KR200402144Y1 - The pyrogen radiating an anion and a far infrared ray - Google Patents

Abstract

The present invention relates to an anion and a far-infrared emitting heating element, and more particularly, connected to terminals of a battery for supplying a direct current power source, and an anode line and a cathode line installed to face each other at predetermined intervals; A carbon hot wire disposed between the anode wire and the cathode wire and arranged vertically; A heat conduction plate made of silver foil close to the upper portion of the carbon heating wire to promote heat conduction and heat dissipation to the upper portion; It relates to an anion and a far infrared emitting heating element comprising a; tourmaline ceramic powder applied to the upper surface of the heat conducting plate.

The present invention, which is constructed as described above, is inserted into various items such as gloves, bags, earplugs, shoe insoles, and vehicle seats as well as clothing such as a vest, and generates heat by using a battery so that the body can be warmed and heated at the same time. Instead of harmful electromagnetic waves, it emits negative ions and far-infrared rays to promote the health of users, and also provides the effect of maximizing productivity by simplifying the structure.

Description

Negative ions and far-infrared emitting heating elements {THE PYROGEN RADIATING AN ANION AND A FAR INFRARED RAY}

The present invention relates to anion and far-infrared emitting heating element, and more particularly, it is inserted into various items such as gloves, bags, earplugs, shoe insoles, and vehicle seats as well as clothing such as a vest to generate heat by using a battery. It is possible to promote the health of general users by releasing negative ions and far infrared rays instead of electromagnetic waves harmful to the human body when heating the body properly and at the same time, and also to improve the productivity by simplifying the structure. will be.

In general, the heating element is connected to a silicon heating wire, a copper wire, a nichrome wire, etc. to a power source such as 220V, 110V, 12V, and the like, and uses heat generated by flowing current to cover clothing, automobiles, home appliances, and daily necessities. Conventional heating element has been used in various ways, ① the problem that the power rise to the heating element is much increased due to the slow rate of temperature rise, ② the risk of being easily cut when using the heating element is shortened the risk of fire, as well as the risk of fire It has a problem that the emission of electromagnetic waves harmful to the human body, and the emission of far infrared rays and negative ions very beneficial to the human body can not be expected at all.

On the other hand, far infrared rays are in the range of 3 ~ 1000㎛ of the wavelength range of light, which has stronger heat action than visible light, and radiant energy is direct and instantaneous heat transfer, rapidly heating, energy saving effect, dry heating, heating, heat treatment, health products, food It is widely used for processing, building interior materials, living products and biological effects of animals and plants.

As the well-known advantage of far-infrared rays is well known, it is possible to feel the effects of fatigue and stress relief in a short time. Especially, it keeps body temperature at an appropriate level, activates metabolism and balances nutrients in the body evenly. In addition, it is widely known to carry out the action of promoting the maintenance of body fluids and waste excretion and metabolic balance.

Negative ions are one of atoms with electronic components, and are generally known as atoms having charges existing in outer space or on earth, that is, ultra-fine particles having negative charges floating in air.

It is widely known that these negative ions have beneficial effects on the human body: activation of cells by promoting ion exchange of cells, purification of blood by activating metabolism, recovery of fatigue by burning of fatigue substances, and action on autonomic nerves. Mental stability, immunity improvement, and pain relief.

In addition, magnetic bodies such as permanent magnets are known to promote blood circulation in the human body, as is well known.

It is reported that hemoglobin in human blood contains a lot of iron, which makes blood flow more active in the magnetic field, thereby improving metabolism, promoting blood circulation and treating diseases.

Therefore, there is a demand for a new heating element that can overcome the above-described problems of the conventional heating element and at the same time, utilize the beneficial effects and effects of the far infrared rays, anions, and magnetic bodies.

The present invention has been devised in view of the above necessity, and can achieve a desired thermal effect in a short time with a very low voltage, and can promote health of the user by emitting negative ions and far infrared rays instead of harmful electromagnetic waves. It is an object of the present invention to provide an anion and far-infrared emitting heating element capable of maximizing productivity by simplifying the structure.

In addition, another object of the present invention is to provide anion and far-infrared emitting heating element that maximizes the thermal insulation rate and thermal efficiency by preventing unnecessary heat loss as much as possible.

In addition, another object of the present invention is to provide anion and far-infrared emitting heating element that activates metabolism by promoting blood circulation of the user in addition to the above-described warming effect and release of anion and far infrared rays beneficial to the human body.

In addition, another object of the present invention is to provide an anion and far-infrared emitting heating element that can maintain a constant temperature desired by the user at any time at any time.

The present invention for achieving the above object is connected to each of the terminals of the battery for supplying a DC power supply, and the positive and negative wires which are installed facing each other at a predetermined interval; A carbon hot wire disposed between the anode wire and the cathode wire and arranged vertically; A heat conduction plate made of silver foil close to the upper portion of the carbon heating wire to promote heat conduction and heat dissipation to the upper portion; And a tourmaline ceramic powder applied to the upper surface of the heat conduction plate.

Here, it is preferable to further include a heat insulating plate in close contact with the lower portion of the carbon heating wire to prevent heat conduction and heat dissipation to the lower portion.

Further, it is more preferable to further provide a magnetic material to be in close contact with the upper portion of the heat conducting plate.

In addition, it is more preferable to further include at least one temperature sensor so as to be attached to a portion of the heat conduction plate.

Hereinafter, with reference to the accompanying drawings, preferred embodiments of the present invention in detail as follows. Of course, the scope of the present invention is not limited to the following examples.

1 is a cutaway perspective view of a part of one embodiment of the present invention, Figure 2 is an exploded perspective view of Figure 1, Figure 3 is a cutaway perspective view of a portion of another embodiment of the present invention, Figure 4 is 5 is an exploded perspective view, and FIG. 5 is a block diagram showing the operating principle of the present invention.

First, the present invention, as shown in Figs. 1 and 3, the positive electrode line 110a and the negative electrode line 110b, the positive electrode line 110a and the negative electrode line 110b respectively connected to the terminals of the battery 100 which supplies a large DC power. ) Between the carbon heating wire 130, the heat conducting plate 150 made of silver foil close to the upper portion of the carbon heating wire 130, and the tourmaline ceramic powder 170 applied to the upper surface of the heat conducting plate 150 It is configured to include.

More specifically, the positive electrode 110a and the negative electrode 110b are respectively connected by both terminals of the battery 100 and the connection lead 250 and are spaced apart from each other by a predetermined interval.

Here, the distance between the positive electrode 110a and the negative electrode 110b is appropriately adjusted according to the use of the present anion and the far-infrared emitting heating element 10, that is, clothing such as a vest or a car seat or various household goods. It is desirable to have a constant size.

In addition, the anode wire (110a) and the cathode ray (110b) may be formed opposite to each other made of a "-" shape, but as shown in Figure 2 formed of a "c" shape opposite to each other is easily installed to the external impact. It is more preferable to configure so that the form is not broken or damaged.

In addition, the battery 100 that supplies power minimizes power consumption by using a DC power source instead of an AC power source and solves a problem in which electromagnetic waves are generated.

On the other hand, the carbon heating wire 130 is placed between the anode wire (110a) and the cathode wire (110b) arranged vertically, the general characteristics of the carbon (carbon), that is, resistant to heat, high electrical conductivity and thermal conductivity, and is also light It has low thermal expansion coefficient, excellent durability, and strong resistance to chemicals, which significantly reduces power saving and electromagnetic wave emission compared to conventional heating wires, and emits far-infrared rays, which are beneficial to the human body as described above by heat generation. .

Therefore, the carbon heating wire 130 is preferably configured to be integrated so as to have a predetermined equal interval between the anode wire (110a) and the cathode ray (110b) to emit the far infrared rays when the heat is generated.

In addition, the heat conduction plate 150 is preferably made of a silver foil close to the upper portion of the carbon heating wire 130 to promote heat conduction and heat dissipation to the upper portion.

That is, the heat conductive plate 150 made of silver foil having excellent thermal conductivity plays a role of a medium capable of transmitting heat and far-infrared rays of the carbon heating wire 130 to the upper part, that is, the human body.

At the same time, the thermal conductive plate 150 is also disposed in the space between the carbon heating wire 130, that is, the space between the carbon heating wire 130 arranged between the anode wire 110a and the cathode wire 110b. The heat generation and far-infrared ray of a) is held to be evenly conducted on the front surface of the heat conduction plate 150 so that it is possible to radiate from the front surface of the heat conduction plate 150 evenly without being partially overheated or radiated. do.

Of course, the thermal conductive plate 150 is closely adhered to the upper portion of the carbon heating wire 130 by a thermosetting adhesive having a high heat resistance and durability as shown in FIGS. 1 and 2.

On the other hand, the tourmaline ceramic powder 170 is applied to the upper surface of the heat conduction plate 150 in order to simultaneously release the anion which is very beneficial to the human body by heat generation.

Here, as shown in Figure 2, the tourmaline ceramic powder 170, the reason for applying evenly on the upper surface of the heat conduction plate 150 is the anion and far-infrared rays that are very beneficial to the human body as described above to the top at the same time, namely This is to release it to the human body.

In addition, the connection wire 250 connecting the carbon heating wire 130 and the battery 100 controls the battery 100 to control heat generation of the carbon heating wire 130. It is laid as seen in

That is, the control unit 300 is configured to perform the ON / OFF function, the temperature control function and the timer function, etc. to maintain warmth by constant heat generation by a simple operation of the user.

On the other hand, as shown in Figures 3 and 4 showing another embodiment of the present invention, it is configured to close a separate heat insulating plate 190 to block heat conduction and heat dissipation in the lower portion of the carbon heating wire (130). However, the repetitive description of the same configuration as in the embodiment of the present invention previously described based on FIGS. 1 and 2 will be omitted.

As such, the reason why the insulation plate 190 is in close contact with the lower portion of the carbon heating wire 130 is to block heat conduction and heat dissipation to the lower portion, that is, the upper portion of the carbon heating wire 130, that is, through the thermal conductive plate 150. The heat generated by the carbon heating wire 130 and far-infrared rays are to be released to the human body at the same time to create a power saving effect.

In addition, as shown in FIG. 4, a separate magnetic body 210 may be further provided to closely contact the upper portion of the heat conductive plate 150.

Here, the magnetic body 210 has a beneficial effect of promoting metabolism by promoting blood circulation of the human body as described above.

However, the magnetic body 210 may be a plurality of permanent magnets in a circular shape close to the upper surface of the heat conductive plate 150 as shown in FIG. 4, but is not limited thereto, and the upper front surface of the heat conductive plate 150 is not limited thereto. It is distributed evenly in close or close to cover the entire surface of the heat conduction plate 150, and also the shape of the magnetic body 210 is not necessarily limited to the circular shape reveals.

In addition, as shown in FIG. 4, at least one temperature detection sensor 230 may be attached to a portion of the heat conduction plate 150 to maintain an appropriate heating temperature.

In other words, the user checks the desired heating temperature to prevent the temperature from rising or falling below a certain level.

Of course, the temperature sensor 230 is revealed to operate in conjunction with the control unit 300 shown in Figs.

That is, the control unit 300 receives the detection signal of the temperature sensor 230 in addition to the function of the control unit 300 of the embodiment shown in FIG. 1 to supply power to the carbon heating wire 130. The ability to shut down or adjust its power supply strength is added.

Of course, the heat insulating plate 190, the magnetic body 210 and the temperature sensor 230, like the heat conduction plate 150, it is revealed that the adhesive or adhered by the adhesive means such as heat resistant and durable thermosetting adhesive.

On the other hand, when described in detail with reference to Figure 5 the operating principle of the subject innovation is as follows. However, it is revealed that the portion indicated by the dotted line may be selectively laid.

First, when a user sets the desired heating temperature and duration by operating the control unit 300, the battery 100 supplies power to the carbon heating wire 130.

The carbon heated wire 130 is supplied with power until it reaches a predetermined temperature and at the same time emits far infrared rays.

In addition, the heat conduction plate 150 made of the silver foil close to the upper portion of the carbon heating wire 130 emits heat and far-infrared rays of the carbon heating wire 130 upwardly, that is, evenly to the user's body.

At the same time, the anion is released by the tourmaline ceramic powder 170 evenly coated on the upper surface of the thermal conductive plate 150,

When the magnetic body 210 is in close contact with the upper portion of the heat conduction plate 150 as shown in FIG. 3, the unique function of the magnetic body 210 acts together with the thermal insulation, far-infrared radiation and anion release due to the above heat generation.

When the temperature reaches a predetermined temperature, the control unit 300 maintains the heating temperature at a predetermined level for a predetermined duration in connection with the temperature detection sensor 230.

That is, the controller 300 receives a detection signal of the temperature sensor 230 attached to the upper portion of the heat conduction plate 150 to maintain a predetermined temperature.

Of course, when the heat insulating plate 190 is in close contact with the lower portion of the carbon heating wire 130, the heat insulating plate 190 is to prevent unnecessary heat conduction and heat dissipation to the bottom.

In addition, when the preset duration is reached or there is a separate user manipulation, the control unit 300 stops the operation of the present invention by cutting off the power supply of the battery 100.

As described above, positive and negative wires, which are connected to terminals of the battery and are installed to face each other at predetermined intervals; A carbon hot wire disposed between the anode wire and the cathode wire and arranged vertically; A heat conduction plate made of silver foil close to the upper portion of the carbon heating wire to promote heat conduction and heat dissipation to the upper portion; The present invention including the tourmaline ceramic powder applied to the upper surface of the thermal conductive plate provides the following effects.

First, a heat conduction plate made of carbon foil that is resistant to heat, has high electrical conductivity and thermal conductivity, is light, has a low coefficient of thermal expansion, has excellent durability, and emits far infrared rays, a silver foil having high thermal conductivity and good heat dissipation rate, and By applying a tourmaline ceramic powder that emits anion, which is beneficial to the human body, on the upper surface of the heat conduction plate, it is possible to obtain a desired thermal effect in a short time with very low voltage and to emit negative ions and far infrared rays instead of harmful electromagnetic waves to the user's health. It can be promoted and the effect of simplifying the structure can maximize productivity.

Second, by further providing a heat insulating plate so as to be in close contact with the lower portion of the carbon heating wire to block the heat conduction and heat dissipation to the lower portion of the carbon heating wire, to prevent unnecessary heat loss provides an effect of maximizing the thermal insulation rate and thermal efficiency.

Third, by further providing a magnetic material to be close to the upper portion of the heat conduction plate, in addition to the thermal insulation effect, the release of negative ions and far infrared rays provides the effect of promoting metabolism by promoting the blood circulation of the user.

Fourth, by further provided with at least one temperature sensor so as to be attached to a portion of the heat conduction plate, it provides an effect that the user can constantly maintain the desired temperature at any time.

In addition, the present invention is not limited to those described above and illustrated in the drawings, of course, more modifications and variations are possible within the scope of the claims set out below.

1 is a cutaway perspective view of a part of an embodiment of the present invention,

Figure 2 is an exploded perspective view of Figure 1,

3 is a cutaway perspective view of a part of another embodiment of the present invention,

4 is an exploded perspective view of FIG. 3,

5 is a block diagram showing the operating principle of the present invention.

*** Explanation of symbols for main parts of drawing ***

10; Heating element, 100; battery,

110a; Anode wire, 110b; Cathode Ray,

130; Carbon hot wire, 150; Heat conduction plate,

170; Tourmaline ceramic powder, 190; Insulation Plate,

210; Magnetic material, 230; Temperature Sensor,

250; Connecting wire, 300; Control unit.

Claims (4)

Positive and negative wires respectively connected to terminals of a battery for supplying a DC power source and installed to face each other at predetermined intervals; A carbon hot wire disposed between the anode wire and the cathode wire and arranged vertically; A heat conduction plate made of silver foil close to the upper portion of the carbon heating wire to promote heat conduction and heat dissipation to the upper portion; An anion and far-infrared emitting heating element comprising a; tourmaline ceramic powder applied to the upper surface of the heat conducting plate. The method of claim 1, Anion and far-infrared emitting heating element characterized in that it further comprises a heat insulating plate in close contact with the lower portion of the carbon heating wire to prevent heat conduction and heat dissipation to the lower portion. The method according to claim 1 or 2, Anion and far-infrared emitting heating element, characterized in that further comprising a magnetic body to be in close contact with the upper portion of the heat conducting plate. The method according to claim 1 or 2, Anion and far-infrared emitting heating element, characterized in that further comprising at least one temperature sensor to be attached to a portion of the heat conduction plate.