KR200173690Y1 - Heating bed - Google Patents

Abstract

The present invention relates to a fever bed that promotes health by radiating far-infrared rays emitted by heating minerals to the human body by the heat of the heating element.

The bed used for general bedding, the outer shell, elastic members to give elasticity to the health, and the water wave preventing member made of aluminum sheet to block the water wave, and the electromagnetic wave from outside The electromagnetic shielding member, which is a metal material in the form of a mesh, a heat reflection member for facilitating heat reflection of heat generated by the heating element, a heating element for heating the mineral material, and a mineral material heated by the heating element to emit far infrared rays It is proposed that the design consisting of the mineral member is provided only the power supply far infrared radiation is effective to promote the health of users.

Description

Fever Bed {Heating bed}

The present invention relates to a fever bed that promotes health by radiating far-infrared rays emitted by heating minerals to the human body by the heat of the heating element.

In general, infrared light is divided into near infrared wavelengths of 0.75 to 4.0 μm and far infrared rays of 4.0 to 1000 μm. In the above, far-infrared photon energy is smaller than near-infrared. However, it penetrates strongly and reaches to the inside of the body and warms up. Objects generally receive energy in various forms from the outside, and they also radiate to the outside in various forms, but far-infrared emitters emit a lot of far infrared rays.

The far infrared emitter is generally rich in minerals, and when heated with a constant heat, the minerals emit far infrared rays.

Far-infrared rays emitted from the minerals are absorbed deep into deep tissues through resonance, resonance, and through the skin to facilitate metabolism, thereby facilitating the discharge of heavy metals or wastes from the body.

According to the research results of the Tokyo University of Engineering, far-infrared radiation emitted from minerals penetrates the body and is converted into thermal energy to shrink and extinguish cancer cells. Since cancer cells have extremely weak properties against heat (42 ° C.) compared to normal cells, heat therapy is used to treat cancer.

In Germany, 64% of cancer treatments have been proven by systemic heat therapy by Dr. Arudden, and in Japan, 84% of treatments were given to patients with terminal cancer, as reported in 1991 by the Fabasamia Society. Research is moving forward.

Far infrared rays also help the human body by sweating. In other words, by discharging hydrogen accumulated in the living body as part of the sweat to maintain the balance of the hydrogen ion index (PH) of the blood and acts as an alkali to the acidified constitution. In addition, sweat and sweat are excreted from lactic acid, free fatty acids, fatty acids, esters, cholesterol, and subcutaneous fat, which causes fatigue and aging, and especially carcinogens such as lead, zinc, cadmium, and mercury. Heavy metal poison Excret the sacrament.

Far-infrared rays generated when heating the minerals as described above has a good advantage in the treatment and prevention of diseases, health promotion, but there was a problem that there was no example used for bedding bedding which is a part of life.

The present invention has been presented to solve the above problems, and an object of the present invention is to provide a heating bed for generating far-infrared rays effective for health promotion.

As a technical idea for achieving the object of the present invention, the outer shell, the elastic member giving elasticity, the water wave preventing member made of aluminum sheet to block the water wave, and in the form of a mesh to block the electromagnetic wave introduced from the outside It includes a metal electromagnetic shielding member, a heat reflection member to facilitate the heat reflection of the heat generated by the heating element, a heating element for heating the mineral material, and a mineral member made of a mineral material heated by the heating element to emit far infrared rays A devised scheme is presented.

1 is an exemplary view and cross-sectional view for explaining the configuration of the heating bed according to the present invention

Figure 2 is an exemplary view and cross-sectional view for explaining the configuration of the heat insulating cover of the present invention heating bed

<Explanation of symbols for main parts of the drawings>

10: outer shell 15: second mineral member

20: cushion 25: first mineral member

30: planar heating element 35: heat reflection plate

40: electromagnetic shield 45: water wave preventing plate

50: heating bed 55: thermal cover

Hereinafter, with reference to the accompanying drawings with respect to the configuration and operation of the embodiment of the present invention will be described.

1 is an exemplary view and a cross-sectional view for explaining the configuration of the heating bed according to the present invention.

Figure 2 is an exemplary view for explaining the configuration of the thermal cover of the heating bed of the present invention and It is a cross section.

Referring to Figure 1, Figure 2, the subject innovation consists of a heating bed 50 and the heat insulating cover 55, the heating bed 50 is the upper, lower outer shell 10 and the lower outer shell A cushion 20 positioned on the heating bed 50 to give elasticity to the heating bed 50, and a water blocking plate 45 made of aluminum sheet to block the water wave caused by the groundwater flowing in the ground located on the cushion 20. And, placed on the water wave preventing plate 45 to shield the electromagnetic wave flowing in from the outside of the electromagnetic shield plate 40 of the mesh-shaped metal material, and positioned on the electromagnetic shield plate 40 to reflect the top of the foil member Coated with a heat reflection plate 35 to facilitate the heat reflection of the heat generated by the planar heating element 30 to be described later, and the heating element is placed on the heat reflection plate 35 to heat all the minerals used in the present invention Planar heating element 30, Located on the planar heating element 30, the first mineral member 25 made of germanium, which is a mineral that is heated by the heat generated by the planar heating element 30 to emit far infrared rays, and is located on the first mineral member 25 And a second mineral member 15, which is a mineral that emits far-infrared rays by being heated by the heat generated by the planar heating element 30 and positioned on the cushion 20 to give elasticity to the heat generating bed 50. do.

The heat insulating cover 55 is composed of an upper and lower outer shell 10 and a cushion 20 inserted into the upper and lower outer shell 10 to insulate heat generated from the heating bed 50.

The first mineral member 25 and the second mineral member 15 in the above configuration will be described in detail as follows.

The first mineral member 25 that is heated by heat of the planar heating element 30 and emits far infrared rays is a mineral such as biotite, king germanium, mica, and the main component is germanium. The germanium promotes resistance of cells deficient in oxygen due to waste accumulated in the body.

In addition, the second mineral member 15, which is heated like the first mineral member 25 and emits far infrared rays, is a mineral such as magnesium oxide, calcium oxide, aluminum oxide, magnetite, and radium. k), as the temperature of the subcutaneous fat layer in the body rises, it promotes blood circulation by microvascular expansion, releases harmful gases such as carbon dioxide and sulfurous acid gas, and pollutants such as mercury and lead to the body and promotes metabolism. Excellent for preventing various diseases and skin care. The sun kay has excellent radiation characteristics of 95% or more when measuring far-infrared emissivity.

The minerals used in the first mineral member 25 and the second mineral member 15 are sprayed with the mineral on a nonwoven fabric when inserted into the heating bed 50 of the present invention, and then coated with the first and second mineral members, respectively. It is inserted as (15, 25).

In the above configuration, the planar heating element 30 which is a heating element will be described in detail. The planar heating element 30 is a Daikin heater with a trade name, prolotron, and the raw material is a conductive four foot ethylene resin.

The prolotron can be used in a wide temperature range, and because it is surface heating, the temperature distribution is uniform and good conductivity is rapidly increased compared to the linear heating.

In addition, it is highly flexible and can be folded or bent and has a minimum thickness of 0.075mm It can be produced in the above-mentioned thickness, and withstands a load of 5Kg per cm 2 at the above thickness, and the tensile strength is 200-350 Kg f / cm 2 at room temperature, so there is little damage anxiety even when handled roughly.

The heat generation of the planar heating element 30 is achieved by supplying power through an electrode disposed on the planar heating element 30.

Referring to the operation of the present invention made of the above configuration as follows.

The user flowers the power outlet to use the heating bed 50 of the present invention. When the power is supplied by the above, the power is supplied to the electrode disposed in the planar heating element 30, and the protoprone, which is a material of the planar heating element 30, starts to generate heat. When heat is generated by the heat generation of the planar heating element 30, the heat is transferred to the first mineral member 25 and the second mineral member 15. When heat is transferred to the first mineral member 25 and the second mineral member 15, germanium and sunkei, which are minerals constituting the first mineral member 25 and the second mineral member 15, are gradually heated. After a certain time, it will emit far infrared rays. When the heating bed 50 is heated by the above, the user covers the insulating cover 55 to keep the heat generated so that the heat is not discharged to the outside.

In addition, the heat reflection plate 35 has heat generated in the planar heating element 30 so that the heat generated from the planar heating element 30 is well transmitted to the first mineral member 25 and the second mineral member 15. To reflect.

In addition, the water wave preventing plate 45 cuts the water wave by groundwater that may occur at the bottom of the heating bed 50 to eliminate the bad effect caused by the water wave to the user, and the electromagnetic shield plate 40 also adversely affects the user. To give off electromagnetic waves Destroy.

In addition, the cushion 20 gives elasticity to the heating bed 50 so that the user can lie down comfortably and comfortably when using the heating bed 50.

Through all the above process, the heating bed is realized as the present invention intends.

As can be seen from the above description, the present invention is a heat generating member that generates heat by the power source and the heat generating member so that the bed used for bedding generally emits far infrared rays beneficial to health. It is effective to improve the health of the user as far infrared rays are radiated by simply supplying power by consisting of mineral members including minerals that can emit far infrared rays by heat, and other cushions, water vein prevention members, and electromagnetic shielding members.

Claims (6)

In the bed for bedding, Outer Sheath, Elastic member giving elasticity, Water wave preventing member made of aluminum sheet to block water wave, Electromagnetic shielding member which is a metal material of the mesh type to block the electromagnetic wave flowing from the outside, A heat reflection member for facilitating heat reflection of heat generated by the heating element, A heating element for heating the mineral, And a mineral member made of a mineral material heated by the heating element to emit far infrared rays. The method according to claim 1, wherein the heating bed, Upper and lower outer shell (10), The heating bed is inserted into the upper and lower outer shell (10) further comprises a heat insulating cover (55) consisting of a cushion (20) for warming the heat generated from the heating bed (50). The method according to claim 1, wherein the heat reflection member, Heat-reflecting bed, characterized in that the heat reflecting plate 35 to facilitate the reflection of the heat generated by the heating element by reflecting the top of the foil member. The method according to claim 1, wherein the heating element, The material is a prolotron, the raw material is a heat generating bed, characterized in that the planar heating element (30) is a conductive four-foot ethylene resin. The method according to claim 1, wherein the mineral member, A first mineral member 25 made of germanium, which is located on the planar heating element 30 and is heated by heat of the planar heating element 30 to emit far infrared rays, An exothermic bed comprising a second mineral member (15) made of minerals such as magnesium oxide, calcium oxide, aluminum oxide, magnetite, and radium. The method according to claim 1, wherein the arrangement of each configuration of the heating bed, Upper and lower outer shell (10), The cushion 20 positioned on the lower sheath 10, Water vein preventing plate 45 is located on the cushion 20, An electromagnetic shield plate 40 positioned on the water wave preventing plate 45; A heat reflection plate 35 positioned on the electromagnetic shielding plate 40; A planar heating element 30 positioned on the heat reflection plate 35, A first mineral member 25 positioned on the Daikin heater 30, The cushion 20 positioned on the germanium member 25, Heating bed, characterized in that consisting of the second mineral member (15) positioned on the cushion (20).