KR20190027478A - Thermotherapy using mineral heat and far infrared rays - Google Patents

Abstract

The present invention relates to a thermal treatment apparatus using far infrared light, capable of adjusting the height according to a user′s condition and disassembling a part thereof, thereby minimizing a packaging volume and a storage area and stably holding and moving the same, while also enabling heat transfer to a lower portion of a muscle layer due to heat absorption of a human body by heat storage and radiation. More particularly, the present invention consists of a light heat panel for forming a photothermal coating layer on a surface of a panel body, a heat storage net that prevents direct contact with the light heat panel, and a controller for controlling various functions. The present invention has a therapeutic effect using heat by radiating far infrared rays even at a high temperature and an effect of purifying air by burning polluted air nearby at a high temperature.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001]

The present invention relates to a hyperthermia treatment apparatus, and more particularly, to a hyperthermia treatment apparatus capable of radiating far-infrared rays stably to some extent even at a high temperature, The present invention relates to a thermal therapy apparatus using infrared rays.

In the past, the patient continued to work for a long time in an improper posture, or after a long period of habituation of such posture, the acute or chronic pain developed in the muscles and nervous tissues of the vertebral region was relieved, and the blood circulation of the body was improved, Hyperthermia beds that move along body parts to relieve pain and improve blood circulation through stimulation by heat on the pain areas are widely used.

Generally, the prescription of a pomace is to apply the proper heat to the body to sweat, thereby releasing the waste accumulated in the body, thereby promoting metabolism and promoting health, or releasing a useful ingredient from the pomace medicine by applying heat to the pomace medicine, It has an excellent effect in repairing.

Therefore, in the past, various types of fomentation apparatuses have been developed and marketed so that a part of the human body can be fomented by using the fomentation effect. However, most people living in a busy modern society life continuously use the fomentation apparatus at home There is a problem that it is difficult to do so, and even if it is continuously used, there is a problem that it can not exert a great effect on the treatment of the fomentation because the whole body can not be fomentated.

In recent years, there has been a fomentation-type fomentation room in which a fomenting effect can be gained comfortably throughout the body while resting at a low cost. This is because a plurality of people By resting in this relaxed posture, the far infrared rays emitted from the inner wall of the fomentation room made of the fomentation material or other fomentation ingredients are shaved, thereby activating the metabolism of the body such as promoting the blood circulation, .

However, such a conventional fomentation room is a public business form used by a plurality of people, so that if the fomentation room operator does not manage the sanitary condition inside the fomentation room well, there is a high possibility of being infected with another person's illness.

In addition, although the fomentation can be obtained by long-term and long-lasting treatment, the fomentation room has a certain distance from each individual's home, so there is a great inconvenience to use the fomentation room continuously.

Accordingly, a fomentation apparatus which can be used only by an individual in an individual space has been proposed. Korean Patent Registration No. 10-1052744 (dome type sauna apparatus) is formed to be curved into a dome-like shape, and the outer surface of the dome- A heat shield member which is laminated on the inner side of the outer cover and prevents heat from flowing out to the outside when the dome type sauna apparatus is operated; And a carbon heating panel that shields electromagnetic waves and provides radiant heat using resistance of carbon fibers. The carbon heating panel is curved in a dome shape to fix the outer cover, the heat shield member, and the carbon heating panel. frame; A far infrared ray radiating member provided on the carbon heating member to radiate far infrared rays by the heat radiated from the carbon heating member and fixed to the fixing frame; A moving unit configured by a fixed panel to which the fixed frame is inserted and fixed, and a wheel configured to move the dome-shaped sauna unit at a lower portion of the fixed panel; And a control unit configured to control the temperature of the dome-type sauna device to a temperature desired by the user, wherein the far-infrared ray diverging member includes a heater A diverging member that transmits the heat to the affected part or the menstrual blood and prevents direct heat from being emitted from the carbon heating panel to the user's body; A diaphragm formed in a mesh network surrounding the diverging member, the diverging member being prevented from being damaged or damaged; And a fixing protrusion inserted and fixed to the fixing frame at both side ends thereof, and are connected by a plurality of ribs.

In addition, according to the conventional registration No. 10-1468477 (name: personal heating dome), a first housing having a first space formed therein; A second housing having a second space formed therein and relatively moved along the first housing; And a hot water tank for supplying hot water to the first housing to heat the first housing, wherein the first housing includes a first housing body having the first space formed therein; A plurality of far-infrared rays bodies installed at the inner side surfaces of the first housing body and emitting far-infrared rays to the first space; A tube inserted in the far-infrared ray body and heating the far-infrared ray body by receiving hot water from the hot water tank; And a spacing member disposed between the far infrared ray bodies, wherein the second housing includes a second housing body in which the second space is formed; A plurality of far-infrared ray bodies installed at the inner side surfaces of the second housing body and emitting far-infrared rays into the second space; A tube inserted in the far-infrared ray body and heating the far-infrared ray body by receiving hot water from the hot water tank; A spacing member disposed between the far-infrared ray bodies; And a wheel disposed at a lower end of the second housing body to support the second housing body, wherein a stopper is disposed on the second housing body, a stopper rail is formed on the first housing body, A damper for cushioning shocks is disposed between the housing bodies, the far infrared ray body is formed of a metal material and the mineral material is fixed on the outer side thereof; And a tube body formed of a metal material and formed integrally with the exposure body, into which the tube is inserted.

However, although the conventional dome type sauna apparatus and the personal heating dome described above are commonly described as radiating far-infrared rays, most of them have a problem that far-infrared rays are not emitted.

In addition, the conventional dome type sauna apparatus and the personal heating dome as described above commonly measure the far-infrared rays radiated by measuring the far-infrared ray measuring conditions at a heating temperature of about 40 ° C. In the conventional products, It is not easy to increase the body temperature by 1 to 2 DEG C at a low temperature (plane heating element or carbon heating element), and the far infrared ray emissivity at 80 DEG C is remarkably deteriorated.

In addition, the conventional dome-type sauna apparatus and the personalized thermal dome as described above commonly have a problem in that heat can not penetrate deeply into the user's body due to divergent heat, thereby failing to provide a smooth therapeutic function.

In addition, the conventional dome type sauna apparatus and the personalized thermal dome as described above commonly have a half cylindrical shape integrally formed and inconvenient to grip for movement or movement, and the height of the heat is constantly fixed, .

Therefore, it is possible to adjust the height and disassemble to facilitate user's use, mobility and packaging. Also, it is possible to use the improved heat of demonstration effect which does not adversely influence the human body even at high temperature, Therapeutic devices are in desperate need.

1. Registration number 10-1052744 (domed sauna unit) 2. Registration No. 10-1354987 (dome for feminine appliance) 3. Registration number 10-1468477 (personal heating dome) 4. Registration number 10-1354380 (heated bed)

SUMMARY OF THE INVENTION Accordingly, the present invention has been made keeping in mind the above problems occurring in the prior art, and it is an object of the present invention to provide a thermal therapy device using a photo-infrared ray, which is capable of radiating far-infrared rays at a high temperature of 150 to 300 ° C, .

Another object of the present invention is to prevent heat loss and increase efficiency by a heat storage function for storing heat conducted from the panel body through the coating layer.

Another object of the present invention is to fold, fold and disassemble the second body from the first body so as to control the height of heat dissipation of the light-heating panel and to facilitate packaging and storage.

Another object of the present invention is to increase the mobility by forming a wheel on the second body.

It is another object of the present invention to provide a thermal condensing function for thermal convection by minimizing the surrounding water by radiating heat generated by the photothermal coating layer and heating it.

Another object of the present invention is to set the temperature within a range of 150 to 300 占 폚 for low power consumption of less than 500 W, although heat can be generated at a high temperature of 300 占 폚 or more due to the characteristic of the infrared ray.

According to an aspect of the present invention, there is provided a thermal therapy apparatus for radiating heat from one side of an inner surface of a semicylindrical body to provide heat to a human body, the thermal therapy apparatus comprising: A porous mineral photothermal coating layer is formed on the surface of a panel body on which a heating element is inserted and installed, and heat is transferred through a conduction system, heat is generated by heat accumulation and non-luminescent method, heat and penetration are large, A light heat panel capable of heating at a high temperature which is designed to emit light in a complex heat mode including a wavelength of 25 mu m or more, which has a higher heat effect by resonance action, a shaft heating network installed on the inner surface of the body so as to be positioned in front of the light heat panel; And a controller for controlling power supply, temperature, and time of the heating element of the light- The present invention provides a hyperthermia therapy apparatus using a light infrared ray.

As described above, according to the present invention, far-infrared rays are emitted at a high temperature of 150 to 300 DEG C, and there is an effect of treatment using heat and air purification by burning the polluted air around.

In addition, the heat dissipating function of the heat dissipating from the panel body can prevent the heat loss due to the heat stored in the coating layer, thereby enhancing the heat treatment and heating efficiency by the conduction heat and the radiant heat.

In addition, since the second body can be folded, disassembled, and combined with the first body, the heat dissipation height of the light-heat panel can be adjusted, and at the same time, it is convenient in packaging and storage.

In addition, there is an effect of increasing the mobility by forming a wheel on the second body.

In addition, the radiation heat generated by the photothermal coating layer minimizes the surrounding moisture, and the heat is transferred to the lower portion of the muscle layer during heat treatment by providing the heat condensation function to the heat radiation, thereby maximizing the efficacy of the heat treatment.

In addition, although it can generate heat at a high temperature of 300 DEG C or more due to the characteristics of the light infra-red light, it has an effect of reducing excessive power consumption by setting the range of 150 to 300 DEG C for low power consumption of less than 500W.

1 is an exploded perspective view showing a thermal therapy apparatus using photo-infrared rays according to the present invention,
2 is an exploded perspective view of a first body and a second body according to the present invention,
3 is an exploded perspective view of a first body according to the present invention,
FIG. 4 is a perspective view illustrating a thermal therapy apparatus using photo-infrared rays according to the present invention,
FIG. 5 is a bottom view of a combined bottom view illustrating a thermal therapy apparatus using photo-infrared rays according to the present invention,
FIG. 6 is a bottom view of the coupling bottom in a state in which the shaft hole network according to the present invention is disassembled;
FIG. 7 is an exploded perspective view of a first body according to the present invention,
FIG. 8 is an enlarged perspective view of a coupling portion of the third and fourth bodies according to the present invention, FIG.
9 is a rear exploded perspective view of the first body and the second body according to the present invention in a disassembled state,
FIG. 10 is a bottom perspective view showing a first body and a second body according to the present invention joined together by a hinge,
11 is a cross-sectional view of a light-emitting panel according to the present invention,
12 is a perspective view of a light-emitting panel according to the present invention,
FIGS. 13 to 31 are copies of quality test results related to far-infrared rays, air cleaning, and sterilization of a thermal therapy apparatus to which a light-heating panel according to the present invention is applied,
Fig. 32 is an experimental photograph comparing storage heat in a light-heat-generating panel with and without a photothermal coating layer,
Fig. 33 is a graph showing the state of accumulation of soil by the light-heat panel. Fig.

BRIEF DESCRIPTION OF THE DRAWINGS The above and other features and advantages of the present invention will be more apparent from the following detailed description taken in conjunction with the accompanying drawings, in which: FIG.

As shown in FIGS. 1 to 12, the thermal therapy apparatus using photo-infrared rays according to the present invention is a thermal therapy apparatus that generates heat from one side of an inner surface of a semi-cylindrical body 10 to provide warmth to a human body, A thermal heating panel 50 for preventing direct contact with the light heating panel 40 and a controller 60 for controlling various functions, (100).

First, the body 10 forms a semi-cylindrical first body 20 to which the light-emitting panel 40 is attached to the inner surface.

The first body 20 forms a pair of frame bodies 21 located at the front and the rear of the body 10. The frame body 21 is formed at both ends when the body 10 is projected in a plane, .

The fixing body 22 is formed at an end of the frame body 21. The fixing body 22 is coupled to an end of the frame body 21 installed opposite to the frame body 21 and includes a pair of frame bodies 21, As shown in Fig.

A curtain 21a for opening and closing an opening of an arch shape is detachably coupled to each of the front sides of the frame body 21. The curtain 21a is detached from the storage groove 31 of the second body 30 ). ≪ / RTI >

The second body 30 is configured such that the inner wall surface of the second body 30 is thinned outwardly as the inner wall surface progresses from the top to the bottom in order to secure a space for the user to insert.

A lid 23 in the form of a frame body 21, a heat insulating material 24, a reflector 25 and an axial nip 50 are installed in this order from the upper part of the frame body 21 and the reflector 25, The light-emitting panel 40 is provided between the light-emitting panel 50 and the light-

The cover (23) is formed by engaging with a pair of frame bodies (21) in an arch shape having a constant area by fitting or fastening.

The heat insulating material 24 is formed in the same shape as the lid 23 and prevents the diverging heat emitted from the light heat panel 40 from being lost to the lid 23 and preventing the lid 23 from being burned or thermally deformed by the high temperature heat. .

The reflection plate 25 is formed in the same shape as the lid 23 and is formed so that the heat radiated from the light heat panel 40 can be flocculated even when diffused and dispersed to the rear side or the right and left sides. , And it is preferable that it is made of a metal material which does not cause discoloration and can reflect heat.

The shaft throat 50 is formed in a mesh network shape and is formed in the same shape as the lid 23 so as to prevent direct contact of the human body with the light heat panel 40 and to smoothly discharge the diverging heat.

In another embodiment, the first and second bodies 20 and 26 may be formed with the third and fourth bodies 26 and 27, respectively, which can be joined and disassembled from the center.

A male terminal 26c is formed at one side of the coupling groove 26b formed along the longitudinal direction of the first interface 26a of the third body 26 facing the third body 26 and the fourth body 27 .

A female terminal 27c is formed on one side of a coupling protrusion 27b formed along the longitudinal direction of the second interface 27a of the fourth body 27 facing the third body 26 and the fourth body 27 .

And a second body 30 having a plate shape formed at both lower ends of the first body 20 and forming a storage groove 31 on the inner surface thereof.

At this time, the storage groove 31 is formed to be depressed outwardly on the inner wall surface of the second body 30, and a storage net 31a for preventing the article for storage from being detached is provided in front of the storage groove 31 .

A second body 30 having a wheel 32 formed on a lower surface for movement of the first body 20 may be integrally formed on the lower portion of the fixed body 22. In this case, May be integrally formed at the lower portion of the fixed body 22. [

A lower portion of the fixed body 22 may be configured to separate a second body 30 formed on a lower surface of the wheel 32 for the purpose of adjusting the height of the first body 20 and moving the same.

At this time, when the second body 30 is separated from the first body 20, the first magnet 29 is formed on both sides of the coupling groove 28 formed in the lower portion of the first body 20.

The second magnet (34) is formed on both sides of the fastening protrusion (33) formed on the upper surface of the second body (30).

That is, when the second body 30 is connected to the first body 20, the first and second magnets 29 and 34 are inserted into the magnetic force by inserting the fastening protrusion 33 into the fastening groove 28 So as not to be easily detached.

A second body 30 having a wheel 32 formed on a lower surface thereof is connected to a lower portion of the fixed body 22 by a hinge 35 for the purpose of adjusting the height of the first body 20, .

The frame body 21 and the lid 23 of the first body 20 are formed with a handle 20a for convenience of movement and carrying. In the present invention, the frame body 21 has two or more When the cover 23 is formed, it is preferable that one cover 23 is formed at the center of the upper surface.

The body 10 may be formed of a combination of wood, aluminum, wood, and aluminum. The frame body 21 of the first body 20, the fixing body 22, the lid 23, ), And the second body 30 may be made of a single material such as wood or aluminum, or a combination of wood and aluminum.

On the other hand, a porous mineral photo-thermal coating layer 43 is formed on the surface of the panel body 42, which is installed on one side of the inner surface of the body 10, and one or two or more heating elements 41 are inserted in the longitudinal direction And it emits heat in the range of 3 ~ 60㎛, which has higher heat and penetration power, resonance with organic molecules and water molecules, and higher heat effect due to resonance. In particular, the present invention forms a light heat panel 40 capable of generating heat at a high temperature, which is designed to emit light in a complex thermal form including a wavelength of 25 mu m or more.

It is preferable that the light-emitting panel 40 is fixed to the center of the ceiling of the reflection plate 25.

The light heating panel 40 is provided with a plurality of heating elements 41 at its center and a porous mineral light-heat coating layer 43 on the surface thereof. The light-heat coating layer 43 is made of a sericite having nanoparticles of 1,000 to 10,000 mesh 50 to 70% by weight of kaolin, 20 to 40% by weight of kaolin, 3 to 8% by weight of gerin, and 5 to 25% by weight of an adhesive.

Here, the heating element 41 is made of nanoparticles to fill the storage holes formed on the back surface of the panel body 42 of the light-heating panel 40 without gaps and to generate heat corresponding to application of power to both ends.

That is, the heat generating element 41 is filled in a storage hole of a light heat panel 40, which is formed on a central portion and an upper end of a rear portion of the heat generating body 41, in which a ceramic insulator (not shown) A conductive polymer heating element 41a made of nanosized particles of 600 mesh to 15,000 mesh so as to increase thermal efficiency without generating an inner circumferential surface and gap of the storage hole and adapted to generate electricity corresponding to application of power, And an insulator 41b composed of nano particles of 600 mesh to 15,000 mesh mixed with the heat generating element 41a and radiating heat generated from the conductive polymer heat generating element 41a corresponding to power application, The conductive polymer exothermic body 41a and the insulator 41b are mixed in a ratio of 8: 2 to 9: 1 so that the resistance value (temperature) can be controlled with respect to the size (heat generating area) You can configure mixed blend.

Here, the conductive polymer heat generating material 41a may be composed of one or two of carbon, nichrome, nickel, etc., and the insulator 41b may be composed of a mixture of mica and magnesium. The mixture of mica and magnesium May be mixed at a ratio of 5: 5 to 7: 3.

On the other hand, if the particles of the conductive polymer heat generating material 41a are formed to have a size of 600 mesh or less, the heat generating area becomes small. If the particle size is more than 15,000 mesh, the manufacturing cost increases, The particles of the heating element 41a are preferably composed of 600 mesh 15,000 mesh nanoparticles.

In addition, the conductive polymer heat generating element 41a may be formed using a metal rather than a conductive polymer.

The insulator 41b is mixed with the conductive polymer heat generating material 41a to form mica having nanoparticles of 600 mesh or more and 15,000 mesh or less in the same manner as the particles of the conductive polymer heat generating material 41a to improve heat retention upon heat generation. Magnesium or mica and magnesium.

The insulator 41b prevents the conductive polymer exothermic body 41a filled in the storage hole of the light heat panel 40 from being discharged and also protects the panel body 42 and the heat- So that the connection portion 41d can be installed.

In addition, the insulator 41b may be designed by winding or coating a power density design with carbon or nichrome nickel or the like at a heating temperature, inserting the insulator (mica or magnesium) into the storage hole of the light source panel 40, Or it may be constituted by inserting a heating element directly by constituting a plant synthetic resin.

The light source panel 40 is formed in the form of a thin plate forward to rapidly dissipate heat to a long distance. The light source panel 40 is formed with a plurality of heat dissipating protrusions 44 on the opposite side of the panel body 42 on which the heat generating elements 41 are formed The heat dissipation is rapid and the heat is radiated to a long distance, and the other light source panel 40 is configured to uniformly distribute the heat as a whole.

In addition, the light-emitting panel 40 may include a plurality of light-emitting diodes (LEDs) 40, which are disposed on the upper surface of the panel body 42, Infrared rays) are emitted, and the energy saving effect is achieved by heat storage heat storage in the air, moisture, and structure due to the heat storage of the light-heat panel 40 itself and the infrared radiant heat.

In addition, the heat (high temperature) of the heating element 41 in the light-heating panel 40 is stored in the light-source material light-heat-coating layer 43 through the conduction process, and the heat source passing through the material of the light- And is converted into a configured optical infrared ray. In other words, energy saving mechanism is formed by accumulating heat in H ₂ O, CO ₂ , organic materials and walls, furniture, and soils with low thermal conductivity, as well as heat storage of the light-emitting panel 40 itself, (BIO) antibacterial, deodorization, air purification, growth, and thermal healing.

Here, the heating element 41 is made of nanoparticles filled in the storage hole formed at the center of the panel body 42 without gaps and capable of generating heat corresponding to application of power to both ends.

A photovoltaic panel 40 is formed on an inner surface of the body 10 so as to be positioned in front of the photovoltaic panel 40. A photovoltaic coating layer 43 is formed on the surface of the photovoltaic panel 40 ) And regenerate the heat that has been stored.

A controller 60 for controlling power supply, temperature and time is formed on a heating element 41 of the light-heating panel 40. The controller 60 is fixed through the cover 23 and receives power from the outside A power source line is connected to the outside and electrically connected to the heating element 41. [

In addition, since the light-emitting panel 40 can be applied to a stand-type thermal therapy apparatus, when the light-emitting panel 40 is applied to a stand system, the temperature of the light-emitting panel 40 is about 350 ° C., High temperature is preferable.

The lid of the first body 20, the frame body 21, the fixed body 22 and the second body 30 may be formed of a wood material such as spruce , Radiata Pine (Newspaper), Red Pine (Scots Pine, Sasna), Eliotifain (Slash Pine, Brazilian Song), Western Red Cedar, Rubberwood, Merbau, Alder (Red Alder), Birch (Silver Birch), and one or two or more species of whiteness can be mixed together. The characteristics of each wood are as follows.

1. Spruce has a strong surface strength but a good strength.

2. Radiata pine is a type of pine, often called New Songi, which is characterized by solid wood, low price, good supply and no knots.

3. Red pine is a pine tree growing in a cold region, and its ring is narrow and dense and beautiful, and strong rosin flavor emanates.

4. Eliottine adopts as a characteristic of good softwood.

5. Yodombeek is a light and sparse tree as a cedar, but it is adopted as a feature that is often used as a high-grade interior material in a place where strong fragrance is strong and strong in water is not needed.

6. The rubber tree is adopted as a feature of hardwood which can be obtained cheaply by tropical trees.

7. Mullbao is a tropical tree with very high surface strength and structural strength. It has very good shrinkage and swelling and it is resistant to decay and is known as a natural anticorrosion.

8. Alder is a hard wood, but it has a lower weight than softwood and adopts as a feature of beautiful wood grain with soft wood.

9. Birch is adopted as a feature of light wood, light grain and solidity, little contraction and deformation.

9. Cotyledon is a healing effect for people with skin diseases such as atopy. Phytoncide is a natural antibacterial substance, and it has a strong antibacterial effect and deodorizing effect on Kindida, Onena, Salmonella and Staphylococcus, which is very helpful for preventing sick house syndrome. Phytoncide generated from white wood is strong antibacterial effect and skin disease It improves it and calms the itching. It also prevents bacteria from penetrating into the skin.

The operation and effect of the present invention constructed as described above will be described below.

1 to 12, the thermotherapy apparatus 100 includes a pair of frame bodies 21 spaced apart from each other in the forward and backward directions, and then a lid 23 is interposed between the frame bodies 21 A heat insulating material 24 and a reflection plate 25 are sequentially installed on the inner surface of the lid 23 after installation.

Thereafter, the light-heating panel 40 is fixed to the center of the ceiling of the reflection plate 25 and then the electric wire connected to the heating body 41 is passed through the reflection plate 25 to be positioned in the space between the cover 23 and the controller 60 ).

Then, both ends of the frame body 21, the lid 23, the heat insulating material 24, the reflector 25, and the shaft nailing 50 are attached to the frame body 21 after the shaft nets 50 are installed in front of the light- The fixing body 22 is coupled to the pair of frame bodies 21 and fixed to the upper surface of the fixing body 22 to complete the assembly of the first body 20. [

When the second body 30 is integrally formed under the fixed body 22 of the first body 20, the second body 30 together with the fixed body 22 is integrally formed and installed .

When the second body 30 is separated from the lower portion of the fixed body 22 of the first body 20, the second body 30 is inserted into the coupling groove 28 of the first body 20, The first and second magnets 29 and 34 are firmly attached by the magnetic force so that they can not be easily separated from each other while the fastening protrusions 33 of the fastening body 22 and the second body 30 to connect the second body 30 to the inner space of the first body 20 so that the assembly of the thermal therapy apparatus 100 is completed.

In order to use the thermal therapy apparatus 100, a power line is connected to an external power outlet, and power is applied to the controller 60. Then, an operation time and a temperature are set through a setting function of the controller 60. [

The user of the hyperthermia treatment apparatus 100 can then perform a treatment of a lying posture and a leg-resting posture in which the second body 30 is supported on the floor or the treatment of the first body 20 and one end of the second body 30, Is supported on the floor, and the legs are folded to perform the treatment in the left-sitting position.

At this time, the first and second bodies 20 and 30 can be manufactured by adjusting the length according to the use condition. In the sitting position where the legs are laid and the leg is extended, the user holds the handle 20a formed on the body 10 The thermal treatment can be performed while moving the thermal therapy apparatus 100 by using the wheel 32. [

In addition, the first and second bodies 20 and 30 can be manufactured by adjusting the length according to the use condition. In the left-posture in which the legs are folded, the heat therapy apparatus 100 is erected so that the light- It can be placed on the dorsal side, side, and abdomen to perform hyperthermia treatment.

In this case, in the light-emitting panel 40, the heat generated by the panel body 42 is conducted through the photothermal coating layer 43 to radiate high-temperature heat at 150 to 350 ° C. on the surface of the photothermal coating layer 43, And emits light of 25 mu m.

As shown in FIGS. 13 to 32, the light-heating panel 40 has a function of improving the quality according to the self-storage heat, the infrared ray emissivity, the sustainability and the energy, the sterilizing function, There is a function that can be used.

As shown in FIG. 13, the test data for the light-heating panel 40 is based on far-infrared ray emissivity test, air purification test, and quality inspection test result data. The trial period was 2016, the test method was KCL-FIR-1005: 2011, and the test institute was conducted by Korea Institute of Construction & Living Environment Test.

1. The results of the quality improvement test for the light panel 40 of the present invention are as follows.

As shown in FIG. 13, according to the results of the test report, the far infrared ray emissivity is 0.911 at a measurement temperature of 80 ° C, the measurement wavelength is 5 to 20 μm, and the far infrared radiation energy is 6.22 × 10 ² , There is a characteristic that it radiates smoothly.

As shown in FIG. 14, the test graph shows the correlation between the far-infrared ray emissivity and the wavelength, and it has a characteristic of proving the reliability of maintaining a constant value without changing the far-infrared emissivity and wavelength.

As shown in FIG. 15, the test graph shows the correlation between the far-infrared radiation energy and the wavelength. In the graph, Black Body (red) is a test graph of the light-heating panel 40 of the present invention, Sample (blue) (43) is not formed, it can be seen that the far infrared ray radiant energy of the black body is larger than that of the sample when the two graphs are viewed. This graph shows the result of the presence or absence of the photothermal coating layer 43 It is possible to confirm the data reliability and reliability in which the far infrared radiation energy is clearly increased in the case where the photothermal coating layer 43 of the present invention is formed by using the photothermographic coating layer 43. It is a characteristic that it can predict the accurate result by the heat storage function and physical properties by the photothermal coating layer 43 have.

That is, in the device for emitting far-infrared rays proposed in the prior art, the infrared ray emission rate is remarkably reduced when measured at the measurement temperature of the present invention at a measurement temperature of 40 ° C., The light heat panel 40 formed thereon is characterized in that the heat treatment function is superior to the conventional far-infrared ray device because the far infrared ray emissivity, the sustain condition, the energy, etc. can be confirmed or maintained constant regardless of the measured temperature.

2. As shown in FIG. 16, the test report relates to the sterilizing function test for the light panel 40 of the present invention, and the results are as follows. However, the sterilization function test was conducted under the assumption that the test space was sterilized by dissipating heat using the light heat panel 40 of the present invention and general conditions that are not artificial for 24 hours in the test for culturing the bacteria in the atmosphere.

As shown in FIG. 17, the results of the test report confirm the culture amount of Escherichia coli. Photo 1 is a general culture amount. Photo 2 shows that Escherichia coli can not be cultured smoothly due to the air purification effect on the light panel 40 of the present invention. Features are proven.

As shown in Fig. 18, the result of the test report confirms the amount of cultivation of the pseudomonas aeruginosa, the photograph 3 shows a general culture amount, and the photograph 4 shows that the light heat panel 40 of the present invention is influenced by the air purification, Features are proven.

As shown in FIG. 19, the results of the test report confirm the culture amount of Staphylococcus aureus. The photograph 5 is a general culture amount. The photograph 6 shows that the Escherichia coli is smoothly cultured by the air purification effect of the light panel 40 of the present invention There is a feature that the sterilization function can not be proven.

As shown in FIG. 20, the results of the test report are expressed numerically with respect to the amount of culture in Escherichia coli, Pseudomonas aeruginosa, and Staphylococcus aureus, and the light heat panel 40 of the present invention is influenced by air purification, And the sterilizing function is proved.

As shown in FIGS. 21 and 22, the result of the test report confirms the amount of the fungus culture, and thus the light heat panel 40 of the present invention is influenced by the air purification and the fungus can not be cultured smoothly, .

3. As shown in FIG. 23, the test report relates to the air purification function test for the light panel 40 of the present invention, and the results are as follows. However, air purification is a test conducted after measuring odor and harmful substances in the atmosphere. Under the assumption that the test space is cleaned by dissipating heat by using the general condition which is not artificial for 2 hours and the light panel 40 of the present invention . Here, the table is a numerical value table of the change in the concentration of the measurement item with time, and the graph shows the numerical value in a line graph, the blank concentration is indicated in blue, and the sample concentration is indicated in red.

As shown in FIG. 24, the result of the test report is a test for confirming the deodorizing power of ammonia in the atmosphere. In general, the concentration according to the blank does not decrease in the range of 0 to 120 minutes. However, And that the light-emitting panel 40 is affected by air purification to remove the ammonia component.

As shown in FIG. 25, the result of the test report is a test for confirming the deodorizing power of formaldehyde in the atmosphere. In general, the concentration according to the blank does not decrease in 0-120 minutes, but the amount of decrease according to the sample decreases remarkably And the fact that the light-heat panel 40 is influenced by air purification to remove the formaldehyde component is proved.

As shown in FIG. 26, the results of the test report show whether or not the asbestos-based material is detected in the light panel 40 of the present invention. The test items include Chrysotile, Amosite, Asbestos, , Crocidolite (Aniseed) and Anthophylite (Anthophyllite). It is characterized by being not harmful to the human body due to Not Detected result in all items, making it environment-friendly and harmless to the human body.

As shown in FIG. 27, the results of the quality inspection report show whether the harmful gas related to the heat insulating material 24 is generated in the light heat panel 40 when the thermal therapy apparatus 100 of the present invention is operated. The test items include thermal conductivity, Flammability, total volatile organic compounds, formaldehyde, toluene, flame retardant performance test items and results.

In other words, according to the test results, there was no abnormality in the combustible item, 0.004 mg / m 2 · h total volatile organic compound, 0.000 mg / m 2 · h formaldehyde, 0.000 mg / m 2 · h toluene, It is a feature that can confirm that it is a harmless product to human body.

As shown in FIG. 28, the results of the quality inspection report are the results of the incompatibility test, the gas hazard, and the behavioral stop time test three times. When the judgment standard is satisfied, the mass reduction rate is 30% or less in all three times. The difference in the final equilibrium temperature did not exceed 20 ° C, and the behavior stopping time was more than 9 minutes: 00 seconds, indicating the result in all acceptance conditions, which is also excellent in terms of physical quality.

As shown in FIG. 29, the result of the quality inspection report is a graph showing the results of the incombustibility test performed three times. It shows a change in temperature or a combustion phenomenon from 0 to 1800 seconds in a temperature range of 700 to 800 ° C. There is a characteristic that the occurrence of fire and the possibility of combustion are remarkably small by maintaining the non-burning performance.

As shown in FIG. 30, the results of the quality inspection report show that the results of the gas toxicity test are expressed by the spectral method, and the behavior stopping time should satisfy the condition of 9 minutes: 00 seconds or more. The average value is 14 minutes: 58 seconds and 14 minutes: 55 seconds, and it is included in the acceptance condition, which is an excellent feature in terms of physical quality.

As shown in FIG. 31, the results of the quality inspection report are shown as test conditions and sample photographs of the heat insulating material 24 applied to the thermal therapy apparatus 100 of the present invention.

The hyperthermia treatment apparatus 100 of the present invention is characterized in that far-infrared rays are emitted at a high temperature of 150 to 300 DEG C, and treatment using heat is performed, and air pollution is performed by burning the contaminated air in the vicinity at a high temperature.

That is, although the surface temperature of the light-heating panel 40 is a high temperature of 150 to 300 ° C (which may be 300 ° C or more), the temperature sensed by the body is not more than 60 ° C due to the characteristic of infrared rays. The energy is possible by the property of the optical infrared ray which increases ten times or more. In the case of the prior art, when the temperature of the heating element is 150 to 300 ° C, the temperature rises to 100 ° C within a distance of 60 cm or less at a close distance, and there is a risk of burning due to the fact that far-

The thermal therapy apparatus 100 according to the present invention has a heat storage function for storing heat conducted through the photothermal coating layer 43 by the heat emitted from the panel body 42 to prevent heat loss, And the efficiency is increased.

The thermal therapy apparatus 100 according to the present invention can fold or disassemble the second body 30 from the first body 20 and disassemble and combine the same so that the heat dissipation height of the light heat panel 40 can be controlled, It is convenient to use and has a feature of using less area.

The hyperthermia apparatus 100 according to the present invention is characterized in that the wheel 32 is formed on the second body 30 to increase mobility.

In the thermal therapy apparatus 100 of the present invention, heat is radiated to the lower portion of the muscle layer during heat treatment by minimizing the moisture around the thermal radiation layer by the radiation heat generated by the photothermal coating layer 43, There is a feature that maximizes the efficacy of the treatment.

32 and 33, FIG. 32 is an experimental photograph comparing storage heat in the light heat panel 40 with and without the photothermal coating layer 43, FIG. 33 is a photograph of the storage heat of the soil by the light heat panel 40 The heat of the heating element 41 in the light heating panel 40 is stored in the light source material light coating layer 43 through the conduction process, The heat source that has passed through the workpiece 43 is converted to a photo-infrared ray composed of complex radiant heat. In other words, energy saving mechanism is formed by accumulating heat in H ₂ O, CO ₂ , organic materials and walls, furniture, and soils with low thermal conductivity, as well as heat storage of the light-emitting panel 40 itself, It is characterized by various functions such as bio-antibacterial, deodorization, air purification, growth, and thermal healing.

The heat therapy using the thermal therapy apparatus 100 according to the present invention is a composite heat including a light ray having a wavelength of 25 탆 or more and has a large heat and penetration ability and also has a resonance and resonance effect for organic compound molecules to expand the antibacterial and capillary blood vessels It helps the blood circulation and cell tissue formation. When it touches the moisture and protein molecules constituting the cells, it activates the cell tissue by fine-shaking the cells 2,000 times per minute, effectively raising the deep body temperature. When the body temperature is 1 ℃, the basal metabolic rate is about 12% and the immunity is decreased about 30%. In order to prevent the disease from becoming vulnerable, it is recommended to use physical / anthropic infrared infrared radiation to improve blood circulation through human stimulation, To improve the response to diseases and healing, cancer, stroke, dyspepsia, menstrual impurities, various geriatric diseases and diarrhea It is effective to aid in skin and beauty care.

The thermal therapy apparatus 100 of the present invention includes a frame body 21 of a first body 20 forming a body 10, a fixed body 22, a lid 23, a handle 20a, (30) is made of a single material such as wood or aluminum, or a combination of wood and aluminum, so that it can be easily used by the elderly or patient through light weight.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, Various changes and modifications may be made by those skilled in the art.

10: body 20: first body
20a: handle 21: frame body
21a: Curtain 22: Fixing body
23: lid 24: insulation
25: reflector 26: third body
26a: first interface surface 26b: engaging groove
26c: female terminal 27: fourth body
27a: second interface plane 27b: engaging projection
27c: male terminal 28: fastening groove
29: first magnet 30: second body
31: Storage Hole 31a: Storage Hole
32: wheel 33: fastening projection
34: second magnet 35: hinge
40: light-emitting panel 41:
42: Panel body 43: Photothermal coating layer
50: Axis network 60: Controller
100: Thermal therapy device

Claims (11)

A thermotherapy device which generates heat from a side of an inner surface of a semicylindrical body (10) to provide warmth to a human body,
A porous mineral photothermal coating layer 43 is formed on the surface of the panel body 42 having one or more heating elements 41 inserted in the longitudinal direction of the body 10, Heat transfer is performed by heat scale and non-luminescence method. At the same time, it emits a 25 ㎛ wavelength, which has high thermal effect and penetration ability, resonance with organic compound and water molecule, A light heat panel 40 designed to be capable of high temperature heating,
(50) installed on the inner surface of the body (10) so as to be positioned in front of the light heat panel (40)
And a controller (60) for controlling power supply, temperature, and time of the heating element (41) of the light heat panel (40).
[3] The apparatus of claim 1, wherein the body (10) comprises a first body (20) having a semicylindrical shape and a light heat panel (40)
And a second body (30) formed at both ends of the first body (20) and forming a storage groove (31) on the inner surface thereof.
[3] The apparatus of claim 2, wherein the first body (20) comprises a pair of frame bodies (21) positioned forward and rearward,
A fixing body 22 formed at an end of the frame body 21,
A lid 23 in the form of a frame body 21, a heat insulating material 24, a reflector 25 and an axial nip 50 are installed in this order from the upper part of the frame body 21 and the reflector 25, And a light-emitting panel (40) is provided between the light source (50).
4. The apparatus according to claim 3, wherein the first body (20) is formed with third and fourth bodies (26) (27)
A male terminal 26c is formed at one side of the coupling groove 26b formed along the longitudinal direction of the first interface 26a of the third body 26 facing the third body 26 and the fourth body 27 Lt; / RTI &
A female terminal 27c is formed on one side of a coupling protrusion 27b formed along the longitudinal direction of the second interface 27a of the fourth body 27 facing the third body 26 and the fourth body 27 Wherein the light source is an infrared light source.
4. The apparatus according to claim 3, wherein a second body (30) having a wheel (32) formed on a lower surface for moving the first body (20) is integrally formed on the lower portion of the fixed body Thermotherapy using photo-infrared.
4. The apparatus according to claim 3, wherein the second body (30) is formed on the lower portion of the fixed body (22) with a wheel (32) formed on the lower surface for easy height adjustment and movement of the first body Wherein the light source is an infrared light source.
The hinge assembly according to claim 3, wherein a second body (30) having a wheel (32) formed on a lower surface thereof for the purpose of height adjustment and movement of the first body (20) Wherein the folded and unfolded portions are connected to each other.
The method of claim 6, wherein when the second body (30) is detached from the first body (20), the first magnet (29) is fixed to both sides of the coupling groove (28) Forming,
And a second magnet (34) is formed on both sides of a fastening protrusion (33) formed on an upper surface of the second body (30).
The thermotherapy apparatus according to claim 3, wherein the mold body (21) and the lid (23) of the first body (20) constitute a handle (20a) for convenience of movement and carrying.
The optical module as claimed in claim 1, wherein the light heat panel (40) is arranged to radiate heat generated by the panel body (42) through the photothermal coating layer (43) to emit high temperature heat of 150 to 350 占 폚 and light infrared of 3 to 60 占 퐉, Is configured to be capable of heat absorbing heat storage and soil heat storage in air, moisture, and structure by self heat storage and photo infrared radiation heat. [2] The apparatus according to claim 1, wherein the body (10) comprises a combination of wood, aluminum, wood and aluminum.

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