KR102615286B1 - Apparatus for temperature control of seat plate of cold and hot bench - Google Patents

Abstract

The present invention relates to a seat plate temperature control device for a hot and cold bench. This heats or cools the seat plate while mounted on the bottom of the seat plate of a bench having a metal seat plate, and includes a heat pipe that faces the bottom of the seat plate and extends in the longitudinal direction; A thermoelectric element that adheres to the bottom of the heat pipe and transmits heat or cold to the heat pipe; a mounting plate that partially covers the heat pipe while accommodating the thermoelectric element and is fixed to the bottom of the seat plate; A heat sink mounted on the lower part of the mounting plate and in close contact with the bottom of the thermoelectric element; An elastic support part is included to elastically support the heat sink upward.
The temperature control device for the seat plate for a hot and cold bench of the present invention, which is configured as described above, has good heating or cooling efficiency for the heat pipe because the heat pipe and the heat sink are maintained in perfect contact with the thermoelectric element regardless of the size of the thermoelectric element. . In addition, the size of the mounting plate can be adjusted to the heat sink by adjusting the width of the mounting plate, enabling universal use of heat sinks of various sizes.

Description

{Apparatus for temperature control of seat plate of cold and hot bench}

The present invention relates to a seat temperature control device for a hot and cold bench that outputs cold or hot air through the seat plate. More specifically, the present invention relates to a seat plate temperature control device for a hot and cold bench, which has excellent thermal efficiency due to good adhesion to the seat plate as well as good adhesion between component parts. This relates to a seat plate temperature control device for a hot and cold bench.

Benches are long chairs that allow multiple people to sit together and come in various types. For example, they are installed in a variety of places, including terminals, airports, subway platforms, bus stops, parks, and walking trails.

Benches are manufactured in various forms, including those with and without backrests, those with separate or connected seats, and those that are fixed or movable. In addition, soft and comfortable wooden benches are installed in places where there is a lot of traffic and are easy to maintain, while benches made of stone or concrete are installed outdoors, exposed to wind and rain or the sun, or in places with little traffic.

However, existing benches only provide a function that allows users to sit and rest, and have no further functions. In particular, it was difficult to sit on benches installed outdoors because the seats were hot in the summer and cool in the winter. Accordingly, beyond simply sitting and resting, there is a need for a bench that can be used more comfortably in winter and summer. As the technology behind this related invention, domestic patent publication No. 10-2309751 (cold and hot use using heat pipe) is needed. Bench) has been initiated.

The disclosed bench is provided with a heat sink that is placed on the open upper part of the main body having a space inside to provide a seating area, a pipe groove is formed along the longitudinal direction on the bottom of the heat sink, and a heat pipe is tightly fitted into the pipe groove without any gaps. The heat pipe is made of copper material that has better thermal conductivity than the heat sink, and the inside is filled with ammonia gas or Freon gas. The thermoelectric element is in contact with the bottom of the heat sink and the heat pipe at the same time, so the cold or hot air of the thermoelectric element is transmitted to the heat pipe. In a bench for both cold and hot use using a heat pipe that is spread uniformly on the heat sink through a heat sink, the main body is equipped with an atmospheric sensor that measures the air temperature and a humidity sensor that measures the humidity in the air, and the signal values of the atmospheric sensor and the humidity sensor A dew point calculation unit is provided to calculate the dew point according to; When the dew point temperature is measured in the dew point calculation unit, the control unit controls the operation of the thermoelectric element to be above or below the dew point temperature to prevent dew from forming on the heat sink.

However, the conventional bench for both cold and hot use described above is cumbersome to manufacture and costs a lot of money to manufacture. For example, a pipe groove for inserting a heat pipe must be formed in the heat sink, but it is not easy to form a pipe groove of a certain depth in the heat sink. If the pipe groove is deep, the heat pipe is separated from the thermoelectric element and the heat pipe is damaged. This is because it becomes unable to function.

There is a need for a temperature control device that has good thermal efficiency by maintaining close contact with each other.

The present invention was created to solve the above problems, and it maintains perfect adhesion between the heat pipe and the heat sink to the thermoelectric element regardless of the size of the thermoelectric element, and enables universal use of heat sinks of various sizes, both cold and hot. The purpose is to provide a temperature control device for bench seats.

The seat plate temperature control device for a hot and cold bench of the present invention as a means of solving the problem for achieving the above object heats or cools the seat plate while mounted on the bottom of the seat plate of a bench having a metal seat plate. A heat pipe located on the bottom of and extending longitudinally; A thermoelectric element that adheres to the bottom of the heat pipe and transmits heat or cold to the heat pipe; a mounting plate that partially covers the heat pipe while accommodating the thermoelectric element and is fixed to the bottom of the seat plate; A heat sink mounted on the lower part of the mounting plate and in close contact with the bottom of the thermoelectric element; An elastic support part is included to elastically support the heat sink upward.

In addition, the heat sink is formed with a plurality of bolt holes having a locking protrusion on the inner peripheral surface, the mounting plate is formed with a through hole corresponding to the bolt hole, and the seat plate is provided with a plurality of female threaded holes, and the Elastic support part; The spring is supported by the locking protrusion of the bolt hole, and, while inserted into the spring, passes through the bolt hole and the through hole in order and is screwed to the female screw hole, so that the spring elastically presses the heat sink and mounting plate toward the bottom of the seat plate. Equipped with fixing bolts.

Additionally, when a gap occurs between the mounting plate and the heat sink, a plurality of support plates mounted between the mounting plate and the heat sink are further included.

In addition, when a gap occurs between the mounting plate that covers the heat pipe and the seat plate, it further includes a supporting plate that is interposed between the seat plate and the mounting plate and supports the mounting plate.

And, the through hole formed in the mounting plate is a long hole extending along the longitudinal direction of the heat pipe.

In addition, the mounting plate slides in a direction perpendicular to the longitudinal direction of the heat pipe within the limit of maintaining the interconnected state, and includes a first close contact body and a second close contact body that approach or move away from each other, and the first close contact body. It is supported by the close contact body and the second close body, respectively, and has a pair of expansion sliders each capable of sliding in the longitudinal direction of the heat pipe and having the through hole formed therein.

Additionally, the first contact body and the second contact body are in close contact with the bottom of the heat pipe, and the extension slider is in contact with the bottom of the seat plate.

In addition, another hot and cold bench seat temperature control device of the present invention as a means of solving the problem for achieving the above object heats or cools the seat plate while mounted on the bottom of the seat plate of a bench having a metal seat plate. , a heat pipe located on the bottom of the seat plate and extending in the longitudinal direction; A thermoelectric element that adheres to the bottom of the heat pipe and transmits heat or cold to the heat pipe; A heat sink mounted on the lower part of the mounting plate and in close contact with the bottom of the thermoelectric element; It connects the heat sink and the seat plate, and elastically supports the heat sink toward the seat plate to maintain close contact between the heat pipe and the seat plate. It connects a plurality of anchor brackets fixed to the bottom of the seat plate, and the heat sink and anchor bracket. and includes an elastic support means having a tension portion that pulls the heat sink toward the anchor bracket.

In addition, a plurality of side holes are formed in the heat sink, a locking hole is provided in the anchor bracket, and the tension portion includes a wire having a hook that is detachably connected to the side hole and the locking hole, and a wire in the middle of the wire. It has a tension spring that pulls the hook.

In addition, an insulating plate is provided on the bottom of the seat plate to partially conceal the anchor bracket and preserve heat or cold in the seat plate.

The temperature control device for the seat plate for a hot and cold bench of the present invention, which is configured as described above, has good heating or cooling efficiency for the heat pipe because the heat pipe and the heat sink are maintained in perfect contact with the thermoelectric element regardless of the size of the thermoelectric element. .

In addition, the size of the mounting plate can be adjusted to the heat sink by adjusting the width of the mounting plate, enabling universal use of heat sinks of various sizes.

Figure 1 is a partially cut side view showing an application example of a seat plate temperature control device for a hot and cold bench according to a first embodiment of the present invention.
Figure 2 is an exploded perspective view for explaining the configuration of the temperature control device shown in Figure 1.
FIG. 3 is a diagram showing a modified example of the temperature control device shown in FIG. 1.
Figure 4 is a side view showing the temperature control device of Figure 3 assembled.
Figure 5 is a side cross-sectional view showing another modified example of the temperature control device shown in Figure 1.
FIG. 6 is a diagram for explaining another modified example of the temperature control device shown in FIG. 1.
Figures 7 and 8 are diagrams for explaining a modified example of the mounting plate included in the seat plate temperature control device for a hot and cold bench according to the first embodiment of the present invention.
Figure 9 is a cross-sectional view taken along line AA of Figure 8.
Figure 10 is a cross-sectional view taken along line BB of Figure 8.
Figure 11 is a configuration diagram for explaining the structure of a seat plate temperature control device for a hot and cold bench according to a second embodiment of the present invention.

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

The seat temperature control device of the present invention is a device installed on a bench with a cold and hot function to heat or cool the seat plate of the bench. For example, the seat is cooled in the summer and heated in the winter. The 'seat' is the plate-shaped part on which the user sits.

This seat plate temperature control device heats or cools the seat plate while mounted on the bottom of the seat plate of a bench having a metal seat plate, and includes a heat pipe that faces the bottom of the seat plate and extends in the longitudinal direction; A thermoelectric element that adheres to the bottom of the heat pipe and transmits heat or cold to the heat pipe; a mounting plate that partially covers the heat pipe while accommodating the thermoelectric element and is fixed to the bottom of the seat plate; A heat sink mounted on the lower part of the mounting plate and in close contact with the bottom of the thermoelectric element; It includes an elastic support part that elastically supports the heat sink upward.

Alternatively, heating or cooling the seat plate while mounted on the bottom of the seat plate of a bench having a metal seat plate includes a heat pipe that faces the bottom of the seat plate and extends in the longitudinal direction; A thermoelectric element that adheres to the bottom of the heat pipe and transmits heat or cold to the heat pipe; A heat sink mounted on the lower part of the mounting plate and in close contact with the bottom of the thermoelectric element; It connects the heat sink and the seat plate, and elastically supports the heat sink toward the seat plate to maintain close contact between the heat pipe and the seat plate. It connects a plurality of anchor brackets fixed to the bottom of the seat plate, and the heat sink and anchor bracket. and includes an elastic support means having a tension portion that pulls the heat sink toward the anchor bracket.

Figure 1 is a partially cut side view showing an application example of the seat plate temperature control device 10 for a hot and cold bench according to the first embodiment of the present invention, and Figure 2 illustrates the configuration of the temperature control device shown in Figure 1. This is an ablative, disassembled perspective view for the purpose.

The seat plate temperature control device 10 for a hot and cold bench according to the first embodiment heats or cools the seat plate 11 while mounted on the bottom of the metal seat plate 11 of the hot and cold bench 100, and heats or cools the seat plate 11. It is provided with a pipe 13, a thermoelectric element 15, a mounting plate 20, a heat sink 17, and an elastic support part.

The seat plate 11 is a plate-shaped member on which the user sits, has a certain thickness and extends long. The seat plate (11) can be made of aluminum or stainless steel. The seat plate 11 is supported on the pedestal 12 and maintained horizontally. Additionally, a plurality of female screw holes 11a are provided on the bottom of the seat plate 11.

The female threaded openings 11a are formed on the left and right sides of the heat pipe 13 with the heat pipe 13 interposed therebetween. Additionally, a plurality of female screw holes 11a are spaced apart from each other along the longitudinal direction of the heat pipe. By applying a plurality of female screw holes 11a in this way, the freedom of installation of the temperature control device 10 can be increased. For example, the installation position of the temperature control device 10 can be adjusted, or multiple temperature control devices 10 themselves can be applied.

The heat pipe 13 takes the shape of a band with a certain width and thickness and is in close contact with the bottom of the seat plate 11. ('Bottom' in this description means the surface facing the ground.) The heat pipe 13 moves hot air or cold air supplied from the thermoelectric element 15 in the longitudinal direction. The internal structure and operating principle of the heat pipe 13 are general.

The thermoelectric element 15 is in close contact with the bottom of the heat pipe 13 and operates by power applied from the outside through the power line 15a to transmit heat or cold to the heat pipe 13. The heat or cold delivered to the heat pipe 13 moves along the longitudinal direction of the heat pipe 13 and evenly heats or cools the seat plate 11.

The mounting plate 20 is a plate-shaped member that partially covers the heat pipe while accommodating the thermoelectric element 15 and is fixed to the bottom of the seat plate. The mounting plate 20 is made by processing an acrylic plate with a certain thickness, and has a receiving space portion 21c and a heat pipe passage 21a.

The receiving space portion 21c is a space that accommodates the thermoelectric element 15 and is open downward and laterally. The reason for opening laterally is to secure wiring space for the power line 15a. The heat pipe passage 21a is a groove opened at the top, that is, toward the seat plate 11, and allows the heat pipe 13 to pass therein. By applying the heat pipe passage 21a in this way, the upper surface of the mounting plate 20 can be in close contact with the bottom surface of the seat plate 11.

The bottom of the mounting plate 20 is a heat sink installation surface 21f facing the heat sink 17. When the heat sink 17 is coupled to the lower part of the mounting plate 20, the heat sink installation surface 21f is in close contact with the upper surface of the heat sink 17.

In particular, the heat sink installation surface 21f and the bottom of the thermoelectric element 15 are located on the same plane. Therefore, when the heat sink 17 is coupled to the mounting plate 20, the thermoelectric element 15 and the heat sink installation surface 21f are simultaneously faced with the heat sink 17. Just by combining the heat sink 17 with the mounting plate 20, the thermoelectric element 15 is automatically connected to the heat sink 17.

Additionally, through holes 21e are formed at the four corners of the mounting plate 20. The through hole 21e is a hole through which the fixing bolt 18 passes.

The heat sink 17 is in close contact with the bottom of the thermoelectric element, and has a plurality of heat dissipation fins 17d to extract cold air or heat discharged from the thermoelectric element 15 to the outside. The structure of the heat sink 17 can be changed at any time. Additionally, bolt holes 17a are provided at the four corners of the heat sink 17. The bolt hole 17a is a hole through which the fixing bolt 18 passes and has a locking protrusion 17b on its inner peripheral surface. The locking jaw (17b) is a part that supports the spring (19).

The elastic support part elastically supports the heat sink 17 upward and includes a spring 19 and a fixing bolt 18. Upward elastic support means supporting the heat sink 17 toward the seat plate 11.

The spring 19 is a coil-type spring whose upper end is supported by the locking protrusion 17b. It goes without saying that the diameter of the spring 19 is larger than the inner diameter of the bolt hole 17a.

The fixing bolt 18 is a mechanical element that is inserted into the spring 19 and sequentially passes through the bolt hole 17a and the through hole 21e and is screwed to the female screw hole 11a. The spring 19 is maintained in a compressed state between the bolt head 18a and the locking jaw 17b and elastically supports the heat sink 17 upward. By the action of the spring 19, the surface contact between the heat pipe 13 and the heat sink 17 with respect to the thermoelectric element 15 is maintained closely.

FIG. 3 is a diagram showing a modified example of the temperature control device shown in FIG. 1, and FIG. 4 is a side view showing the temperature control device 10 of FIG. 3 assembled.

Referring to the drawing, it can be seen that the thermoelectric element 15 protrudes as much as Z1 from the bottom of the heat sink installation surface 21f. Depending on the model of the thermoelectric element, a thick type thermoelectric element may be used. Figure 3 shows a thick model thermoelectric element 15 applied. In this way, when the thermoelectric element 15 protrudes from the lower part of the mounting plate 20, the heat sink 17 does not receive support from the mounting plate 20, resulting in a close contact between the heat sink 17 and the thermoelectric element 15. This is difficult to maintain.

In this case, the support plate (23) is applied. The support plate 23 is an acrylic plate with a certain thickness, and is installed between the mounting plate 20 and the heat sink 17 to fill the gap when a gap occurs between the mounting plate 20 and the heat sink 17. That is, a plurality of support plates 23 are overlapped and interposed between the mounting plate 20 and the heat sink 17, as shown in FIG. 4. At the four corners of the support plate 23, through holes 23a are formed through which the fixing bolts 18 pass.

The thickness of the individual support plates 23 varies, for example from 0.5 mm to 10 mm. By applying a plurality of support plates 23 in this way, even if the thermoelectric element 15 is thick (enough to protrude from the lower part of the mounting plate 20), the surface area of the mounting plate 20 with respect to the thermoelectric element 15 is reduced. It is done uniformly and no tilting phenomenon occurs.

FIG. 5 is a diagram showing that the supporting plate 25 is applied when the heat pipe 13 is thick and the mounting plate 20 floats from the bottom of the seat plate 11.

The supporting plate 25 is a plate-shaped member having the same shape as the supporting plate 23, and is interposed between the seat plate 11 and the mounting plate 20 and prevents the mounting plate 20 from shaking. A bolt hole (not shown) through which the fixing bolt 18 passes is also formed in the supporting plate 25.

FIG. 6 is a diagram for explaining another modified example of the temperature control device 10 shown in FIG. 1.

The mounting plate 20 shown in FIG. 6 takes the shape of a letter ㅁ. The power line 15a of the thermoelectric element 15 is routed in a detour to the left or right space of the heat pipe 13 within the heat pipe passage 21a.

And long holes 21k are formed on two opposite sides of the mounting plate 20. The long hole 21k is a hole through which the fixing bolt 18 passes. By forming the long hole 21k, it is easier to align the bolt hole 17a of the heat sink with the female thread hole 11a. The long holes 21k can be configured in two or three rows if the mounting plate 20 is sufficiently wide.

Figure 7 is a bottom view for explaining a modified example of the mounting plate in the seat plate temperature control device for a hot and cold bench according to the first embodiment of the present invention. Figure 8 is an exploded view of the mounting plate of Figure 7. And, FIG. 9 is a cross-sectional view taken along line A-A of FIG. 8, and FIG. 10 is a cross-sectional view taken along line B-B of FIG. 8.

The mounting plate 20 shown in FIGS. 7 and 8 includes a first close body 27, a second close body 28, and four extension sliders 29.

The first close body 27 and the second close body 28 are fitted to each other and may spread apart in the direction of arrow c or approach in the opposite direction. The first close body (27) and the second close body (28) are located on the bottom of the heat pipe (13).

The first close body 27 is provided with two coupling spaces 27a, and the second close contact body 28 is provided with two extensions 28a corresponding to the coupling spaces. The coupling space 27a accommodates the extension 28a in a sliding manner and has a fitting groove 27b on its inner surface. In addition, the extension 28a has a certain width and is a horizontally extending portion, and has sliding protrusions 28c at both ends in the width direction. The sliding protrusion (28c) is inserted into the fitting groove (27b) and can slide while maintaining the dovetail joint.

In addition, fitting grooves 27b and 28b are formed at the ends of the first close body 27 and the second close body 28. The fitting grooves 27b and 28b are grooves into which the expansion slider 39 is slidably inserted.

Ultimately, the first close contact body 27 and the second close contact body 28 slide in a direction perpendicular to the longitudinal direction of the heat pipe 13, within the limit of maintaining the interconnected state, and come close to each other. You can do it or move away.

All four expansion sliders 29 have the same shape. Each expansion slider (29) is provided with a long hole (29a) and a sliding protrusion (29b). The long hole (29a) is a hole through which the fixing bolt (18) passes. Additionally, the sliding protrusion (29b) is a part that is slidably fitted into the fitting grooves (27b, 28b).

As shown in FIG. 8, two extension sliders 29 are fitted into the fitting groove 27b of the first close body 27. Additionally, two expansion sliders (29) are mounted in the fitting groove (28b) of the second close body (28). The expansion slider 29 can be expanded in the direction of arrow e or moved in the opposite direction to get closer. The four extension sliders (29) contact the bottom of the seat plate (11).

Ultimately, the four long holes 29a included in the mounting plate 40 having the above configuration can move in the width and length directions of the heat pipe 13. Since the mounting plate 40 can be expanded in this way, it is possible to combine a heat sink 17 with a wider bottom surface. Of course, as the size of the heat sink 17 increases, the heat dissipation efficiency also increases.

Figure 11 is a configuration diagram for explaining the structure of the seat plate temperature control device 10 for a hot and cold bench according to the second embodiment of the present invention.

Reference numbers that are the same as those mentioned above indicate the same members with the same function.

As shown, the temperature control device 10 of the second embodiment includes a heat pipe 13, a thermoelectric element 15, a heat sink 17, an elastic support means, and an insulating plate 31.

As in the first embodiment, the heat pipe 13 is in close contact with the bottom of the seat plate 11, and the thermoelectric element 15 is in contact with the bottom of the heat pipe 13. Additionally, a heat sink 17 is installed below the thermoelectric element 15. The hot air or cold air output from the thermoelectric element 15 moves to the seat plate 11 through the heat pipe 13.

The heat sink 17 in the second embodiment has multiple side holes 17g. The side hole 17g is a hole provided on the outer portion of the heat sink 17 and supports the first hook 37. The first hook (37) is inserted into the side hole (17g).

The elastic support means connects the heat sink 17 and the seat plate 11 and pulls the heat sink toward the seat plate to maintain close contact between the heat pipe and the seat plate. That is, the heat sink 17 is pulled in the direction of arrow f. Of course, the vertical component of the force applied in the direction of arrow f acts as a force for the heat sink 17 to press the thermoelectric element 15 upward.

The elastic support means includes a plurality of anchor brackets (33) and tension portions (35). The anchor bracket 33 is a metal piece fixed to the bottom of the seat plate 11 by welding and has a locking hole 33a. The catching hole (33a) is a hole through which the second hook (38) is hung.

In addition, the tension portion 35 connects the heat sink 17 and the anchor bracket 33 and moves the heat sink 17 toward the anchor bracket 33 in the direction of arrow f, and has first and second hooks 37 at both ends. It has a connection wire (35a) having , 39) and a tension spring (35b). The tension spring (35b) is a spring integrated into the center of the connecting wire. Two or more tension parts are applied to support one heat sink 17.

The insulation plate 31 is a sheet-like member that covers the bottom of the seat plate 11, partially conceals the anchor bracket 33, and preserves heat or cold in the seat plate 11. In other words, it is to prevent heat or cold from the seat plate from escaping to the bottom as much as possible.

Above, the present invention has been described in detail through specific embodiments, but the present invention is not limited to the above embodiments, and various modifications can be made by those skilled in the art within the scope of the technical idea of the present invention.

10: Temperature control device 11: Seat plate 11a: Female screw hole
12: Stand 13: Heat pipe 15: Thermoelectric element
15a: Power line 17: Heat sink 17a: Bolt hole
17b: Locking protrusion 17d: Heat dissipation fin 17g: Sight hole
18: Fixing bolt 18a: Bolt head 19: Spring
20: Mounting plate 21a: Heat pipe passage 21c: Receiving space
21e: Through hole 21f: Heat sink installation surface 21k: Long hole
23: Support plate 23a: Through hole 25: Supporting plate
27: First close body 27a: Coupling space 27b: Fitting groove
28: Second close body 28a: Extension 28b: Fitting groove
28c: Sliding projection 29: Extension slider 29a: Long hole
29b: Sliding projection 31: Insulating plate 33: Anchor bracket
33a: Hook hole 35: Tensile portion 35a: Tensile wire
35b: Tension spring 37: First hook 38: Second hook
100: Hot and cold bench

Claims (10)

For heating or cooling the seat plate while mounted on the bottom of the seat plate of a bench having a metal seat plate,
A heat pipe located on the bottom of the seat plate and extending longitudinally;
A thermoelectric element that adheres to the bottom of the heat pipe and transmits heat or cold to the heat pipe;
a mounting plate that partially covers the heat pipe while accommodating the thermoelectric element and is fixed to the bottom of the seat plate;
A heat sink mounted on the lower part of the mounting plate and in close contact with the bottom of the thermoelectric element;
An elastic support part is included to elastically support the heat sink upward,
In the heat sink, a plurality of bolt holes having locking protrusions are formed on the inner peripheral surface,
In the mounting plate, through holes corresponding to the bolt holes are formed,
The seat plate is provided with a number of female screw holes,
The elastic support part;
A spring supported by a stopper in the bolt hole,
It is provided with a fixing bolt that, while inserted into the spring, passes through the bolt hole and the through hole in order and is screwed to the female screw hole, so that the spring elastically presses the heat sink and mounting plate to the bottom of the seat plate,
The mounting plate is,
A first close contact body and a second close contact body that slide in a direction perpendicular to the longitudinal direction of the heat pipe to approach or move away from each other within the limit of maintaining the interconnected state,
Each pair of expansion sliders is supported on the first close body and the second close body, is capable of sliding in the longitudinal direction of the heat pipe, and has the through hole formed therein,
Seat plate thermostat for hot and cold benches. delete According to paragraph 1,
When a gap occurs between the mounting plate and the heat sink, a plurality of support plates are further included to be mounted between the mounting plate and the heat sink.
Seat plate thermostat for hot and cold benches. According to paragraph 1,
When a gap occurs between the mounting plate that covers the heat pipe and the seat plate, it further has a supporting plate that is interposed between the seat plate and the mounting plate and supports the mounting plate,
Seat plate thermostat for hot and cold benches. According to paragraph 1,
The through hole formed in the mounting plate is a long hole extending along the longitudinal direction of the heat pipe,
Seat plate thermostat for hot and cold benches. delete According to paragraph 1,
The first close contact body and the second close contact body are in close contact with the bottom of the heat pipe,
The extension slider is in contact with the bottom of the seat plate,
Seat plate thermostat for hot and cold benches.
delete delete delete

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