JPH0215510Y2 - - Google Patents

Description

[Detailed description of the invention] Industrial field of application The invention relates to a far-infrared radiating fabric, which is placed inside a part of clothing or inserted into a pocket, etc., wrapped, and pasted so as to be in close contact with appropriate parts of the human body. It's about fabrics that can do things.

Conventional Techniques Traditionally, moxibustion was carried out on acupuncture points on the human body using a battery, a hand warmer using alcohol as a heat source, and a ``moxa'' that burns directly.

Problems that the invention aims to solve The purpose of this invention is to create a far-infrared radiating fabric that does not require a special heat source and does not require replenishment of fuel by using body heat generated from the human body as a heating source. It is something.

Means for Solving the Problem The means employed in the present invention will be explained in accordance with the above-mentioned purpose. A thin ceramic plate 3 made of alumina-based or the like is coated on a reflective paper 2 made of aluminum foil or the like with a large number of holes 1 perforated therein. A far-infrared radiant fabric is formed by laminating a layer of the above materials, and the far-infrared rays are coated with a far-infrared radiant paint 4, and the front and back sides are covered with gauze-like covers 5 and 6. A ceramic thin plate 3 made of alumina or the like is laminated on a reflective paper 2 such as foil, a far infrared radiation paint 4 is applied thereon, a felt-like heat insulating material 7 is overlaid, and the front and back sides are covered with gauze-like covers 5 and 6. This is the structure of the invention described in claim 1 of the covered utility model registration claim.

Function Since the present invention is constructed as described above, when the ceramic thin plate 3 is heated, it emits long-wavelength infrared rays, and coated on it, for example, contains zirconia, silica, alumina, titanium, silicon carbide, etc. Far-infrared radiation paint 4 acts as a converter and emits long-wavelength far-infrared rays, which is repeatedly reflected near the barrier and causes a violent molecular resonance phenomenon, resulting in a much larger amount of far-infrared radiation than the radiation from the ceramic body. Infrared rays are generated, and the far-infrared radiating fabric is constructed by coating the far-infrared radiant paint 4 on the ceramic thin plate 3. For example, if the ceramic thin plate 3 is made of alumina only and the far-infrared radiant paint 4 is coated on the ceramic thin plate 3, If the coating material is made of one or more of zirconia, silica, titanium, silicon carbide, etc., the far-infrared radiation paint 4 can radiate far-infrared rays of wavelengths other than the wavelength range of the far-infrared rays radiated by the ceramic made of alumina. Become something. Therefore, alumina alone can only radiate far-infrared rays with a wavelength width of about 5 to 12 microns (effective for decomposing body fat), but by applying far-infrared rays radiating paint material on its top surface, , about 12 to 24 microns (effective for cell activation)
It becomes possible to radiate far-infrared rays with a wavelength width of When it is sewn as a part of clothing, it is always in contact with a predetermined position on the human body's pathway, and it is constructed as in item 1 and stored in a storage section provided in advance at a predetermined location on the pathway, such as a pocket of the clothing. It can also be used by wrapping or pasting.

Example An example of the present invention will be described based on the drawings.
As shown in the partially cutaway perspective view of FIG. 1, a ceramic thin plate 3 made of alumina or the like is laminated on a reflective paper 2 made of aluminum foil or the like with a large number of through holes 1 perforated therein, and a far-infrared radiant paint 4 is applied on top of it. It is coated with gauze covers 5 and 6 on the front and back, and is formed integrally. In Fig. 2, the heat insulating material 7 is overlapped and the gauze-like covers 5 and 6 are covered on the front and back so that it comes into direct contact with the skin. However, it has a better feel.

Effects of the invention As a result of the above-described structure, the invention produces the following effects. The far-infrared radiating fabric according to the present invention is constructed by applying the far-infrared radiating paint 4 on the ceramic thin plate 3. For example, the ceramic thin plate 3 is made of alumina only, and the far-infrared radiating paint 4 is made of zirconia. , silica, titanium, silicon carbide, etc., far-infrared rays of wavelengths other than those radiated by ceramics made of alumina can be used as far-infrared radiant paint 4.
It becomes more radiant. Therefore, alumina alone can only radiate far-infrared rays with a wavelength width of about 5 to 12 microns (effective for decomposing body fat), but by applying far-infrared rays radiating paint material on its top surface, , far infrared rays with a wavelength width of about 12 to 24 microns (effective for cell activation) can be radiated, and the wavelength of far infrared rays as a whole becomes wider, improving the radiation characteristics. By coming into contact with the human body, it is possible to promote healing of the affected area. In addition, in the manufacturing process, it is only necessary to apply a coating material that radiates far infrared rays onto a ceramic thin plate made of a single substance such as alumina, so several types of paint materials that radiate far infrared rays with a wide wavelength range are used. This eliminates the need for a complicated process of mixing, sintering, and solidifying materials such as metal oxides and ceramics, and contributes to cost reduction. In addition, the far infrared rays generated from the ceramic thin plate 3 using body temperature generated from the human body as a heating source are further amplified and radiated with an infrared ray radiating paint 4, and reflective paper such as aluminum foil with many through holes 1 is used. In step 2, radiant heat is reflected inside while releasing sweat and other vapors to the outside to avoid wasteful heat radiation.It can be made into a long length and wrapped, or coated with an adhesive and pasted. When used, heat is stored here, so if it is formed into one piece and stored in a pocket, etc., or sewn into clothing and placed on the body's meridian, it can have a remarkable moxibustion effect. It is an idea.

[Brief explanation of the drawing]

The drawings show an embodiment of the present invention; FIG. 1 is a partially cutaway perspective view of the present invention, and FIG. 2 is a partially cutaway perspective view of a state in which heat insulating materials are overlapped. 1... Perforation, 2... Reflective paper, 3... Ceramic thin plate, 4... Infrared radiation paint, 5, 6... Gauze-like cover, 7... Heat insulating material.

Claims (1)

[Scope of Claim for Utility Model Registration] 1. A thin ceramic plate 3 made of alumina or the like is laminated on a reflective paper 2 made of aluminum foil or the like having a large number of through holes 1, and a far-infrared radiant paint 4 is applied thereon. A far infrared ray radiating fabric made by overlapping gauze-like covers 5 and 6 and forming an integral piece. 2 A ceramic thin plate 3 made of alumina or the like is laminated on a reflective paper 2 made of aluminum foil or the like with a large number of perforations 1 perforated therein, a far-infrared ray radiating paint 4 is applied thereon, and a felt-like heat insulating material 7 is layered. The invention according to claim 1 of the utility model registration claim, in which the front and back sides are covered with gauze-like covers 5 and 6.