KR102226319B1 - Heating apparatus - Google Patents

Abstract

According to the present invention, provided is a heating apparatus capable of performing a foot support function for placing the feet of a user as well as a heating function for delivering warmth or heating surrounding air by coming in contact directly with the placed feet of the user. According to the present invention, the heating apparatus includes: a fixing base part including a floor plate laid on a floor, and a rotation support part combined with a side of the floor plate; a body part provided on an upper side of the fixing base part, having a warmth space provided therein and having a plurality of through holes provided such that the warmth space can communicate with the outside; an axial combination part connecting the rotation support part with the body part, and leading the body part to be rotated with respect to the rotation support part; and a heat radiation module placed in the warmth space, and including a heating element generating thermal energy from electric energy, and a heat radiation pipe receiving the heat generated from the heating element and radiating the heat to the warmth space.

Description

Heating device{HEATING APPARATUS}

The present invention relates to a heating device, and more particularly, to a heating device that can serve as a heating function to heat external air or transmit warmth by direct contact with the user's feet along with a footrest function capable of mounting the user's feet. About.

In the office space where work is performed while sitting at a desk, a heating device is provided to maintain the temperature of the indoor space at a certain level. However, in the case of office spaces, most of the heaters are embedded in the ceiling or erected on one side, so even if the normal indoor temperature is set, the upper space of the room is warm, but the lower space is relatively low. Accordingly, depending on the user, a warmer may be additionally disposed to heat the lower space of the desk.

Meanwhile, as interest in health increases along with the improvement of living standards, various health management methods are being proposed, among which, as the importance of foot health is widely recognized, blood circulation is performed only by keeping feet in hot water for a certain period of time. Interest in foot baths, which have the same effect as promoting health and preventing diseases, is being focused on. Accordingly, a variety of foot heat devices have been disclosed so that the foot bath can be easily and easily performed. For example, a foot heater equipped with a hot water heater and a foot heater for dry heating using a heating element have been introduced. However, since the conventional foot heater puts the foot in the foot bath or wears the foot heater in the form of a shoe on the foot, there is a limitation in that it is inconvenient to move during use, and it is not easy to clean the interior as well as provide other additional functions.

Republic of Korea Patent Publication No. 1365668 (announced on Feb. 24, 2014)

An object of the present invention is to solve the problems of the prior art, and the present invention provides a heating function that delivers warmth by directly contacting the user's foot and heats the surrounding air along with a foot support function capable of mounting the user's foot. It is to provide a heating device that can also be used.

In order to achieve the above object of the present invention, a heating device according to an embodiment of the present invention includes: a fixed base portion having a bottom plate placed on a floor and a rotation support portion coupled to a side surface of the bottom plate; A body portion provided on the upper side of the fixed base portion, provided with a heating space therein, and having a plurality of through holes so that the heating space communicates with the outside; A shaft coupling part that connects the rotation support part and the main body part and rotates the main body part with respect to the rotation support part; And a heat dissipation module disposed in the heating space and including a heating element generating thermal energy from electric energy, and a radiating pipe receiving heat generated from the heating element and discharging it to the heating space.

In the heating apparatus according to an embodiment of the present invention, the body portion, the heat dissipation module is installed on the upper surface, the lower panel forming a bottom surface of the heating space; A left panel forming a left wall surface of the heating space; A right panel forming a right wall surface of the heating space; A front panel forming a front wall surface of the heating space; A rear panel forming a rear wall surface of the heating space; And an upper panel forming a ceiling surface of the heating space, wherein the body portion faces the lower panel from the upper panel to form an upper light lower narrow structure.

In the heating apparatus according to an embodiment of the present invention, the heat dissipation module includes: a first heat dissipation block disposed on one side of the heating element and covering a part of the heating element to receive heat from the heating element; And a second heat dissipation block disposed on the other side of the heating element to cover the rest of the heating element to receive heat from the heating element, wherein the heat dissipation pipe has one end of the first heat dissipation block. A first heat dissipating pipe disposed inside, the other end extending to the outside of the first heat dissipating block, and discharging heat received from the first heat dissipating block to the heating space; And a second heat dissipating pipe having one end disposed inside the second heat dissipating block, the other end extending to the outside of the second heat dissipating block and discharging heat received from the second heat dissipating block to the heat space. It may include.

In the heating apparatus according to an embodiment of the present invention, a first heat dissipation fin for increasing a heat exchange area is further provided at the other end of the first heat dissipation pipe, and a second heat dissipation fin for increasing a heat exchange area at the other end of the second heat dissipation pipe. A second heat dissipation fin is further provided, the first heat dissipation fin is disposed to be inclined toward the front upper region of the first heat dissipation block, and the second heat dissipation fin is disposed to be inclined toward the rear upper region of the first heat dissipation block. A V-shape may be formed so as to correspond to the side shape of the main body.

In the heating apparatus according to an embodiment of the present invention, the main body may include a cable socket for supplying power to the heat dissipation module.

According to the present invention, the user's foot can be stably supported in a natural position through the body portion rotatably coupled to the fixed base portion placed on the floor, and the user's foot in the body portion heated by the heat radiated from the heat dissipation module. Direct contact to deliver warmth or effectively heat the space around the user's lower body.

1 is a perspective view of a heating apparatus according to an embodiment of the present invention.
2 is an exemplary cross-sectional view of FIG. 1.
3 is an exploded perspective view of FIG. 1.
4 is an exploded perspective view showing the body part shown in FIG. 1 by separating it.
5 is an exemplary cross-sectional view showing the heat dissipation module shown in FIG. 2 separated.
6 is a perspective view of a heating device according to another embodiment of the present invention.
7 is an exemplary cross-sectional view of the shaft coupling portion shown in FIG. 6.

Hereinafter, preferred embodiments of the present invention in which the above-described problem to be solved may be specifically realized will be described with reference to the accompanying drawings. In describing the present embodiments, the same name and the same reference numeral may be used for the same configuration, and additional description accordingly may be omitted.

1 is a perspective view of a heating device according to an embodiment of the present invention, FIG. 2 is an exemplary cross-sectional view of FIG. 1, FIG. 3 is an exploded perspective view of FIG. 1, and FIG. 4 is a separate view of the main body shown in FIG. It is a perspective view, and FIG. 5 is an exemplary cross-sectional view showing the heat dissipation module shown in FIG. 2 separated.

The present invention can also serve as a footrest function for mounting the user's feet using the desk, as well as a heating function for delivering warmth by directly contacting the mounted user's feet or heating the surrounding air under the desk on which the user's feet are placed. It is possible to provide a heating device.

For this, the heating device according to the present embodiment may include a fixed base part 100, a main body part 200, a shaft coupling part 300, and a heat dissipation module 400.

The fixed base portion 100 may include a bottom plate 110 placed on the floor and a rotation support portion 120 coupled to a side surface of the bottom plate 110.

The fixed base part 100 may be disposed on the floor of the lower space of the desk where the user's feet are located, and stably support the main body part 200.

The body part 200 is provided on the upper side of the fixed base part 100 and supported by the fixed base part 100, and may be formed in a box shape in which a heating space S is provided.

In addition, the main body 200 may include a plurality of through holes 201 so that the heating space S communicates with the outside. Heat heated in the heating space S through the through hole 201 may be discharged to the outside.

As shown, the through hole 201 may be evenly disposed over the entire surface of the body portion 200, and alternatively, may be formed only on the upper surface to which the user's foot can directly contact.

In addition, the body portion 200 may be made of a thermally conductive material that can be easily heated by heat heated in the heating space (S), or may be made of natural materials such as wood.

When the body part 200 is made of natural materials such as wood, the high-temperature heat heated in the heating space (S) can be transferred directly to the body to prevent burns and reduce the emission of harmful substances. In addition, there is an advantage of realizing an eco-friendly interior.

In addition to this, the body part 200 may be made of various materials such as synthetic materials such as plastic, foam rubber for cushions, and textile materials such as cloth.

The body part 200 according to the embodiment may include a lower panel 210, a left panel 220, a right panel 230, a front panel 240, a rear panel 250, and an upper panel 260. .

The lower panel 210 may be formed in a plate shape, and may form a bottom surface of the heating space S. In addition, a heat dissipation module 400 may be installed on the upper surface of the lower panel 210.

The left panel 220 may be formed in a plate shape, and may form a left wall surface of the heating space S.

The right panel 230 may be formed in a plate shape, and may form a left wall surface of the heating space S.

The front panel 240 may be formed in a plate shape, and may form a front wall surface of the heating space S.

The rear panel 250 may be formed in a plate shape, and may form a rear wall surface of the heating space S.

The upper panel 260 may be formed in a plate shape and may form a ceiling surface of the heating space S.

Here, the lower panel 210, the left panel 220, the right panel 230, the front panel 240, and the rear panel 250 may be coupled to each other using the fixture 270 while the edges are in close contact with each other. have. Of course, instead of the fixture 270, it may be combined using welding, adhesive, or the like.

In addition, the upper panel 260 may be provided to be detachable. That is, the lower panel 210, the left panel 220, the right panel 230, the front panel 240, and the heat space S formed by the rear panel 250 may be opened and closed.

To this end, a stepped step 261 seated on the left panel 220, the right panel 230, the front panel 240, and the rear panel 250 may be provided at the edge of the lower surface of the upper panel 260. .

When the upper panel 260 is configured to be openable and closed, it is possible to facilitate management, such as maintenance, of the heat dissipation module 400 provided in the heating space (S), and the upper panel 260 is separated to provide a thermal space (S In a state in which the upper part of) is completely opened, the surrounding air of the main body 200 may be more effectively heated to increase heating efficiency.

On the other hand, the body part 200 according to the embodiment may form a structure in which the volume of the heating space S gradually decreases while going from the upper panel 260 to the lower panel 210.

That is, by reducing the size of the lower region of the heating space S in which the heat dissipation module 400 is installed, heat exchange efficiency by the heat dissipation module 400 in the lower region of the heating space S can be increased, and the heat dissipation module 400 By increasing the size of the upper area of the heating space (S) separated from) relatively, the area in which the user's body touches, such as feet, can be increased, and the position of the feet can be variously changed according to the user's convenience, and heat is provided to the user. It can be provided effectively.

Meanwhile, the main body 200 according to the embodiment may be provided with a cable socket 205 for supplying power to the heat dissipation module 400.

The shaft coupling part 300 may connect the rotation support part 120 and the body part 200, and may support the body part 200 to be rotatable with respect to the rotation support part 120.

The shaft coupling part 300 includes a first pin hole 310 formed in the rotation support part 120, a second pin hole 320 formed on the side of the body part 200 facing the first pin hole 310, and a first It may include a pin member 330 rotatably inserted into the pin hole 310 and the second pin hole 320.

The body portion 200 coupled to the rotation support portion 120 via the shaft coupling portion 300 may be rotated in the front-rear direction.

Here, the shaft coupling part 300 may be disposed at a position higher than the center of gravity of the body part 200 including the heat dissipation module 400. Accordingly, if an external force is not applied to the main body 200, the main body 200 can maintain a standing state in which the upper panel 260 is horizontally disposed due to its own weight.

Meanwhile, although not shown, a first stopper part may be provided in the main body 200, and a plurality of second stopper parts selectively coupled to the first stopper part may be provided in the fixed base part 100.

For example, the first stopper part may be formed to be convex on the outer surface of the left panel 220 or the right panel 230 of the body part 200, and the second stopper part may correspond to the inner surface of the rotation support part 120 It can be formed concave.

Accordingly, according to the position of the body portion 200 rotated around the shaft coupling portion 300, the first stopper portion may be selectively coupled among the plurality of second stopper portions, and the first stopper portion and the second stopper portion In the additionally coupled state, the body part 200 may maintain the adjusted rotation angle, and accordingly, the user may support feet or perform a heating function in a more diverse and natural posture.

In addition, the body portion 200 whose rotation angle is adjusted may be released again by separating the first stopper portion from the second stopper portion by a strong pressing force transmitted from the user.

The heat dissipation module 400 may be disposed in the heating space S of the main body 200, and heat the air in the heating space S by generating thermal energy from electric energy.

The heat dissipation module 400 according to the embodiment may include a heating element 410, a heat dissipation block, and a heat dissipation pipe.

The heating element 410 generates heat, may be a resistor that converts applied electrical energy into thermal energy, may have a cross-sectional shape of a certain shape, and may be long in the left and right directions.

For example, it may have a rectangular plate shape elongated in the vertical direction and long in the left and right direction. Accordingly, most of the heat generated from the heating element 410 may be radiated to the front and rear sides of the heating element 410.

The heat dissipation block transfers heat generated from the heating element 410 to the heat dissipation pipe side, and the first heat dissipation block 420 is disposed on one side of the heating element 410 and the other side is disposed with the heating element 410 as the center. A second heat dissipation block 430 may be included.

The first heat dissipation block 420 is provided to cover the front part of the heating element 410 to receive heat generated from the front part of the heating element 410, and the second heat dissipation block 430 is a rear part of the heating element 410. It is provided to cover the heat generated from the rear portion of the heating element 410 may be transmitted.

Accordingly, the heat generated from the heating element 410 may be distributed and transferred to the first heat dissipating block 420 and the second heat dissipating block 430 disposed at the front and rear sides with the heating element 410 interposed therebetween.

The first heat dissipation block 420 and the second heat dissipation block 430 may be made of a thermally conductive material such as aluminum or copper.

On the other hand, when a plurality of heating elements 410 are provided, the first heat dissipation block 420 and the second heat dissipation block 430 may be continuously arranged alternately in the front-rear direction with each heating element 410 interposed therebetween. Accordingly, one heat dissipation block connects the neighboring heating elements 410 in the front and rear directions to each other, and receives some heat of the heating element 410 disposed in the front and some heat of the other heating element 410 disposed in the rear. I can.

The first heat dissipation block 420 according to the embodiment may include a first heat dissipation plate 421 and a second heat dissipation plate 423.

The first heat dissipation plate 421 may be disposed on one side around the first heat dissipation pipe 440, and may include a first front coupling portion 4211 and a first rear coupling portion 4213.

The first front coupling portion 4211 may form a front surface of the first heat sink plate 421, and a second rear coupling portion 4231 of the second heat sink plate 423 with the first heat sink pipe 440 interposed therebetween. ) Can be combined. In addition, the first front coupling portion 4211 may be provided with a first pipe receiving groove 4212 into which the rear portion of the first heat dissipation pipe 440 is inserted.

The first rear coupling part 4213 may form a rear surface of the first heat dissipation plate 421, and may be coupled to a second heat dissipation block 430 adjacent to the heating element 410 therebetween. In addition, the first rear coupling portion 4213 may be provided with a first heating element receiving groove 4214 into which a part of the heating element 410 is inserted.

The second heat dissipation plate 423 may be disposed on the other side around the first heat dissipation pipe 440, and may include a second rear coupling portion 4231 and a second front coupling portion 423.

The second rear coupling portion 4231 may form the rear surface of the second heat sink plate 423, and the first front coupling portion of the neighboring first heat sink plate 421 with the first heat sink pipe 440 interposed therebetween. Can be combined with (4211). In addition, the second rear coupling portion 4231 may be provided with a second pipe receiving groove 4232 into which the front portion of the first heat dissipating pipe 440 is inserted.

The second front coupling part 423 may form the front surface of the second heat dissipation plate 423, and may be coupled to a second heat dissipating block adjacent to each other with the heating element 410 interposed therebetween. In addition, the second front coupling portion 423 may be provided with a second heating element receiving groove 4234 into which a part of the heating element 410 is inserted.

Meanwhile, an uneven portion 4217 may be formed on the lower surface of the first heat dissipation block 420, and can be stably coupled and supported with respect to the bottom surface of the body portion 200 through the uneven portion 4217. .

The coupling between the first heat dissipation plate 421 and the second heat dissipation plate 423 and the coupling between the first heat dissipation block 420 and the second heat dissipation block 430 use a thermally conductive adhesive such as welding or a separate fastener. Can be combined.

As described above, in a state in which the first front coupling portion 4211 of the first heat dissipation plate 421 and the second rear coupling portion 4231 of the second heat dissipation plate 423 are in close contact with each other, The end may be inserted into the interior of the first heat dissipation block 420 to be embedded.

And, when a plurality of heating elements 410 are provided, some heat generated from one heating element may be transferred to the first heat dissipation pipe 440 through the first heat dissipation plate 421, and is generated from other neighboring heating elements. Some of the heat generated may be transferred to the first heat dissipation pipe 440 through the second heat dissipation plate 423.

The second heat dissipation block 430 according to the embodiment may also include a first heat dissipation plate 431 and a second heat dissipation plate 433, and the second heat dissipation block 430 is the aforementioned first heat dissipation block 420 The configuration is substantially the same, and redundant related descriptions are omitted.

The heat dissipation pipe receives heat from the heat dissipation block and discharges it to the heating space S, and may include a first heat dissipation pipe 440 and a second heat dissipation pipe 450.

The first heat dissipation pipe 440 receives heat from the first heat dissipation block 420 and discharges it to the heating space S, and a part of the heat dissipation pipe 440 may be disposed inside the first heat dissipation block 420, and the remaining part It may be disposed outside the first heat dissipation block 420, that is, in the heating space (S).

In addition, the first heat dissipation pipe 440 may include a first heat dissipation fin 445 for increasing a heat exchange area for the heating space S, and the first heat dissipation fin 445 is disposed in the heating space S. It may be installed on a part of the first heat dissipation pipe 440. The heat exchange area between the first heating pipe 440 and the heating space S is increased through the first heating fins 445, so that the heating space S can be effectively heated.

The first heat dissipation pipe 440 according to the embodiment has a central portion embedded in the first heat dissipation block 420, and both ends thereof are bent and extended toward the upper region of the heating space S, so as to be formed in a U-shape as a whole. I can. Accordingly, the first heat dissipation pipe 440 may receive heat from the first heat dissipation block 420 and effectively dissipate heat to the upper heating space S of the first heat dissipation block 420.

At this time, the other end of the first heat dissipation pipe 440 exposed to the heating space S may be disposed to be inclined toward the front upper area of the first heat dissipation block 420, and accordingly, the first heat dissipation pipe 440 The installed first heat dissipation fins 445 may be disposed to be inclined toward an upper area in front of the heating space S.

The first heat dissipation pipe 440 and the first heat dissipation fin 445 may be made of a thermally conductive material such as aluminum or copper.

In addition, the first heat dissipation pipe 440 may maintain a vacuum state, and a working fluid having a predetermined capacity may be filled therein. Accordingly, the working fluid may be vaporized by the heat transferred to the first heat dissipation pipe 440, and the vaporized working fluid may be moved to the other end of the first heat dissipation pipe 440, which is a low temperature region. Ammonia, methyl alcohol, and the like may be used as the working fluid, and any fluid with a boiling point lower than that of water at room temperature may be used.

In addition, a microchannel may be provided on the inner surface of the first heat dissipation pipe 440. That is, the working fluid vaporized at one end of the high temperature region of the first heat dissipation pipe 440 flows to the other end of the low temperature region, and then the working fluid condensed at the other end of the low temperature region follows the microchannel at one end, which is the high temperature region. You can return to negative movement. For example, the fine flow path is a powder method in which metal powder is sintered, a mesh method with a fabric structure made of metal fibers, and a groove that embodies the same shape as the steel wire used for the barrel. Method or the like can be used.

The second heat dissipation pipe 450 receives heat from the second heat dissipation block 430 and discharges it to the heating space S, and a part of the heat dissipation pipe 450 may be disposed inside the second heat dissipation block 430, and the remaining part It may be disposed outside the second heat dissipation block 430, that is, in the heating space (S).

In addition, the second heat dissipation pipe 450 may include a second heat dissipation fin 455 for increasing a heat exchange area for the heating space S, and the second heat dissipation fin 455 is disposed in the heating space S. It may be installed in a part of the second heat dissipation pipe 450. Through the second heat dissipation fin 455, the heat exchange area between the second heat dissipation pipe 450 and the heat space S is increased, so that the heat heat space S can be effectively heated.

The second heat dissipation pipe 450 is substantially the same in configuration as the first heat dissipation pipe 440 described above, and redundant related descriptions will be omitted.

However, the other end of the second heat dissipation pipe 450 exposed to the heating space S may be disposed to be inclined toward the rear upper region of the second heat dissipation block 430, and accordingly, the second heat dissipation pipe 450 The installed second heat dissipation fins 455 may be disposed to be inclined toward the rear upper region of the heating space S.

That is, the first heat dissipation fins 445 of the first heat dissipation pipe are disposed to be inclined toward the upper front region, and the second heat dissipation fins 455 of the second heat dissipation pipe 450 are disposed to be inclined toward the rear upper region. A V-shape may be formed so as to correspond to the side shape of the body part 200. Accordingly, the heat generated from the heat dissipation module 400 installed in the lower region of the heat space S is rapidly discharged to the entire heat space S, so that the temperature of the heat space S can be rapidly increased.

6 is a perspective view of a heating device according to another embodiment of the present invention, and FIG. 7 is an exemplary cross-sectional view of a shaft coupling portion shown in FIG. 6.

As shown in Figure 1, the cable socket 205 for supplying power to the heat dissipation module 400 may be provided in the body portion 200, in this case, the power cable connected to the cable socket 205 is the body portion During the rotation of 200, the cable may be twisted or interference with the fixed base part 100 may occur.

6 and 7, according to another embodiment, a cable socket 105 for supplying power to the heat dissipation module 400 may be provided in the fixed base part 100. In this case, the power cable connected to the cable socket 105 does not twist or interfere with the rotation of the main body 200.

However, when the cable socket 105 is provided in the fixed base portion 100, the first electric wire C1 provided in the fixed base portion 100 and connected to the cable socket 105, and the body portion 200 A connection problem of the second wire C2 provided and connected to the heat dissipation module 400 should be considered.

According to this embodiment, when the cable socket 105 is provided in the fixed base portion 100, the first electric wire C1 provided in the fixed base portion 100 and connected to the cable socket 105, and the main body portion It may include a wire connector unit 350 for connecting the second wire (C2) provided in the heat dissipation module 400 and connected to the 200, and the first wire (C1) through the wire connector unit (350). ) And the second wire C2 may be electrically connected.

The wire connector unit 350 according to the embodiment may be provided in the shaft coupling part 300.

Specifically, the wire connector unit 350 includes an electrode ring installation groove 351 formed on the outer surface of the end of the pin member 330 rotatably coupled to the first pin hole 310 of the main body 200, and the electrode ring It is installed in the installation groove 351 and is coupled to the electrode ring 352 electrically connected to the first electric wire (C1) and the second pin hole 320 of the rotation support unit 120 and rotates the end of the pin member 330 An electrode brush housing 353 that supports possible, and an electrode brush 354 formed on the inner surface of the electrode brush housing 353, electrically connected to the second wire C2, and having an end in contact with the surface of the electrode ring 352 ) Can be included.

Accordingly, even while the main body 200 rotates around the shaft coupling part 300, stable power to the heat dissipation module 400 is maintained by maintaining an electrical connection without shorting the first wire C1 and the second wire C2. Can be supplied, and the twisting of the power cable can be prevented.

In addition, since the fixed base portion 100 and the main body portion 200 can be separated and coupled freely through the shaft coupling portion 300 including the wire connector unit 350, the fixed base portion 100 or the main body portion 200 There is also an advantage of being able to perform partial maintenance such as replacement of ).

As described above, preferred embodiments of the present invention have been described with reference to the drawings, but those skilled in the art will variously modify the present invention within the scope not departing from the spirit and scope of the present invention described in the following claims. Can be modified or changed.

100: fixed base portion
200: main body
300: shaft coupling portion
400: heat dissipation module

Claims (6)

A fixed base portion having a bottom plate placed on the floor and a rotation support portion coupled to a side surface of the bottom plate;
A body portion provided on the upper side of the fixed base portion, provided with a heating space therein, and having a plurality of through holes so that the heating space communicates with the outside;
A shaft coupling part that connects the rotation support part and the body part and allows the body part to rotate with respect to the rotation support part; And
A heat dissipation module disposed in the heating space and including a heating element generating thermal energy from electric energy, and a radiating pipe for receiving heat generated from the heating element and discharging it to the heating space; and
The heat dissipation module,
A first heat dissipation block disposed on one side of the heating element to cover a part of the heating element to receive heat from the heating element; And
A second heat dissipation block disposed on the other side of the heating element and provided to cover the rest of the heating element to receive heat from the heating element;
The heat dissipation pipe,
A first heat dissipation pipe having one end disposed inside the first heat dissipating block, the other end extending to the outside of the first heat dissipating block and discharging heat received from the first heat dissipating block to the heat space; And
A second heat dissipating pipe having one end disposed inside the second heat dissipating block, the other end extending to the outside of the second heat dissipating block and discharging heat received from the second heat dissipating block to the heat space; Heating device comprising a. The method of claim 1,
The body part,
A lower panel having the heat dissipation module installed on an upper surface and forming a bottom surface of the heating space;
A left panel forming a left wall surface of the heating space;
A right panel forming a right wall surface of the heating space;
A front panel forming a front wall surface of the heating space;
A rear panel forming a rear wall surface of the heating space; And
Includes; an upper panel forming a ceiling surface of the heating space,
And the body portion facing the lower panel from the upper panel to form an upper light lower narrow structure. delete The method of claim 2,
A first heat dissipation fin for increasing a heat exchange area is further provided at the other end of the first heat dissipation pipe,
A second heat dissipation fin for increasing a heat exchange area is further provided at the other end of the second heat dissipation pipe,
The first heat dissipation fins are disposed to be inclined toward a front upper region of the first heat dissipation block, and the second heat dissipation fins are disposed to be inclined toward a rear upper region of the first heat dissipation block, so as to correspond to the side shape of the main body portion of the upper optical lower narrow structure. Heating device, characterized in that forming a V-shape. The method of claim 1,
The body part,
Heating device comprising a cable socket for supplying power to the heat dissipation module. The method of claim 1,
The fixed base portion,
And a cable socket for supplying power to the heat dissipation module,
The shaft coupling part,
And a wire connector unit for connecting a first wire provided on the fixed base and electrically connected to the cable socket, and a second wire provided on the main body and electrically connected to the heat dissipation module. Heating device.

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