JP3150523U - Communication device case heat dissipation device - Google Patents

Abstract

Disclosed is a communication case heat dissipating device having an optimum heat dissipating effect because heat can be dissipated quickly by designing the heat dissipating module and the heat dissipating area can be increased. A main body 2 including a housing installation space 21 and at least one heat dissipating module 3 including a plurality of heat dissipating fins 23 and at least one second heat conduit 32 are provided. The housing installation space 21 includes at least one heat receiving heat sink. Section 211 and at least one heat dissipating section 212. The first heat conduit unit 213 is installed in the accommodation installation space 21, and the first heat conduit unit 213 is connected to the heat receiving section 211 and the heat dissipating section 212. The heat absorbed by the heat receiving part 211 is conducted to the heat dissipating part 212 and is dissipated, and the second heat conduit 32 is connected to the heat dissipating part 212 of the main body 2 and the heat dissipating fins 23, whereby the main body 2 is dissipated. The heat of the section 212 can be transferred to the heat dissipation module 3 to perform heat dissipation. [Selection] Figure 4

Description

  The present invention relates to a communication device case, and more particularly, to a communication device case heat dissipation device that can quickly dissipate heat with at least one heat dissipating module and can further increase the heat dissipating area.

Electronic communication equipment is usually installed in a communication device case, but these equipment generate heat during operation.
Moreover, the communication device case is a sealed body, and the material thereof is generally metal, and is manufactured by an integral molding technique. However, since the current casting technique is limited, the heat conductivity coefficient of the material is not sufficient.
Therefore, the heat generated by the electronic equipment is accumulated in a local area in the case body, the temperature of the local area becomes high, and heat dissipation is not easy.
As a result, the heat resistance temperature of the electronic parts is exceeded, which adversely affects the reliability and service life of the electronic equipment.
However, the temperature in most other areas in the case body away from the heat generating electronic parts is very low compared to the temperature in the local area in contact with the electronic equipment.
In other words, the temperature inside the case body is extremely unbalanced, which directly affects the heat dissipation performance of the entire case.
In general, methods such as enlarging the case body or changing the material of the case body have been taken to solve the above problems, but this has caused technical problems such as excessive weight of the case body. Newly derived.
Therefore, how to improve the heat dissipation performance without changing the size and weight of the case body is an important issue.

FIG. 1 is an exploded schematic view of a conventional communication device case. As shown in FIG. 1, the communication device case includes a housing 10, a lid 11, a plurality of support pillars 12, and a substrate 13, and the housing 10 includes an accommodation storage space 101 and a plurality of heat dissipation fins 103.
Each of the heat dissipating fins 103 is installed on the surface opposite to the housing / accommodating space 101 of the casing 10.
The support pillars 12 are installed at one end of the storage space 101 adjacent to the housing 10 and correspond to the substrate 13.
The lid body 11 is fitted in correspondence with the substrate 13, whereby the lid body 11 is just accommodated and installed in the accommodating and accommodating space 101 and coupled to each other.

As a result, when the board 13 in the communication device case is activated, the plurality of heat generating components 131 (chip, CPU or other IC) on the board 13 generate extremely high temperature heat by the arithmetic processing.
However, because heat can only be conducted onto the enclosure 10 and through the heat dissipating fins 103 on the enclosure 10, some heat can be diffused and dissipated outward in a radiative manner, so that the heat is It cannot be quickly discharged into the storage space 101.
This is because the heat generating component 131 on the substrate 13 does not have any other conduction medium such as a heat conduit or a heat conductive component, so that the heat generated by the heat generating component 131 is immediately transmitted to each heat dissipating fin 103. However, it is not possible to dissipate heat.
Therefore, the heat in the communication device case is not easily exhausted to the outside, so that the heat generating component 131 often shuts down during the arithmetic processing, or the quality of the communication signal becomes poor, The heat generating component 131 is damaged, and the service life is shortened.

As described above, the conventional communication device case has the following drawbacks.
1. The heat dissipation effect is poor.
2. The shutdown phenomenon is likely to occur.
3. Communication signal quality is poor.
4. The service life will be shortened.
5. High damage rate.
The present invention has been made in view of the above-described drawbacks of the conventional communication device case.

JP 2003-209385 A

The first problem to be solved by the present invention is to provide a communication case heat dissipating device in which at least one heat dissipating module is installed and thereby an extremely excellent heat dissipating effect can be achieved.
The second problem to be solved by the present invention is to provide a communication device case heat dissipating device capable of separately expanding the heat dissipating area.
The third problem to be solved by the present invention is to provide a communication device case heat dissipation device capable of maintaining the stability of communication signal quality.
A fourth problem to be solved by the present invention is to provide a communication device case heat dissipation device capable of improving the service life.

In order to solve the above problems, the present invention provides the following communication device case heat dissipation device.
The communicator case heat dissipating device includes a main body having an accommodation installation space, and at least one heat dissipating module including a plurality of heat dissipating fins and at least one second heat conduit, and the main body includes at least one heat receiving unit and at least one heat receiving unit. The first heat conduit unit is installed in the housing installation space of the main body, and the first heat conduit unit is connected to the heat receiving unit and the heat dissipating unit, and absorbs the heat absorbed by the heat receiving unit. The second heat conduit is connected to the main body and the heat dissipating fins, and the heat transferred to the main body is further transferred to the heat dissipating module for heat dissipation.

  That is, the invention of claim 1 is a communication device case heat dissipation device comprising a main body having an accommodation installation space, and at least one heat dissipation module having a plurality of heat dissipation fins and at least one second heat conduit, The housing installation space is divided into at least one heat receiving unit and at least one heat dissipating unit, and the first heat conduit unit is installed in the housing installation space, whereby the first heat conduit unit is The heat receiving part and the heat dissipating part are connected, and the heat absorbed by the heat receiving part is conducted to the heat dissipating part to dissipate the heat, and the second heat conduit is connected to the main body and the heat dissipating fins and transmitted to the main body. Heat is transferred to the heat dissipation module to dissipate heat.

The invention of claim 2 is the communication device case heat dissipation device according to claim 1, wherein the second heat conduit includes at least one second heat absorption end and at least one second heat absorption end, and the second heat absorption end. Is connected to one side of the main body, and the second heat dissipating end is pierced to each heat dissipating fin.
The invention of claim 3 is the communication device case heat dissipation device according to claim 1, wherein the main body is opposed to one side of the heat dissipating module, a heat transfer unit is installed, the heat dissipating module is connected, and the heat transfer unit Comprises at least one first conduction end and at least one second conduction end, wherein the first conduction end conducts heat conducted to the first heat conduit unit to the heat dissipation module through the second conduction end to dissipate heat. It is characterized by that.
The invention of claim 4 is the communication device case heat dissipation device according to claim 1, wherein the heat receiving portion includes at least one first convex body and is in contact with at least one exothermic component facing to form a hot zone. It is characterized by that.
The invention of claim 5 is the communication device case heat dissipation device according to claim 4, wherein the first heat conduit unit includes a plurality of first heat conduits, and each first heat conduit includes a first heat absorption end and a first heat absorption end. A heat dissipation end is provided, the first heat absorption end is adjacent to the first convex body, and the first heat dissipation end is separated from the first convex body.

The invention of claim 6 is the communication device case heat dissipation device according to claim 1, wherein the heat dissipating part comprises a first heat dissipating part, a second heat dissipating part, a third heat dissipating part, a fourth heat dissipating part, and a fifth heat dissipating part. The first heat dissipating part is installed on the bottom surface of the housing installation space and is directed away from the heat receiving part, and the second, third, fourth, and fifth heat dissipating parts are It is characterized in that it is installed surrounding the accommodation installation space.
According to a seventh aspect of the present invention, in the communication device case heat dissipation device according to the first aspect, at least one substrate is accommodated and installed in the accommodation installation space, and the heat generating component is installed on the substrate.
The invention of claim 8 is the communication device case heat dissipation device according to claim 1, wherein the accommodation installation space includes at least one concave tank, thereby accommodating and installing the first heat conduit unit, and the concave tank A part of is adjacent to the periphery of the first convex body and the heat receiving part, and the other part is adjacent to the periphery of the heat dissipation part and the main body.
The invention of claim 9 is the communication device case heat dissipation device according to claim 1, wherein a plurality of heat dissipating fins are provided outside the main body, and each heat dissipating fin is installed on the surface opposite to the accommodation installation space of the main body. It is characterized by that.
The invention of claim 10 is the communication device case heat dissipation device according to claim 7, wherein the accommodating installation space further includes at least one support component and at least one heat conducting component, and the support component accommodates the main body. It is installed in an installation space, thereby supporting the substrate, and the at least one heat conducting component is installed between two substrates adjacent to each other, and at least one second on each side of the heat conducting component. A convex body is provided and stretched to come into contact with the heat-generating component on the substrate to form a hot zone.

The communication device case heat dissipating device according to claim 10, wherein the heat conducting component includes a third heat conduit unit, and the third heat conducting tube unit comprises a plurality of third heat conduits, Each third heat conduit has a third heat absorption end adjacent to the second convex body and a third heat dissipation end away from the second convex body, and the third heat absorption end absorbs the heat absorbed by the third heat absorption end. The heat is transferred to the heat dissipating part through the heat dissipating end, and is dissipated.
The invention according to claim 12 is the communication device case heat dissipation device according to claim 1, wherein the main body further connects a lid, and one side of the lid is opposed to the accommodation installation space, and at least one first A three-convex body, wherein the lid body is provided with a plurality of heat dissipating fins on the opposite side of the housing installation space, the third convex body protrudes, contacts the heat-generating component, and forms a hot area. Features.
The communication device case heat dissipating device according to claim 11, wherein the lid includes a fourth heat conduit unit, and the fourth heat conduit unit includes a plurality of fourth heat conduits, Each fourth heat conduit has a fourth heat absorbing end adjacent to the third convex body and a fourth heat dissipating end separated from the third convex body, and the fourth heat absorbing end absorbs the absorbed heat into the fourth heat dissipating end. The heat is transferred to the heat dissipating fins and the heat dissipating part on the lid through the ends, respectively, to dissipate heat.
The invention according to claim 14 is the communication device case heat dissipation device according to claim 1, wherein the main body is provided with a heat transfer portion facing at least one side of the heat dissipation module, and the heat transfer portion is connected to the heat dissipation module. Correspondingly, the heat transfer section comprises at least one first conduction end and at least one second conduction end, the heat conducted by the first conduction end to the first heat conduit unit being the second conduction end. The heat is transferred to the heat dissipating module through the end, and heat is dissipated.

  According to the heat dissipating module of the present invention, rapid heat dissipating is possible and the heat dissipating area can be expanded separately. Therefore, the communication device case heat dissipating device has an optimum heat dissipating effect.

It is a disassembled schematic diagram of the conventional communication apparatus case. It is a decomposition | disassembly schematic diagram of this invention main body structure. It is a decomposition | disassembly schematic diagram of this invention cover body structure. It is a disassembled schematic diagram of the optimal embodiment of the present invention. It is a combination schematic diagram of the optimal embodiment of the present invention. It is the bird's-eye view schematic diagram from the side in Drawing 5 of the main part and heat dissipation module of the present invention.

The best mode for carrying out the present invention will be described below in detail with reference to the drawings.
As shown in FIGS. 2 and 6, the communication device case heat dissipation device of the present invention includes a main body 2 including a housing installation space 21 and a plurality of heat dissipation fins 23, a plurality of heat dissipation fins 31, and at least one second heat conduit 32. It consists of at least one heat dissipation module 3.

  Each of the heat dissipating fins 23 is installed on the surface of the main body 2 opposite to the housing installation space 21, and the housing installation space 21 is divided into at least one heat receiving part 211 and at least one heat spreading part 212. Moreover, the first heat conduit unit 213 is installed in the housing installation space 21, and the first heat conduit unit 213 is connected to the heat receiving part 211 and the heat dissipating part 212, and the heat absorbed by the heat receiving part 211 is dissipated in the heat dissipating part. Heated to 212 and dissipated.

  The second heat conduit 32 is connected to the main body 2 and the heat dissipating fins 31, and transfers heat transferred to the main body 2 to the heat dissipating module 3 to perform heat dissipation. In addition, the second heat conduit 32 includes at least one second heat absorbing end 321 and at least one second heat dissipating end 322, and the second heat absorbing end 321 is connected to one side of the main body 2 so that the second heat dissipating end 321 is connected. The end 322 is in contact with each of the heat dissipating fins 31.

  Thus, the heat received by the first heat dissipating end 2132 of the first heat conduit 2130 is quickly transferred to the second heat absorbing end 321 of the second heat conduit 32, and the second heat absorbing end 321 absorbs the absorbed heat. Is drawn onto the second heat dissipating end 322, and the second heat dissipating end 322 conducts heat to the heat dissipating fins 31 penetrating thereon and dissipates heat. In addition, the first heat conduit unit 213 includes a plurality of first heat conduits 2130, and each first heat conduit 2130 includes a first convex body 2111 adjacent to the first heat absorbing end 2131 and the first heat dissipating end. A first convex body 2111 separated from 2132 is provided, and the heat absorbed by the first heat absorbing end 2131 is transferred to the first heat dissipating end 2132 for heat dissipation.

That is, the first heat absorbing end 2131 quickly conducts the heat absorbed and collected by the heat receiving portion 211 to the first heat dissipating end 2132, whereby the first heat dissipating end 2132 connects the received heat to the outside of the main body 2. The heat dissipation module 3 is guided to quickly dissipate heat, and the heat is transferred to the heat dissipating unit 212 to dissipate heat.
Therefore, the first heat conduit unit 213 can effectively concentrate the heat on the heat dissipating module 3 and the heat dissipating part 212, and can quickly discharge the heat.

Subsequently, as shown in FIGS. 2, 3, 4, 5, and 6, the main body 2 is provided with the heat transfer section 4 facing at least one side of the heat dissipation module 3.
The heat transfer section 4 is connected to and corresponds to the heat dissipation module 3, and the heat transfer section 4 includes at least one first conduction end 41 and at least one second conduction end 42.

The first conduction end 41 transfers the heat conducted to the first heat conduit unit 213 to the heat dissipation module 3 through the second conduction end 42 and dissipates the heat.
That is, the first conductive end 41 transfers the heat received by the first heat dissipating end 2132 of the first heat conduit 2130 to the second conductive end 42, and the second conductive end 42 collects the received heat. Then, it is guided onto the second endothermic end 321.

Next, the second heat absorbing end 321 transfers the received heat to the second heat dissipating end 322, so that the second heat dissipating end 322 distributes the heat evenly to each of the heat dissipating fins 31 penetrating thereon. Dissipate heat.
The heat receiving portion 211 includes at least one first convex body 2111, and the first convex body 2111 is in contact with at least one opposing heat generating component 61 to form a hot area (hot area) H.
Since the first convex body 2111 absorbs heat generated by the heat generating component 61, this area becomes a relatively high temperature in the accommodation installation space 21, and forms a hot area H.

The heat dissipating part 212 is composed of a first heat dissipating part 2121, a second heat dissipating part 2122, a third heat dissipating part 2123, a fourth heat dissipating part 2124, and a fifth heat dissipating part 2125. Form.
The cold zone L is away from the hot zone H and does not contact any heat generating component 61. As a result, this area forms a relatively low-temperature heat dissipation area in the accommodation installation space 21.
The first heat dissipating unit 2121 is installed on the bottom surface of the housing installation space 21 in a direction away from the heat receiving unit 211.

The second, third, fourth, and fifth heat dissipating parts 2122, 2123, 2124, and 2125 are installed so as to surround the housing installation space 21, that is, both sides of the second heat dissipating part 2122 are respectively connected to the third heat dissipating part 2123. And connected to one side corresponding to the fifth heat dissipating part 2125.
The opposite sides of the third heat dissipating part 2123 and the fifth heat dissipating part 2125 are connected to both sides opposite to the fourth heat dissipating part 2124, whereby the second, third, fourth and fifth heat dissipating parts 2122, 2123 are connected. , 2124, 2125 are installed so as to surround the accommodation installation space 21.

The accommodation installation space 21 includes at least one concave tank 214, and thereby accommodates and installs each first heat conduit 2130.
In addition, a part of the concave tank 214 is adjacent to the periphery of the first convex body 2111 and the heat receiving part 211, and the opposite side part is adjacent to the periphery of the heat dissipation part 212 and the main body 2.

  That is, a part of the concave tank 214 follows the first heat absorbing end 2131 of the first heat conduit 2130 and surrounds the first convex body 2111 and the heat receiving part 211, and the other part of the concave tank 214 is It extends away from the first convex body 2111 and follows the first heat dissipating end 2132 of the first heat conduit 2130 to come into contact with the heat dissipating part 212 and the main body 2. Moreover, at least one substrate 6 is accommodated and installed in the accommodation installation space 21, and the heat generating component 61 is installed on the substrate 6.

Further, as shown in FIG. 4, the accommodation installation space 21 further includes at least one support component and at least one heat conducting component 216.
Each support component is installed in the accommodation installation space 21 of the main body 2, and each support component supports the substrate 6, whereby the substrate 6 is stably fixed to the accommodation installation space 21.
Furthermore, the heat generated by the substrate 6 is conducted to the main body 2 by the support parts, and the main body 2 diffuses the heat outward through a heat dissipating fin 23 and radiates it.

The heat conducting component 216 is installed between two substrates 6 adjacent to each other, and one end of the heat conducting component 216 is in intimate contact with the inside facing the accommodation installation space 21. In addition, at least one second convex body 2162 is provided on both sides of the heat conducting component 216, and each second convex body 2162 extends to hold the heat generating component 61 on each substrate 6.
In addition, a hot zone H is formed, and the second convex body 2162 absorbs heat generated by the heat generating component 61 on each substrate 6.

Next, the heat conducting component 216 includes a third heat conduit unit 2163, and the third heat conduit unit 2163 includes a plurality of third heat conduits 2164.
Each third heat conduit 2164 includes a third heat absorbing end 2165 adjacent to the second convex body 2162 and a third heat dissipating end 2166 spaced from the second convex body 2162.
The third heat absorbing end 2165 transmits the absorbed heat to the heat dissipating part 212 through the third heat dissipating end 2166, and dissipates the heat, whereby the heat of the heat generating component 61 absorbed by the second convex body 2162 The heat is transferred to the third heat dissipating end 2166 through the third heat absorbing end 2165.

The third heat dissipating end 2166 transfers the received heat to the heat dissipating unit 212, and the heat dissipating unit 212 diffuses to the outside and dissipates heat in a radiation manner.
Further, auxiliary heat dissipation is performed by the heat dissipating fins 23 on the main body 2, but the main heat dissipating is also in the radiation system by the first, second, third, fourth and fifth heat dissipating parts 2121, 2122, 2123, 2124, 2125. It diffuses to the outside and performs heat exchange and heat dissipation with outside air.

As shown in FIGS. 3 and 4, the main body 2 further includes a lid 7, one side of the lid 7 is opposed to the accommodation installation space 21, and at least one third convex body 71. And at least one fourth heat conduit unit 72, and a plurality of heat dissipating fins 73 are installed on the opposite side of the housing installation space 21 of the lid body 7.
The third protrusion 71 protrudes and contacts the heat generating component 61 to form a hot zone H, thereby absorbing heat generated by the corresponding heat generating component 61 on the substrate 6.

The fourth heat conduit unit 72 includes a plurality of fourth heat conduits 720, and each fourth heat conduit 720 includes a fourth heat absorption end 721 adjacent to the third convex body 71, and the third convex body 71. A distant fourth heat dissipating end 722 is provided. The fourth heat absorbing end 721 transmits the absorbed heat to the heat dissipating fins 73 and the heat dissipating part 212 on the lid body 7 through the fourth heat dissipating end 722, and dissipates heat.
Thus, the third convex body 71 absorbs the heat of the heat generating component 61 and passes through the fourth heat absorbing end 721. Heat is transferred to the fourth heat dissipating end 722, and the fourth heat dissipating end 722 transfers the received heat to the heat dissipating part 212 and the heat dissipating fins 73 on the lid 7, respectively, to dissipate heat.

Next, as shown in FIGS. 4, 5, and 6, embodiments of the present invention will be described below.
When the substrate 6 in the communication device case is activated, the heat generation component 61 of the substrate 6 generates high heat.
The first convex body 2111 of the heat receiving part 211 absorbs heat generated by the heat generating component 61 of the corresponding substrate 6, and the heat is absorbed by the first heat absorbing end 2131 of the first heat conduit 2130. Tell 2132.
The first heat dissipating end 2132 conducts the received heat to the first conduction end 41 of the heat transfer section 4, and the first conduction end 41 concentrates the heat through the second conduction end 42, This is transferred to the second heat absorbing end 321 of the second heat conduit 32.
The second heat-absorbing end 321 further transfers the received heat to the second heat-dissipating end 322, and the second heat-dissipating end 322 is uniformly distributed on each heat-dissipating fin 31 that penetrates the second heat-dissipating end 322. To do.

Thus, each of the heat dissipating fins 31 diffuses to the outside and dissipates heat by a radiation method.
That is, most of the heat is transferred to the heat dissipating module 3 and is dissipated at the first heat dissipating end 2132, and part of the heat is dissipated in the heat dissipating part 212 (i.e., the first, second, third, fourth, fifth heat dissipating part 2121). , 2122, 2123, 2124, 2125) to be dissipated.

At the same time, the second convex bodies 2162 on both sides of the heat conducting component 216 absorb the heat of the heat generating component 61 on the corresponding substrate 6, and the third heat absorbing end 2165 of the third heat conduit 2164 absorbs the heat from the third heat conducting component 2216. It is guided to the heat dissipation end 2166.
The third heat dissipating end 2166 transmits the received heat to the heat dissipating unit 212 and dissipates it. In addition, at the same time as the heat dissipating part 212 dissipates heat, the first conduction end 41 quickly transfers the heat on the heat dissipating part 212 to the second conduction end 42, whereby the second conduction end 42 receives it. Heat is transferred to the second heat absorbing end 321 of the second heat conduit 32.

Thus, the second heat absorbing end 321 transfers heat to the heat dissipating fins 31 that are in contact with the second heat dissipating end 322, and the heat dissipating fins 31 are diffused to the outside and dissipated in a radiating manner.
Therefore, the heat dissipating area 3 can be expanded separately by the heat dissipating module 3 of the present invention, and the heat in and on the main body 2 can be effectively eliminated.
In this way, the substrate 6 in the communication device case operates stably, the quality of the communication signal is stable, and the optimum heat dissipation performance can be realized.

As described above, the communication device case heat dissipation device of the present invention has the following advantages.
1. Provide optimum heat dissipation performance.
2. The heat dissipation area can be expanded separately.
3. Heat conduction efficiency can be improved.
4. Stable communication signal quality can be ensured.
5. The service life can be improved.

  The above is only an optimal embodiment of the present invention, and all modifications made using the above-described method, shape, structure and apparatus of the present invention are included in the protection scope of the present invention.

  Since the present invention can quickly dissipate heat by designing the heat dissipating module and can further increase the heat dissipating area, it has an optimum heat dissipating effect.

2 Body 2166 Third Heat Dissipation End 21 Accommodating Installation Space
23 Heat Dissipation Fin 211 Heat Receiving Portion 2111 First Convex
212 Heat Dissipation Part 2121 First Heat Dissipation Part 2122 Second Heat Dissipation Part 2123 Third Heat Dissipation Part 2124 Fourth Heat Dissipation Part 2125 Fifth Heat Dissipation Part 213 First Heat Conduit Unit 2130 First Heat Conduit
3 Heat Dissipation Module 2131 First Heat Absorption End 2132 First Heat Dissipation End 214 Concave Tank 216 Heat Conducting Component
2162 2nd convex body 2163 3rd heat conduit unit 2164 3rd heat conduit 2165 3rd heat absorption end 31 Heat dissipation fin 32 2nd heat conduit 321 2nd heat absorption end 322 2nd heat dissipation end
4 Heat Transfer Part 41 First Conductive End 42 Second Conductive End
6 Substrate 61 Heating parts
7 Lid 71 Third convex body
72 4th heat conduit unit 720 4th heat conduit 721 4th heat absorption end 722 4th heat dissipation end 73 heat dissipation fin
H Hot area (hot area)
L Cold area (cool area)

Claims (14)

A communication case heat dissipation device,
A main body with a housing space and at least one heat dissipating module with a plurality of heat dissipating fins and at least one second heat conduit;
The housing installation space is divided into at least one heat receiving unit and at least one heat dissipating unit, and the first heat conduit unit is installed in the housing installation space, whereby the first heat conduit unit is It is connected to the heat receiving part and the heat dissipating part, and the heat absorbed by the heat receiving part is conducted to the heat dissipating part to dissipate the heat.
The second heat conduit is connected to the main body and the heat dissipating fins, and the heat transferred to the main body is transferred to the heat dissipating module to dissipate heat.   The second heat conduit includes at least one second heat absorbing end and at least one second heat dissipating end, the second heat absorbing end is connected to one side of the body, The communication device case heat dissipation device according to claim 1, wherein the heat dissipation fin is pierced.   The main body is opposed to one side of the heat dissipating module and has a heat transfer unit connected to the heat dissipating module. The heat transfer unit includes at least one first conduction end and at least one second conduction end. The communication case heat dissipating apparatus according to claim 1, wherein the first conduction end transmits heat conducted to the first heat conduit unit to the heat dissipating module through the second conduction end to dissipate heat.   The communication device case heat dissipation device according to claim 1, wherein the heat receiving unit includes at least one first convex body and is in contact with at least one opposing heat generating component to form a hot zone.   The first heat conduit unit includes a plurality of first heat conduits, and each first heat conduit includes a first heat absorption end and a first heat dissipation end, and the first heat absorption end is adjacent to the first convex body. The communication device case heat dissipation device according to claim 4, wherein the first heat dissipation end is separated from the first convex body.   The heat dissipating part includes a first heat dissipating part, a second heat dissipating part, a third heat dissipating part, a fourth heat dissipating part, and a fifth heat dissipating part, and communicates with each other to form a cold area. 2. The apparatus according to claim 1, wherein the second, third, fourth, and fifth heat dissipating parts are installed on the bottom surface of the accommodation installation space and away from the heat receiving part, and are installed surrounding the circumference of the accommodation installation space. Communication case heat dissipator.   The communication device case heat dissipation device according to claim 4, wherein at least one board is accommodated and installed in the accommodation installation space, and the heat generating component is installed on the board.   The accommodation installation space includes at least one concave tank, whereby the first heat conduit unit is accommodated and installed, and a part of the concave tank is adjacent to the first convex body and the periphery of the heat receiving portion, and the other 2. The communication device case heat dissipation device according to claim 1, wherein the portion is adjacent to the periphery of the heat dissipation portion and the main body.   The communication device case heat dissipating apparatus according to claim 1, wherein a plurality of heat dissipating fins are provided on the outer side of the main body, and each heat dissipating fin is disposed on a surface opposite to a housing installation space of the main body. The accommodating installation space further includes at least one support component and at least one heat conducting component,
The support component is installed in the housing installation space of the main body, thereby supporting the substrate,
The at least one heat conducting component is installed between two substrates adjacent to each other, and at least one second convex body is provided on each side of the heat conducting component, and the heat generating component on the substrate is extended. The communication device case heat dissipating apparatus according to claim 7, wherein a hot zone is formed in contact with each other.   The heat conducting component includes a third heat conduit unit, and the third heat conduit unit includes a plurality of third heat conduits, and each third heat conduit has a third heat absorption end adjacent to the second convex body. And a third heat dissipating end remote from the second convex body, and the heat absorbed by the third heat absorbing end is transferred to the heat dissipating part through the third heat dissipating end to dissipate heat. 10. The communication device case heat dissipation device according to 10.   The main body further connects a lid, one side of the lid is opposed to the accommodation installation space, and further includes at least one third convex body, and the lid is on the opposite side of the accommodation installation space. The communication device case heat dissipating apparatus according to claim 1, wherein a plurality of heat dissipating fins are installed, the third convex body protrudes, contacts the heat generating component, and forms a hot area.   The lid includes a fourth heat conduit unit, the fourth heat conduit unit includes a plurality of fourth heat conduits, and each fourth heat conduit has a fourth heat absorption end adjacent to the third convex body. And a fourth heat dissipating end away from the third convex body, and the fourth heat absorbing end transmits the absorbed heat through the fourth heat dissipating end to the heat dissipating fin and the heat dissipating part on the lid, respectively. The communication device case heat dissipation device according to claim 11, wherein   The main body is provided with a heat transfer portion relative to at least one side of the heat dissipation module, the heat transfer portion is connected to and corresponds to the heat dissipation module, the heat transfer portion corresponding to at least one first conduction end and at least One heat conduction end is provided, and the heat conducted by the first conduction end to the first heat conduit unit is transferred to the heat dissipation module through the second conduction end to perform heat dissipation. Item 2. The communication device case heat dissipation device according to Item 1.

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