KR20240013986A - Far infrared ocher soil heating apparatus - Google Patents

Abstract

The present invention relates to a far-infrared red clay heater that can improve various chronic diseases such as high blood pressure and rheumatoid arthritis through thermal therapy using far-infrared rays.
The present invention is a heat therapy that combines a wet environment emitted from a moisture-containing board and a dry environment emitting far-infrared rays from red clay, which can improve symptoms of various chronic diseases such as high blood pressure, diabetes, rheumatoid arthritis, adult diseases, and gynecological diseases. By implementing a new type of far-infrared treatment method using far-infrared rays, the far-infrared ray emission effect can be maximized, and the structure of the heater is not only simple, but also easy to manufacture, and manufacturing costs can be reduced. Red clay blocks, hot water pipes, and red clay blocks By implementing a new far-infrared ray emission structure combining a frame, the amount of far-infrared rays can be maximized by heating the red clay block in a dry environment isolated from the humid environment, and at the same time, the hot water piping ensures that the red clay block is always dry. We provide a far-infrared red clay heater that can use red clay blocks semi-permanently, extending the life of the red clay blocks by maintaining them.

Description

Far infrared ocher soil heating apparatus}

The present invention relates to a far-infrared red clay heater, and more specifically, to a far-infrared red clay heater that can improve various chronic diseases such as high blood pressure and rheumatoid arthritis through thermal therapy using far-infrared rays.

In general, far-infrared radiation (far-infrared radiation) refers to electromagnetic waves that are furthest from visible light, that is, in the range with the longest wavelength and lowest frequency, when the infrared region is subdivided according to wavelength.

Since the 1970s, the various practicalities of far-infrared rays have been verified in the United States and Japan, and various practical devices have been developed. This led to active research and application in Korea in the industrial and medical fields from the 1980s until recently. .

As an example, in the medical field, medical products are being developed that emphasize the effectiveness of the thermal effect of far-infrared rays to promote blood circulation and increase metabolism, thereby helping to recover from fatigue and healing chronic diseases. However, these effects are being discussed. There are also counterarguments that scientific verification has not yet been conducted.

Treatment devices using such far-infrared rays include Published Patent No. 10-2011-0028858, Registered Patent Publication No. 10-1395236, Published Patent No. 10-2010-0115179, and Published Patent No. 10-2010-0003088. Various things are disclosed in Patent Publication No. 10-2011-0006002, etc.

However, most of the existing treatment devices using far-infrared rays are not only structurally complex, but are also types that emit far-infrared rays while charcoal and red clay that emit far-infrared rays are exposed to moisture, so the efficiency of far-infrared ray radiation is lowered and the lifespan is shortened. There are disadvantages such as having to be replaced frequently, and it is insufficient to see sufficient far-infrared ray effects as it is made of either a dry type or a wet type, and even in the case of a mixed type, it is difficult to isolate far-infrared materials such as red clay and moisture. There are problems such as reduced radiation efficiency and shortened lifespan of far-infrared materials.

Public Patent Publication No. 10-2011-0028858 Registered Patent Publication No. 10-1395236 Public Patent Publication No. 10-2010-0115179 Public Patent Publication No. 10-2010-0003088 Public Patent Publication No. 10-2011-0006002

Therefore, the present invention was developed with this in mind, and is a thermotherapy that combines a wet environment emitted from a moisture-containing board and a dry environment emitted by far-infrared rays from red clay to treat high blood pressure, diabetes, rheumatoid arthritis, adult diseases, and gynecological diseases. By implementing a new form of far-infrared treatment using far-infrared rays that can improve the symptoms of various chronic diseases such as The purpose is to provide a far-infrared red clay heater that can

In addition, another object of the present invention is to implement a new far-infrared ray emission structure that combines a red clay block, a hot water pipe, and a red clay block frame, so that far-infrared rays can be emitted by heating the red clay block in a dry environment isolated from a humid environment. The aim is to provide a far-infrared red clay heater that can use the red clay block semi-permanently, while maximizing it and at the same time extending the life of the red clay block as the hot water piping ensures that the red clay block is always kept in a dry state.

In order to achieve the above object, the far-infrared red clay heater provided by the present invention has the following characteristics.

The far-infrared red clay heater includes a bed on which the user can lie and a cover that covers the upper part of the user lying on the bed, a heater main body, pressed Styrofoam, vinyl and copper plates sequentially laminated on the upper surface of the bed of the heater main body, and a cover in the middle of the width. A board frame installed on the upper surface of a copper plate having a water pipe installation portion formed in parallel and a plurality of board installation portions formed on both sides of the water pipe installation portion, and water installed in the water pipe installation portion of the board frame A pipe, a plurality of boards installed in each board installation portion of the board frame to retain water discharged from the water pipe and always maintained in a wet state, a lower bamboo board installed on the upper surface of the board frame, and several boards. It is installed on the upper surface of the lower bamboo board with a plurality of red clay block installation parts divided into sections and a plurality of hot water pipe holes through which the hot water pipe can pass, and the red clay block is not damaged or the hot water pipe is damaged by the load applied from above. A red clay block frame that serves as a reinforcing member to prevent being pressed, a hot water pipe installed along the hot water pipe hole of the red clay block frame, and a red clay block frame installed in each red clay block installation portion and placed on the upper surface of the hot water pipe. It consists of a structure including a plurality of red clay blocks that emit far-infrared rays while being heated by heat provided from a hot water pipe, and an upper bamboo board installed on the upper surface of the red clay blocks.

This far-infrared red clay heater creates a humid environment while the board is always kept moist by the water discharged from the water pipe, and the red clay block is heated by the heat of the hot water circulating through the hot water pipe, emitting far-infrared rays in a dry environment, It is characterized by being able to provide a thermal therapy environment that combines wet and dry methods.

Here, the cover is composed of a fixed cover fixedly installed on the bed and a slide type cover that can be moved along a slide groove formed in the bed, so that the position of the slide type cover can be adjusted according to the user's body shape.

In addition, a quick connector type water port and a hot water port are installed on one side of the bed, respectively connected to the inner water piping side and the hot water piping side, so that the piping extending from the external water supply source and the hot water supply source is installed. It can be easily connected and used.

In a preferred embodiment, the red clay block is made in the form of a disk-shaped block with a plurality of holes penetrating the thickness and can uniformly emit far-infrared rays, and a piping groove through which a hot water pipe passes is formed on the bottom of the red clay block, When stacking red clay blocks on top of hot water pipes, the height can be reduced by the diameter of the hot water pipe.

It is desirable to use these red clay blocks that have a strength that breaks when a person holds them with a little force by hand after selecting dried red clay with a moisture content of about 10 to 30%.

The far-infrared treatment device provided by the present invention has the following effects.

First, by stacking water pipes, hot water pipes, wooden boards, red clay blocks, etc., the moisture emitted from the moisture-containing board and the far-infrared rays emitted from the red clay combine to create an optimal far-infrared environment, providing far-infrared rays to users. It can provide a thermal treatment effect with maximized emission performance and is effective in improving the symptoms of various chronic diseases such as high blood pressure, diabetes, rheumatoid arthritis, adult diseases, and gynecological diseases.

Second, by applying a new type of far-infrared ray emitting unit that combines a red clay block, hot water piping, and a red clay block frame, the amount of far-infrared ray emission can be maximized by heating the red clay block in a dry environment isolated from the moisture environment to emit far infrared rays. At the same time, the hot water piping ensures that the red clay block is always kept in a dry state, thereby extending the life of the red clay block, which has the effect of allowing the red clay block to be used semi-permanently.

In other words, by applying a method of indirectly heating the red clay block with a heat source provided by the hot water pipe to emit far-infrared rays and drying the red clay block with a heat source provided by the hot water pipe to always keep the red clay block in a dry state, It has the effect of being able to be used semi-permanently, such as maximizing far-infrared ray emission efficiency and extending the durability and lifespan of the red clay block.

Third, after selecting dry red clay with a moisture content of about 10 to 30%, a red clay block is molded to have a certain strength, for example, a strength that does not break when touched by hand, but crumbles when pressed with a little force, and the red clay block is formed to have a certain strength. By applying a new type of red clay block with multiple holes formed in the block, the far-infrared ray emission performance of the red clay block can be improved and at the same time, the far-infrared rays can be uniformly emitted across the entire surface area of the red clay block.

Fourth, by using bamboo and copper plates together, the oxygen concentration in the water vapor created when water is evaporated can be increased, purifying the air, and electromagnetic waves or water veins can be blocked at the source, making the product cleaner, more comfortable, and safer for users. It has the effect of allowing you to receive heat therapy in an environment.

Fifth, it can be manufactured through a simple process of sequentially stacking water pipes, boards, hot water pipes, and red clay blocks on the bottom plate of the treatment device main body, so it is easy to manufacture, has a simple structure, and can reduce production costs. In addition to its effectiveness, it has the effect of being easy to operate and handle, and easy to maintain and manage.

Sixth, by separating the area where a wet environment that generates moisture is created by combining cypress wood boards and water pipes, and the area where a dry environment that emits far-infrared rays is created by combining red clay blocks, hot water pipes, and red clay block frames. , the far-infrared treatment effect can be further improved by combining wet and dry environments, and the red clay block can fully perform its role in a dry environment, while at the same time extending its lifespan can be expected.

1 and 2 are perspective views showing a far-infrared red clay heater according to an embodiment of the present invention.
Figures 3 and 4 are front and cross-sectional views showing a far-infrared red clay heater according to an embodiment of the present invention.
Figures 5 to 13 are perspective views showing the manufacturing process of a far-infrared red clay heater according to an embodiment of the present invention.

Hereinafter, the present invention will be described in detail with reference to the attached drawings.

Figures 1 and 2 are perspective views showing a far-infrared red clay heater according to an embodiment of the present invention, and Figures 3 and 4 are front and cross-sectional views showing a far-infrared red clay heater according to an embodiment of the present invention.

As shown in Figures 1 to 4, the far-infrared red clay heater heats a far-infrared ray-emitting material such as red clay to emit far-infrared rays, and at the same time heats a board soaked in water to generate water vapor, so that far-infrared rays and moisture coexist. It is structured so that the user can see the effects of heat therapy in an environment where it is heated.

To this end, the far-infrared red clay heater includes a heater body 11 as a means of providing a space for the user to lie down.

The heater main body 11 consists of a cover 10 that can be opened and closed in a sliding manner and a bed 12 on which the user can lie down.

The cover 10 can be formed as a tunnel-shaped structure that covers the upper part of the bed 12 and creates a space inside.

This cover 10 includes a fixed cover 10a fixedly installed on the bed 12, and a slide that can be moved in the longitudinal direction of the bed along the slide grooves 18 on both sides formed on the upper width edge of the bed 12. It consists of a type cover 10b.

At this time, the sliding cover 10b has a relatively larger volume than the fixed cover 10a, and accordingly, when the sliding cover 10b is moved, the sliding cover 10b moves the fixed cover 10a. It can be moved while covered.

That is, the sliding cover 10b can be moved above the fixed cover 10a.

Here, the inner surface of the sliding cover 10b and the outer surface of the fixed cover 10a are arranged as close to each other as possible, leaving only the minimum gap required for the slide, and thus the heat (far-infrared rays, moisture) inside the cover 10 etc.) can be effectively prevented from escaping.

By being able to move the position of the sliding cover 10b to an arbitrary position, the sliding cover 10b can be appropriately positioned according to the user's body type, for example, a tall user or a short user. It can be adjusted, and eventually users will be able to select the area they want, such as the neck, chest, or waist, and receive heat treatment in the most comfortable state or condition.

In addition, when the user enters the inside of the heater main body 11, he or she pushes only the slide cover 10b to the side, then lies down on the bed 12, and then pulls the slide cover 10b again and covers it to an appropriate position to heat the body. Since preparations for treatment can be completed, there is the advantage of being able to use it conveniently without the trouble and inconvenience of having to open the cover, which weighs a considerable amount, by flipping it upward, and then borrowing the power of another person to close the cover again.

Such a cover 10 can have a structure in which a frame is made of square lumber such as wood, and the frame made in this way is finished with plates such as plastic plates, acrylic plates, or glass plates made of transparent or opaque materials.

In addition, the rear part of the cover 10, that is, the rear part of the fixed cover 10, is made of a closed structure, and the front part of the cover 10, for example, the front part of the sliding cover 10b, is covered with cloth or A cover finish plate 24 made of a material such as vinyl is installed.

At this time, an arch-shaped hole and a cut line are formed in the cover plate 24 from the bottom, so that when the user lies down on the bed 12, the user's head, etc. can come out through these.

The bed 12 is in the form of a rectangular plate made of wood, etc., and is maintained at a certain height from the floor using four legs on the bottom, and a groove of a certain depth is formed on the inside of the edge member on the upper surface. The water pipe 13, the board 15, the hot water pipe 16, the red clay block 17, etc. can be stacked and installed in the groove formed in this way.

In addition, a quick connector type water port 25 and a hot water port 28 are installed on one side of the bed 12, and at this time, the water port 25 and the hot water port 28 are connected to the bed 12. It is connected to the water pipe 13 and the hot water pipe 16 installed in the inner area, respectively, and accordingly, the external water supply source and hot water supply source are used to supply water and hot water to the water pipe 13 and the hot water pipe 16. When connecting the pipe extending from the side, it can be easily connected using the quick connector type water port (25) and hot water port (28).

Therefore, the user can receive heat therapy while lying on the bed 12, covering the cover 10, and entering the space covered with the cover 10, with only the upper and lower body, excluding the head, and the entire arms and legs. It becomes possible.

In addition, the far-infrared red clay heater includes pressed Styrofoam 14, vinyl 29, and copper plate 22, which are installed in a structure in which they are sequentially stacked on the upper surface of the bed 12 of the heater main body 11.

The pressed Styrofoam 14, vinyl 29, and copper plate 22 are formed in the form of a square plate with an area equal to the bottom area of the bed 12 (in the case of vinyl, it has an area that can cover even the side walls), The compressed Styrofoam 14, vinyl 29, and copper plate 22 are installed on the upper surface of the bed 12 in a structure in which they are sequentially stacked from the bottom.

The pressed Styrofoam 14 is in the form of a plate with a thickness of about 15 mm, and serves as an insulating plate to block cold air coming from the bottom.

In addition, the compressed Styrofoam 14 uses its own elasticity to absorb loads or shocks applied from the top, thereby protecting members stacked thereon or providing a comfortable posture for the user.

The copper plate 22 effectively blocks various harmful substances, such as electromagnetic waves, from penetrating into the inner space of the cover 10. In this case, the copper plate 22 uses an adhesive method or a fastening method using screws. It can be installed in a structure that is fixed to the bottom surface of the bed 12, etc.

The vinyl 29 is installed between the bottom of the copper plate 22 and the upper surface of the pressed Styrofoam 14, and the vinyl 29 installed in this way prevents the water discharged from the water pipe 13 from flowing into the bed 12. It serves to prevent water leakage to the outside.

Of course, the amount of water discharged from the water pipe 13 can be appropriately controlled, and most of the water is retained by the board 15, preventing water leakage. However, by laying the vinyl 29 on the floor like this, By doing so, you can completely rule out any concerns about possible water leaks.

In addition, the far-infrared red clay heater includes a water pipe 13 as a means of supplying water to the board 15.

The water pipe 13 has a plurality of water discharge holes (not shown) in the form of a pipe of a certain length made of a rubber hose, etc., and is placed on the copper plate 22 in the middle of the frame width direction on the board frame 26. It is installed side by side in the water pipe installation portion 30 formed in parallel along the longitudinal direction at the position, and one end of the water pipe 13 installed in this way is a water port (installed on one side of the bed 12). It is connected to 25) so that water from the outside can be supplied to the water pipe 13.

Here, a certain amount of water can be supplied periodically or intermittently to the water pipe 13 by operating an external valve (not shown).

Accordingly, the water supplied to the water pipe 13 flows out toward the bottom of the copper plate 22 through the water discharge hole, and the water that flows out in this way wets the board 15, ultimately causing the board 15 As it retains water, the board 15 can always remain saturated with water.

In addition, the far-infrared red clay heater includes a board 15 as a means of providing moisture (water vapor) during thermal therapy.

The board 15 is a square board made of a material such as plywood or a wooden board, preferably a square board made of cypress wood, and the copper plate 22 In the state placed on top, it is installed in a plurality of board installation parts 31 formed on the board frame 26, for example, in a plurality of board installation parts 31 formed on both sides of the water pipe installation part 30. .

That is, the board 15 is installed in an area at the same height level as the area where the water pipe 13 is installed, and this board 15 is always blown by the water discharged from the water pipe 13. It will remain in its current state.

Each of these boards 15 can be formed in two rows arranged side by side along both sides of the water pipe 13.

For this purpose, the upper surface of the copper plate 22 has a water pipe installation portion 30 formed in parallel along the middle of the width and a plurality of board installation portions 31 formed on both sides of the water pipe installation portion 30. A board frame 26 of a square frame structure installed in is provided.

In the inner area of the board frame 26, a water pipe installation portion 30 is formed between two bar members installed side by side along the longitudinal direction of the frame in the middle of the frame width, and extends in the frame width direction. As a result, a plurality of board installation portions 31 divided into rectangular areas are formed by a plurality of rod members installed at regular intervals along the longitudinal direction of the frame.

One board 15 is inserted into each board installation portion 31 formed in this way, and a plurality of water passages 27 through which water can pass are formed in the rod member.

Accordingly, the water discharged from the water discharge hole of the water pipe 13 can flow into the board installation portion 31 where each board 15 is disposed through the water passage 27, like this. Since the boards 15 retain the flowing water, each board 15 is always in a state of being swollen with water.

In this state, when heat transferred downward from the hot water pipe 16 side or heat transferred from hot water flowing through the water pipe 13 is applied to the board 15, the water contained in the board 15 As this evaporates, water vapor is generated, and this water vapor is eventually sent to the upper space (space surrounded by the cover) of the bed 12 where the user is lying through the upper part, so the user can receive thermal therapy in a humid environment. You can receive it.

In addition, the far-infrared red clay heater includes a lower bamboo board 21 installed on the upper surface of the board frame 26 and the board 15 maintaining the same height, and an upper bamboo board installed on the upper surface of the red clay block 17 ( 23).

The upper bamboo board 23 and the lower bamboo board 21 are made in the form of bamboo feet made by weaving several bamboo strands, so they do not interfere with the smooth transmission of moisture and far-infrared rays upward.

As the upper and lower bamboo boards (23, 21) are stacked together between the functional members stacked on the bed (12) in this way, not only can the oxygen concentration be improved, but moisture is also absorbed from the upper and lower bamboo boards (23, 21). As it penetrates into the porous material, the bamboo becomes wet and dries, thereby increasing the oxygen concentration and playing a role in purifying the air.

In addition, the far-infrared red clay heater includes a red clay block frame 34 as a means of protecting the red clay block 17 and the hot water pipe 16 while demonstrating appropriate rigidity.

The red clay block frame 34 is a frame in the form of a square frame having a plurality of partition members arranged at regular intervals along the length of the frame across the width direction of the frame, and has a structure laminated on the upper surface of the lower bamboo board 21. It is installed.

At this time, a space divided into several zones by each partition member, that is, a plurality of red clay block installation parts 32, is formed inside the red clay block frame 34, and each red clay block installation part 32 formed in this way As the red clay block 17 settles within, it can be installed.

In addition, a plurality of hot water piping holes 33 are formed on the bottom of the red clay block frame 34, for example, at the bottom of each partition member, and the hot water piping 16 is inserted into the hot water piping holes 33 at this time. You can pass by.

As the hot water pipe 15 is installed in a structure that is inserted into the red clay block frame 34, the bottom of the hot water pipe 16 and the bottom of the red clay block frame 34 form the same surface and do not occupy a separate space. In the end, it is possible to prevent the thickness from increasing due to the hot water pipe 16, thereby reducing the overall thickness of the heater.

This red clay block frame 34 is a reinforcing member that prevents the red clay block 17 from being damaged by the load applied from above or the hot water pipe 16 made of a rubber hose, etc. from being pressed when the user lies on the bed 12. plays a role.

That is, the red clay block 17 is installed to fit into the red clay block installation part 32 of the red clay block frame 34, and the hot water pipe 16 is also installed to fit into the hot water pipe hole 33, so that the red clay block ( 17) and the hot water pipe 16 are within the thickness of the red clay block frame 34, and accordingly, the entire load applied from above is received by the red clay block frame 34, and the red clay block 17 and the hot water pipe ( 16) can be protected.

Here, the hot water piping hole 33 formed in the red clay block frame 34 may be formed in an arch shape with the lower end of the partition member open, and may be closed at the lower end of the partition member and penetrate the thickness of the partition member. It can also be in the form of a hole.

By inserting the hot water pipe 16 into the hot water pipe hole 33 formed in this way so that the hot water pipe 16 is integrally coupled to the red clay block frame 34, the hot water pipe 16 is laid separately during manufacturing. It is possible to manufacture the hot water pipe (16) by directly joining it to the red clay block frame (34) without having to adjust the arrangement spacing or the overall pipe shape, thereby reducing the effort and time required for assembly work and at the same time complying with the exact design specifications. There is an advantage in that the hot water pipe 16 can be piped accordingly.

In addition, the far-infrared red clay heater includes a hot water pipe (16) as a means for heating the red clay block (17).

Hot water of about 40 to 80°C supplied from an external boiler (not shown) flows through the hot water pipe 16, and the red clay block ( 17) As it is heated, far infrared rays can be emitted.

This hot water pipe 16 is a pipe such as a rubber hose, and is placed on the lower bamboo board 21 and is inserted along the hot water pipe hole 33 in the red clay block frame 34, thereby forming the red clay block frame 34. It is installed over the entire area in the form of a zigzag-shaped floor heating pipe, and the inflow and discharge ends of the hot water pipe 16 installed in this way are connected to two hot water ports 28 installed on the side of the bed 12. ) are connected to each.

Accordingly, when hot water provided from the external boiler flows through the hot water pipe 16, the red clay block 17 placed on it receives heat, and eventually, through this heating action, the red clay block 17 emits far-infrared rays. This can be released.

In addition, since the hot water pipe 16 is in direct contact with the red clay block 17 and always maintains the red clay block 17 in a dry state, the red clay block 17 at this time is protected from moisture rising from the bottom. It can be protected, and ultimately, the red clay block 17 can actively and continuously emit far-infrared rays while always maintaining a dry state rather than a wet state.

In addition, the far-infrared red clay heater includes a red clay block 17 as a means for substantially emitting far-infrared rays.

The red clay block 17 serves to emit far-infrared rays necessary for thermal therapy, and is heated by hot water of about 40 to 80° C. to effectively emit far-infrared rays.

For this purpose, the red clay block 17 is in the form of a disk-shaped block with a predetermined thickness, for example, in the form of a kind of "lightning bullet", and this red clay block 17 has a plurality of holes 19 penetrating the thickness. It is formed regularly, and by having regular holes 19, the red clay block 17 can uniformly emit far-infrared rays throughout the block.

These red clay blocks (17) are connected to each other within the red clay block installation portion (32) of the red clay block frame (34) and are laid out neatly on the hot water pipe (16), covering the entire area of the red clay block frame (34). It can be installed in any shape (for example, the gap formed between the red clay blocks in the form of a disk-shaped block is filled with a separate piece of red clay block).

In addition, a straight pipe groove 20 through which the hot water pipe 16 passes is formed on the bottom of the red clay block 17, and when the red clay block 17 is stacked on the hot water pipe 16, the The hot water pipe 16 is completely accommodated within the piping groove 20 of the red clay block 17 and does not protrude from the bottom of the red clay block 17. In this state, the bottom of the red clay block 17 is the lower board 15. ) side and the upper surface of the lower bamboo board (21) for isolation from the water pipe (13) side, so that the height can be reduced by the diameter of the hot water pipe (16), and the functionality is ultimately laminated on the upper surface of the bed. It is possible to minimize the overall stacking height of members.

Here, the red clay block 17 can be molded with a predetermined pressure after selecting dry red clay with a moisture content of about 10 to 30%. Accordingly, the strength of the red clay block 17 is increased by applying a slight force by a person's hand. It has a strength that is strong enough to break when held, and ultimately, these low-strength red clay blocks (17) have sufficient pores inside, making them relatively large compared to existing high-strength red clay bricks made by strongly compressing and stamping. It is possible to emit abundant far-infrared rays.

Accordingly, when high-temperature hot water flows through the hot water pipe 16, the red clay block 17 placed on and in contact with the hot water pipe 16 is heated by the hot water and can emit far-infrared rays.

Therefore, the far-infrared red clay heater emits moisture while the board 15 is always maintained in a moist state by the water supplied from the water pipe 13, and at the same time, the red clay heater is emitted by the heat of the hot water circulating in the hot water pipe 16. The block 17 is heated, and as a result, the user is provided with both moisture emitted from the moisture-containing board 15 and far-infrared rays emitted from the red clay block 17, thereby providing the user with more effective conditions in which moisture and far-infrared rays are combined. It is possible to receive heat therapy in a safe heat therapy environment where external electromagnetic waves are blocked.

Figures 5 to 13 are perspective views showing the manufacturing process of a far-infrared red clay heater according to an embodiment of the present invention.

As shown in FIGS. 5 to 13, the process of sequentially stacking functional members such as water pipes 13, boards 15, and red clay blocks 17 on the bed 12 is shown.

First, as a first step, it is a process of manufacturing the bed 12. The bed 12 is a rectangular plate made of wood, etc., and is maintained at a certain height from the floor using four legs on the bottom. This can be done, and a groove of a certain depth is formed on the inside of the edge member on the upper surface, and in the groove formed in this way, a water pipe (13), a board (15), a hot water pipe (16), a red clay block (17), etc. Can be installed stacked.

Next, as a second step, compressed Styrofoam 14 for insulation, vinyl 19 for waterproofing, and copper plate 22 for blocking various harmful substances such as electromagnetic waves are sequentially installed on the upper surface of the bed 12. Carry out the steps.

Next, as a third step, a water pipe 13 for supplying water is installed on the upper surface of the copper plate 22, and a wooden board is kept in a swollen state by retaining the water discharged from the water pipe 13. Perform installation steps (15).

The water pipe 13 is in the form of a pipe of a certain length having a plurality of water discharge holes, and can be installed side by side along the longitudinal direction at the middle position in the width direction of the bed on the upper surface of the bed 12, and the water installed in this way One end of the pipe 13 can be connected to the water port 25 installed on one side of the bed 12 so that water from the outside can be supplied to the water pipe 13.

Here, a certain amount of water can be supplied to the water pipe 13 periodically or intermittently by operating an external valve (not shown).

Accordingly, the water supplied to the water pipe 13 flows out toward the bottom of the copper plate 22 through the water discharge hole, and the water that flows out in this way wets the board 15, ultimately causing the board 15 As it retains water, the board 15 can always be maintained in a state of being saturated with water.

The board 15 is a square board made of a material such as plywood or a wooden board, preferably made of cypress wood, and can be installed on the upper surface of the copper plate 22, that is, a water pipe. It can be installed in an area at the same level as the area where (13) is installed, and this board (15) can be kept in a constant state of being blown by water discharged from the water pipe (13).

Such a board 15 is a combination of a plurality of square plate-shaped unit boards, where each unit board connects both sides of the water pipe 13 installed across the center of the frame width within the board frame 26. It may consist of two rows arranged side by side.

Accordingly, the water discharged from the water discharge hole of the water pipe 13 can flow into the rectangular area where each unit board is arranged through the water passage 27, and the water flowing in this way can be transferred to the unit board. By soaking in water, each unit board, that is, the board 15, can be kept in a state of always being inundated with water.

In this state, when heat indirectly transmitted from above is applied to the board 15, the water contained in the board 15 is evaporated to generate water vapor, and this water vapor eventually passes through the top and causes the user to lie down. By being sent to the upper space (space surrounded by the cover) of the bed 12, the user can receive thermal therapy in a humid environment.

Next, as a fourth step, the lower bamboo board 21 is installed on the upper surface of the board frame 26 to which the board 15 and the water pipe 13 belong, and then the hot water pipe 16 is installed thereon. Carry out the steps.

Hot water of about 40 to 80°C supplied from an external boiler (not shown) can flow through the hot water pipe (16), and hot water of about 40 to 80°C flowing through the hot water pipe (16) As the red clay block 17 is heated, it can emit far-infrared rays.

The inlet and outlet ends of the hot water pipe 16 are respectively connected to two hot water ports 28 installed on the side of the bed 12.

Therefore, when hot water provided from the external boiler flows through the hot water pipe 16, the red clay block 17 placed on it receives heat, and eventually, far-infrared rays are emitted from the red clay block 17 by this heating action. It can be released.

Then, in the fourth step, when installing the hot water pipe 16, the hot water pipe 16 is inserted into the hot water pipe hole 33 of the red clay block frame 34, and the hot water pipe 16 and the red clay block are integrated in this way. The frame 34 can be installed on the lower bamboo board 22 together, and thus the hot water pipe 16 can be easily installed while maintaining the pre-designed pipe path.

Next, as a fifth step, a red clay block 17 for emitting far-infrared rays can be installed on the upper part of the hot water pipe 16 installed in the red clay block frame 34.

The red clay block 17 serves to emit far-infrared rays necessary for thermal therapy, and is heated by hot water of about 40 to 80° C. to effectively emit far-infrared rays.

That is, when the piping groove 20 formed on the bottom of the red clay block 17 is inserted into the hot water pipe 16 and the red clay block 17 is stacked on the hot water pipe 16, the hot water pipe 16 at this time is completely accommodated within the piping groove 20 of the red clay block 17, and ultimately the red clay block 17 can be installed in a structure that directly contacts the hot water pipe 16.

Accordingly, when high-temperature hot water flows through the hot water pipe 16, the red clay block 17 placed on and in contact with the hot water pipe 16 may be heated by the hot water and emit far-infrared rays.

Next, as a sixth step, the step of covering and finishing the upper bamboo board 23 on the upper part of the red clay block frame 34 on which the red clay block 17 and the hot water pipe 16 are installed can be performed.

If necessary, a finishing member made of thin cloth, cover, pad, etc. may be further installed on the upper bamboo board 23.

Finally, various functional members are stacked and installed on the bed 12, then the cover 10 is installed on the top of the bed 12, and the hot water port 28 and the water port 25 in the bed 12 are installed. By connecting the boiler-side piping and the water supply-side piping from the outside, the production of the far-infrared red clay heater can be completed.

Therefore, by manufacturing the far-infrared red clay heater through the first to sixth steps, various functional members can be thinly laminated to a thickness corresponding to the thickness of the bed, and far-infrared rays can be emitted in a always dry state while minimizing the lamination thickness. By creating a wet environment that can double the effect of far-infrared rays as well as performance, it is possible to simplify the overall structure and reduce production costs as well as improve functionality, and to connect water pipes and boiler pipes to water ports and hot water ports. Anyone can easily operate and use it by simply connecting it to each other, and it has the advantage of being easy to handle, easy to maintain, and economical.

Meanwhile, the state of using the far-infrared red clay heater according to an embodiment of the present invention will be described as follows.

As a preparatory process before use, a separate valve (not shown) is operated to sufficiently supply water through the water pipe 13, so that the board 15 is immersed in water, and then the boiler (not shown) is operated. By manipulating a switch (not shown) to supply hot water to the hot water pipe 16, the red clay block 16 is directly heated and the board 14 on which water is blown is also indirectly heated.

After a certain period of time has elapsed, the user opens the cover 10, goes inside, lies down on the bed 12, and closes the cover 10 again.

At this time, the user uses the slide structure of the cover 10 to place the cover 10 in an appropriate position.

In this state, the inner space of the cover 10 where the user is lying is filled with far-infrared rays and moisture that has penetrated the bed 12, and the user at this time can receive thermal therapy in an environment where far-infrared rays and moisture are combined. do.

By receiving thermal therapy in an environment that combines far-infrared rays and moisture in this way, the amount of far-infrared rays transmitted through the human skin can be increased compared to the previous method of radiating far-infrared rays in a dry state, ultimately improving the far-infrared treatment effect. There will be.

In other words, as the pores of the human skin grow larger under a humid environment, the amount of far-infrared rays transmitted to the human skin can increase accordingly, and thus the user can be sufficiently under the influence of far-infrared rays even for a short period of time, and ultimately the far-infrared rays absorbed by the human skin As the amount increases, heat therapy becomes more effective.

As such, the present invention provides a new far-infrared treatment device and treatment method that can create a thermal treatment environment that combines moisture emitted from a moisture-containing board and far-infrared rays emitted from a red clay block, thereby treating hypertension, diabetes, and rheumatism. It can improve the symptoms of various chronic diseases such as arthritis, adult diseases, and gynecological diseases, and maximize the effect of far-infrared ray emission to increase the efficacy of thermal therapy. It is easy to maintain and can be used semi-permanently.

10: cover
11: Heater body
12: Bed
13: Water piping
14: Compressed Styrofoam
15: board
16: hot water pipe
17: Red Clay Block
18: Slide groove
19: Hall
20: Piping groove
21: Lower bamboo board
22: copper plate
23: Upper bamboo board
24: Cover finish plate
25: water port
26: Board frame
27: Water passage
28: hot water port
29: Vinyl
30: Water pipe installation part
31: Board installation part
32: Red clay block installation part
33: Hot water piping hall
34: Red Clay Block Frame

Claims (6)

The heater body (11) includes a bed (12) on which the user can lie down and a cover (10) that covers the upper part of the user lying on the bed (12);
Pressed Styrofoam (14), vinyl (29), and copper plate (22) sequentially stacked on the upper surface of the bed (12) of the heater main body (11);
It has a water pipe installation part 30 formed in parallel along the middle of the width and a plurality of board installation parts 31 formed on both sides of the water pipe installation part 30, and is installed on the upper surface of the copper plate 22. board frame (26);
A water pipe (13) installed in the water pipe installation portion (30) of the board frame (26);
A plurality of boards (15) installed in each board installation portion (31) of the board frame (26) to retain water discharged from the water pipe (13) and always maintain a wet state;
a lower bamboo board (21) installed on the upper surface of the board frame (26);
It is installed on the upper surface of the lower bamboo board 21, having a plurality of red clay block installation parts 32 divided into several zones and a plurality of hot water piping holes 33 through which the hot water piping 16 can pass, A red clay block frame 34 that serves as a reinforcing member to prevent the red clay block 17 from being damaged or the hot water pipe 16 from being pressed by a load applied from above;
A hot water pipe (16) installed along the hot water pipe hole (33) of the red clay block frame (34);
A plurality of red clay blocks ( 17);
An upper bamboo board (23) installed on the upper surface of the red clay block (17);
Includes,
The board 15 is always maintained in a moist state by the water discharged from the water pipe 13, creating a humid environment, and the red clay block 17 is heated by the heat of the hot water circulating through the hot water pipe 16. A far-infrared red clay heater characterized by emitting far-infrared rays under a dry environment to provide a thermotherapy environment that combines wet and dry methods.
In claim 1,
The cover 10 is composed of a fixed cover 10a fixedly installed on the bed 12 and a sliding cover 10b movable along a slide groove 18 formed on the bed 12, allowing the user to use the cover 10. A far-infrared red clay heater characterized in that it can be used by adjusting the position of the sliding cover (10b) according to the body shape.
In claim 1,
On one side of the bed 12, a quick connector type water port 25 and a hot water port 28 are respectively connected to the inner water pipe 13 side and the hot water pipe 16 side, respectively, and are installed to the outside. A far-infrared red clay heater characterized in that it can be used by easily connecting pipes extending from the water supply source and the hot water supply source.
In claim 1,
The red clay block (17) is a far-infrared red clay heater, characterized in that it is made in the form of a disk-shaped block with a plurality of holes (19) penetrating the thickness and can uniformly emit far-infrared rays.
In claim 1 or claim 4,
A pipe groove 20 through which the hot water pipe 16 passes is formed on the bottom of the red clay block 17, so that when the red clay block 17 is stacked on the hot water pipe 16, the height is reduced by the diameter of the hot water pipe 16. A far-infrared red clay heater characterized in that it can be used.
In claim 1,
The red clay block (17) is a far-infrared red clay heater characterized in that it has a strength that breaks when a person holds it with a slight force by hand after selecting dry red clay with a moisture content of about 10 to 30%.

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