately square shape, and attaching the pressure-sensitive adhesive part to a release paper.

Such poultices or pastes are usually composed of anti-inflammatory and analgesics, and when adhered to the affected part, drug ingredients contained in the adhesive are allowed to penetrate into the skin.

However, these poultices or pastes are not taken, injected, or applied directly to the affected area, but because the drug ingredients contained in the adhesive are absorbed through the skin in contact with them, the drug effect drops after a certain time and is removed. There is a problem that can not be used permanently.

In addition, the conventional poultice or paste is prepared for the purpose of alleviating joint pain or muscle pain, so that only the effect of the effect on the skin of the pain area does not penetrate deep into the skin, there is also a side effect that the skin crush or open.

There are many patches of high hardness among the patches used semi-permanently, but they are not suitable for the physical condition.

Accordingly, the present invention has been made to solve the problems of the prior art as described above, an object of the present invention is to provide a permanent patch that does not degrade the effect of long-term use.

Another object of the present invention is to provide a silicone patch that is easy to compression molding and hard to tear.

It is still another object of the present invention to provide a silicone patch containing tourmaline that is suitable for any part of the body and does not cause skin disease or the like on the skin in contact with the patch even after prolonged use.

According to a feature of the present invention for achieving the above object, the present invention is a top patch compression molded of silicon, a lower patch mixed with tourmaline that emits far infrared rays and anions in addition to silicon, and the upper patch and the lower patch A fiber paper installed between to prevent rapid heating of the patch and to increase the mechanical strength of the patch; It is configured to include.

The addition of zeolite having ion exchangeability and catalytic functionality to the lower patch further enhances the anion effect and far-infrared radiation effect of the tourmaline.

The relative weight of the silicone, tourmaline and zeolite is composed of 8 to 16 parts by weight of tourmaline and 1 to 5 parts by weight of zeolite relative to 100 parts by weight of the silicon.

The width of the fiber paper is cut about 2.5 mm smaller than the width of the upper and lower patches.

The overall thickness of the patch is about 3.5 mm, and the thickness of the fiber paper 30 is about 0.1 mm to about 0.2 mm.

The fiber paper is a mesh paper fabric so that the silicon is melted and absorbed well.

The fiber paper is a planar heating element of carbon yarn that generates heat when power is applied.

The planar heating element may include a carbon fiber yarn in which a regular fiber yarn arranged in an inclined manner, a heat generating portion H formed of a carbon island-like array arranged in a weft yarn, and conductive yarns are arranged on both edges of the heat generating portion H instead of ordinary fiber yarn. It consists of the electroconductive part E which crosses.

According to the silicone patch containing tourmaline according to the present invention having such a configuration there is an advantage that can be used semi-permanently.

Hereinafter, a preferred embodiment of the tourmaline-containing silicon patch according to the present invention having the configuration as described above will be described in detail with reference to the accompanying drawings.

As shown in FIGS. 1 and 2, the tourmaline-containing silicon patch 2 according to the present invention includes an upper patch 10 containing silicon as a main material, and a lower patch including tourmaline and zeolite in addition to silicon. 20 and is composed of the fiber paper 30 is installed between the upper patch 10 and the lower patch 20 to strengthen the mechanical strength of the patch (2).

Therefore, the components of the material used for the upper patch 10 and the material used for the lower patch 20, and the compounding ratio thereof are respectively different. That is, the upper patch 10 is formed of silicon as a raw material, but the lower patch 20 directly contacting the skin further includes functional materials such as tourmaline and zeolite that emit far infrared rays and anions in addition to the silicon.

In particular, the raw material of the lower patch 20 is composed of silicon, tourmaline and zeolite, the relative weight of the silicon, tourmaline and zeolite is 8 to 16 parts by weight tourmaline, 1 to 5 parts by weight zeolite relative to 100 parts by weight of the silicon It is preferred to be configured.

When the amount of tourmaline exceeds 16 parts by weight of silicone, the reactivity of the tourmaline increases with respect to the human body, and thus the degree of Myung-Hyun's response is increased. A sharp response that causes redness or itching is suddenly triggered. When the tourmaline is less than 8 parts by weight based on 100 parts by weight of the silicone, there is a problem in that the effect of the tourmaline addition is not great and does not properly produce a useful reaction to the human body.

When the blending ratio of zeolite with respect to 100 parts by weight of the silicon exceeds 5 parts by weight, the zeolite greatly stimulates the tourmaline movement to cause the queen bee effect, and in particular, when more than 7 parts by weight, suddenly stimulates the movement of tourmaline There is a problem that the queen bee effect is large. If the blending ratio of the zeolite is less than 1 part by weight based on 100 parts by weight of the silicon, there is a problem that the tourmaline stimulating effect of the zeolite is insufficient.

One exemplary formulation for the relative weight of the raw material of the lower patch 20 may be 85: 12: 3.

This is because when the upper patch 10 and the lower patch 20 are made of the same silicone and bonded, since the upper patch 10 and the lower patch 20 have the same hardness and physical properties, the upper patch 10 and the lower patch 20 This is because the patches 20 do not adhere well to each other, and the adhesive sites easily crack and cause defects. That is, the hardness of the upper patch 10 made of silicon is higher than the lower patch 20 mixed with tourmaline and zeolite.

The width and shape of the patch 2 are not limited, and the size and shape of the patch 2 may be sufficient. However, the shape of the fiber paper 30 corresponds to the shape of the upper patch 10 and the lower patch 20, the width is cut to about 2.5 mm smaller than the width of the upper, lower patches. As will be described later, the silicon may expand or contract when it is heated.

The overall thickness of the patch 2 is about 3.5 mm, and the thickness of the fiber paper 30 is preferably about 0.1 mm to about 0.2 mm.

On the other hand, the fiber paper 30 is used in the form of mesh paper so that the silicon is melted and absorbed well, it is preferable to use a cross-stitch fabric having a constant interval between the mesh. The fiber paper 30 prevents rapid heating when the patches 10 and 20 are heated against the affected part and prevents the patches 10 and 20 from being torn by increasing the mechanical strength of the patches 10 and 20.

As shown in Figure 3 and 4, the fiber paper 30 may be a planar heating element 40 may be used.

Weaving the heat generating portion (H) consisting of a regular fiber yarn 42 arranged in an inclined direction, and a carbon fiber yarn 44 arranged in a weft yarn, and instead of the normal fiber yarn 42 on both sides of the heat generating portion (H) By arranging the conductive yarns 46 to weave the conductive portions E intersecting with the carbon fiber yarns 42, a planar heating element 40 is produced, and when a current is applied to the conductive yarns 46, a resistance is obtained. Heat is generated in the relatively large carbon fiber yarn 44.

Silicone, which is a main component of the patch 2, is a translucent material, which is suitable for compression molding, and has excellent heat resistance as well as excellent mold releasability.

Tourmaline, which is added only to the lower patch 20, is a natural material that is very beneficial to the human body to generate permanent anions and far infrared rays without using electricity, thereby permanently releasing beneficial anions into the body to strengthen the immune system of the autonomic nervous system, and It improves the natural healing power by preserving the bio-current flowing in the air, while releasing a large amount of far infrared rays to warm the body to activate cells and protect body temperature.

Although it is already well known, when far-infrared rays are shot on body parts that exhibit various pains such as muscle pain, stiffness or numbness, the far-infrared irritates the pain areas, promotes blood circulation, and relaxes the muscles.

In addition, the anion is excellent in reducing power to reduce the acidified skin due to aging, inflammation, or fatigue to weak alkaline, and also serves to reduce harmful substances such as bacteria.

Thus, tourmaline radiating far infrared rays penetrates deep into the body, activates atoms or molecules in the body, and releases various wastes in the body to promote metabolism, thereby contributing to cell regeneration and fatigue recovery.

The zeolite decomposes heavy metals and dead cells, regenerates them into new cells, and functions to increase immunity. In this way, the addition of zeolite with high ion exchange to the tourmaline generates much more negative ions and far infrared rays than when only tourmaline is added. In other words, zeolite has excellent ion exchangeability and catalysis, thus maximizing the effect of tourmaline.

As shown in FIG. 5, the patch manufacturing apparatus 100 according to the present invention includes an upper module 110 in which the upper patch 10 is formed, a lower module 120 in which the lower patch 20 is formed, and The upper patch 10 is installed between the upper module 110 and the lower module 120 to compress the upper patch 10 and the lower patch 20 and not to mix the upper patch 10 and the lower patch 20. And the intermediate module 130 used only in the process of manufacturing the lower patch 20.

The lower surface of the upper module 110 is provided with an upper patch forming groove 112 having a shape of a desired upper patch 10 to a predetermined depth, the upper surface of the lower module 120 of the desired lower patch 20 A lower patch forming groove 122 having a shape is provided to a predetermined depth.

As shown in FIG. 5, the upper surface 130a of the intermediate module 130 is formed into a flat surface, but as shown in FIG. 6, the bottom surface 130b corresponds to the shape of the lower patch molding groove 122. The fiber paper forming protrusion 132 is provided. The fiber paper forming protrusion 132 is to provide a space so that the fiber paper 30 inserted between the upper patch 10 and the lower patch 20 is seated. Therefore, the height of the forming protrusion 132 corresponds to the thickness of the fiber paper 30. Although there are differences depending on the thickness of the fiber paper 30, about 0.1 mm to about 0.2 mm is most suitable.

The intermediate module 130 is necessary only in the process of forming the upper patch 10 and the lower patch 20, and completes the pad by inserting the fiber paper 30 between the upper patch 10 and the lower patch 20. It is not used in the process.

The upper module 110 and the lower module 120 is provided with hinges 114 and 124 on one side, so that the upper module 110 can hinge up and down with respect to the lower module 120, and the hinge portion ( On the opposite end of the 114, 124, the handle 116 is installed on the upper module to help the rotation of the upper module 110.

Meanwhile, the hinge parts 114 and 124 have different functions in the first compression heating process using the intermediate module 130 and the second compression heating process not using the intermediate module 130. As shown in FIGS. 7 and 8, in the first compression heating process, the intermediate module 130 is inserted between the upper module 110 and the lower module 120 so that the upper hinge 124 is inserted into the upper hinge 124. Unsigned) is formed so that the fixing bolt (not shown) is positioned at the upper side, but as shown in FIGS. 9 and 10, between the upper module 110 and the lower module 120 in the second compression heating process. Since the intermediate module 130 is removed, the fixing bolt is located below the long hole.

In addition, as illustrated in FIG. 5, the upper module 110 and the lower module 120 include a plurality of guide pins 118 and a plurality of guide pins 118 to align the upper module 110 and the lower module 120 in a crimping process. Pin holes 128 are provided. A plurality of pin holes 138 through which the guide pin 118 penetrates the edge of the intermediate module 130 is also provided.

Hereinafter, the manufacturing process of the patch according to the present invention having the configuration as described above will be described in detail with reference to the accompanying drawings.

First, prepare the ingredients. The components of the material used for the upper patch 10 and the material used for the lower patch 20 and their blending ratios are different.

The upper patch 10 is molded from silicon, but the lower patch 20 further includes functional materials such as tourmaline and zeolite that emit far infrared rays and anions in addition to the silicon. At this time, as described above, the raw material of the lower patch 20 is such that the relative specific gravity of silicon, tourmaline and zeolite is 85: 12: 3.

If the upper patch 10 and the lower patch 20 are made of the same silicone and bonded, the upper patch 10 and the lower patch 20 have the same hardness and physical properties, and thus do not adhere properly to each other. This is because the site is easily cracked and causes a defect. That is, the hardness of the upper patch 10 made of silicon is higher than the lower patch 20 mixed with tourmaline and zeolite.

As shown in FIG. 11, the raw materials of the upper patch 10 and the lower patch 20 are mixed and cut to a constant weight, and the raw materials of the lower patch 20 are seated in the lower patch forming groove 122. As shown in FIG. 12, the raw material of the upper patch 10 is seated on the upper surface 130a of the intermediate module 130 corresponding to the upper patch forming groove 112, and the intermediate module 130 is attached to the lower module ( 120).

As shown in FIG. 13, the upper module 110 is covered, and as shown in FIG. 14, the modules 110 and 120 are positioned between the upper holder 150 and the lower holder 160 of the press machine. As shown in FIG. 15, the upper holder 150 compresses the modules 110 and 120 while reciprocating up and down.

First, the modules 110 and 120 are first compressed and heated. If the modules 110 and 120 are directly heated to a high temperature, the patches 10 and 20 are not properly formed, and thus, the preheating is sufficiently performed in advance. In the first compression process, it is heated for 60 seconds at a temperature of 110 ℃.

If it is heated for less than 50 seconds, the silicon does not melt well, and if it is heated for 70 seconds or more, the silicon is too ripe and the silicon paper does not penetrate between the fiber papers 30 and the paper paper 30 is pushed away from the patches 10 and 20. It is separated and does not smoothly tighten with silicon.

Next, the fiber paper 30 is inserted and heated in a second manner. As shown in FIG. 16, after the first crimping is completed, the modules 110 and 120 are separated from the lower holder 160, and the upper module 110 is rotated upward to remove the intermediate module 130. As shown in FIG. 17, the fiber paper 30 is placed on the lower patch forming groove 122. As shown in FIG. 18, the upper module 110 is covered and positioned between the upper holder 150 and the lower holder 160 to be compressed as in the first compression heating process.

At this time, the size of the fiber paper 30 is cut about 2.5 mm smaller than the size of the lower patch molding groove 122, that is, the width of the lower patch 20. This is because the silicon may expand due to heating during the second compression, and conversely, may shrink after the compression.

On the other hand, the fiber paper 30 is used in the form of mesh paper so that the silicon is melted and absorbed well, it is preferable to use a cross-stitch fabric having a constant interval between the mesh. The fiber paper 30 prevents rapid heating when the patches 10 and 20 are heated against the affected part and prevents the patches 10 and 20 from being torn by increasing the mechanical strength of the patches 10 and 20.

In the second pressing process, it is heated for 600 seconds at a temperature of 110 ℃. If it is heated below 590, the silicon sticks to the mold and does not fall well. If heated above 610, the patches 10 and 20 swell and cause hardness and elasticity to be poor, causing defects.

As shown in FIG. 19, when the secondary pressing process is completed, the patches 10 and 20 are separated from the upper and lower patch forming grooves 112 and 122. In order to separate the patches 10 and 20 from the forming grooves 112 and 122 well, the sexual grooves 112 and 122 may be surface treated.

The residue generated at the edges of the patches 10 and 20 in the injection process is removed, and the adhesive is applied to the affected part of the consumer using a release paper or tape (pape) coated with an adhesive on top of the patches 10 and 20.

As described above, the present invention is a tourmaline for generating permanent anions and far-infrared rays that promote blood circulation without using electricity, and zeolites that break down heavy metals and dead cells to regenerate new cells and increase immunity to silicon. In addition, it can be seen that the technical concept of the configuration of the patch that penetrates deep into the skin to alleviate pain. Within the scope of the basic technical idea of the present invention, many other modifications will be possible to those skilled in the art.

As described above, according to the configuration of the present invention, the following effects can be expected.

First, it is expected that the effect of satisfying the needs of consumers is expected because the drug does not drop even after repeated use.

Second, since the paper is interposed between the upper patch and the lower patch, the patch does not tear well and the burn is not burned due to rapid overheating.

Claims (8)

delete delete delete delete delete delete An upper patch compression molded of silicone; Bottom patch mixed with silicone and tourmaline; A fiber paper installed between the upper patch and the lower patch to prevent rapid heating of the patch and increase mechanical strength of the patch; It is configured to include, The fiber paper is a tourmaline-containing silicon patch, characterized in that the heating element of the carbon yarn heats when the power is applied. The method of claim 7, wherein The planar heating element, A heat generating portion (H) composed of a general fiber yarn arranged in a warp yarn, a carbon fiber yarn arranged in a weft yarn, Tourmaline-containing silicon patch, characterized in that the conductive portion (E) is arranged on both sides of the heat generating portion (H) instead of the common fiber yarn to cross the carbon fiber yarn.

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