Thermally conductive digital communication cable

Abstract

The application discloses a heat-conducting digital communication cable, which comprises a cable core and a plurality of water storage skeletons. The cable core is externally provided with a heat-conducting layer, and the water storage skeletons are arranged in an arc skeleton structure. The size and shape of each water storage skeleton are the same, so that the water storage skeletons can be correspondingly arranged at the periphery of the heat-conducting layer. The water storage skeletons wrap the whole heat-conducting layer. The inside of each water storage skeleton is provided with a water storage cavity, and cold water is correspondingly stored in the water storage cavity. When the cable core generates heat, the heat is rapidly absorbed by the heat-conducting layer, and the heat-conducting layer can transmit the heat to the cold water in the water storage cavity. The outside of the water storage skeleton is provided with an outer waterproof layer and an outer sheath, and the heat in the water body can be directly transmitted to the outside through the outer waterproof layer and the outer sheath, so that the heat dissipation effect is very good.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of cable, in particular to a heat-conducting digital communication cable. BACKGROUND

[0002] In the prior art, the internal cable core of the digital communication cable generates a lot of heat during work, and the heat gathered in the internal cable core is easy to affect the communication signal, resulting in a decline in communication performance. Moreover, the prior art does not have a particularly good solution to the problem of internal heat of the communication cable. Most of the existing technologies increase the heat dissipation efficiency by reducing the number of layers, which inevitably produces some negative effects and cannot effectively complete heat dissipation.

[0003] For example, the patent document with publication (announcement) number CN 212010514U discloses a composite communication cable. The technical solution comprises an insulation layer, a controller and a fan. The front surface of the insulation layer is provided with electric wires distributed in a ring shape. The surface of the insulation layer is provided with a glue injection layer. The front surface of the glue injection layer is embedded with a temperature sensor. The output end of the temperature sensor is electrically connected with the input end of the controller.

[0004] The technical solution sets a ventilation layer, which can utilize the fan, air inlet pipe and air outlet pipe to realize ventilation and heat dissipation of the entire device, effectively reduce the temperature inside the device, avoid heating of the electric wires, reduce the occurrence of safety accidents, prolong the service life of the device, set a bite-preventing layer to avoid the problem that the device cannot work normally due to being bitten by animals, and the irritating odor emitted by the repellent has a reminding effect to avoid the occurrence of the situation that the device is not maintained in time.

[0005] However, the technical solution ultimately realizes heat dissipation by setting a layered structure. Although a heat-conducting layer that is easy to dissipate heat is set, the heat dissipation efficiency is still greatly reduced, and a very good heat dissipation effect cannot be achieved.

[0006] Therefore, in order to solve the above problems, it is necessary to develop a split type new energy heat dissipation cable with excellent heat dissipation effect. SUMMARY

[0007] The purpose of the present application is to solve the problems existing in the prior art, and to provide a heat-conducting digital communication cable. The technical solution is as follows:

[0008] The utility model provides a kind of heat conduction type digital communication cable, including cable core and several water storage skeletons;The outside of the cable core is additionally provided with a circle of heat conduction layer, and the water storage skeleton is arranged as arc skeleton structure, and each water storage skeleton is identical in size and shape, so that water storage skeleton can be correspondingly arranged in the periphery of heat conduction layer, and the whole heat conduction layer is wrapped in the water storage skeleton, and the inside of each water storage skeleton is additionally provided with water storage cavity, and cold water is correspondingly stored in the water storage cavity.

[0009] The outside end surface of the heat conduction layer is additionally provided with heat conduction sheet extending outward, and the heat conduction sheet is correspondingly directed to the circular position of the cable core, and the heat conduction sheet is inserted into the water storage cavity of the water storage skeleton after extending outward, and the insertion position is sealed, and the heat conduction sheet is in contact with the cold water in the water storage cavity.

[0010] The outside of the water storage skeleton is additionally provided with an outer waterproof layer, and the outer waterproof layer is additionally provided with an outer sheath.

[0011] Further, the water storage skeleton is provided with four water storage cavities, and the heat conduction sheet on the heat conduction layer is provided with at least four heat conduction sheets, and each water storage cavity is inserted with at least one heat conduction sheet.

[0012] Further, the heat conduction layer and the heat conduction sheet are made of metal material, and the heat conduction layer is sealed by welding after wrapping the cable core.

[0013] Further, the inside of the water storage skeleton is additionally provided with a support column, and the support column is correspondingly directed to the center of the cable core.

[0014] Further, the four water storage skeletons are additionally provided with abutting slots and abutting blocks at the abutting side wall positions, so that two adjacent water storage skeletons can be correspondingly abutted and installed.

[0015] Further, the cable core includes a conductor, an insulation layer, a shielding layer, an inner waterproof layer and an inner sheath.

[0016] Beneficial effects: the utility model has the following beneficial effects:

[0017] (1) The present invention normally sets up the core structure of the cable used for communication. The difference is that a heat-conducting layer is set on the outer layer of the cable core. The heat-conducting layer is set as a metal heat-conducting material, specifically copper, which has a good heat conduction effect. In addition to the heat-conducting layer, four water storage frames are also set. The shape of the water storage frames is set as arc, which can be installed around the outer perimeter of the heat-conducting layer, and the whole is surrounded by the heat-conducting layer. At the same time, a water storage cavity is set inside the water storage frame. The water storage cavity is large and can hold a lot of cold water. After this setting, the heat-conducting layer is essentially set in close contact with the water storage frame. When the cable core generates heat, the heat is quickly absorbed by the heat-conducting layer, and the heat-conducting layer can transfer the heat to the cold water in the water storage cavity. An outer waterproof layer and an outer sheath are set on the outside of the water storage frame. The heat in the water can be directly dissipated through the outer waterproof layer and the outer sheath, and the heat dissipation effect is very good.

[0018] (2) In this invention, a heat-conducting sheet is also provided on the outer end face of the heat-conducting layer. The heat-conducting sheet is also made of copper material and has good thermal conductivity. The heat-conducting sheet is inserted into the water storage cavity and directly contacts the water storage cavity. Therefore, the heat will be transferred to the water body more directly from the heat-conducting sheet, and the heat conduction efficiency is higher, which can effectively reduce the heat of the cable core.

[0019] (3) The present invention is provided with an inner waterproof layer and an outer waterproof layer to prevent water in the water storage cavity from leaking out and affecting the internal conductor. Furthermore, there are docking slots and docking blocks between adjacent water storage frames to facilitate docking, installation and disassembly. There are also four water storage frames to increase the water storage capacity. The interior of the water storage frame is also provided with support columns to increase the compressive strength of the water storage frame. Attached Figure Description

[0020] Figure 1 This is a structural diagram of the present invention. Detailed Implementation

[0021] The present invention will be further illustrated below with reference to the accompanying drawings and specific embodiments. These embodiments are implemented based on the technical solutions of the present invention, and it should be understood that these embodiments are only used to illustrate the present invention and are not intended to limit the scope of the present invention.

[0022] like Figure 1 As shown, a heat-conducting digital communication cable includes a cable core 1 and several water-storing frames 2. A heat-conducting layer 3 is also provided on the outside of the cable core 1, while the water-storing frames 2 are configured as an arc-shaped frame structure. Each water-storing frame 2 is the same size and shape, so that the water-storing frames 2 can be set on the periphery of the heat-conducting layer 3. The water-storing frames 2 wrap the entire heat-conducting layer 3 inside, and each water-storing frame 2 is also provided with a water-storing cavity 4, which stores cold water.

[0023] The outer side end surface of the heat conduction layer 3 is also provided with a heat conduction sheet 5 extending outward, the heat conduction sheet 5 is correspondingly directed to the circular position of the cable core 1, the heat conduction sheet 5 is inserted into the water storage cavity 4 of the water storage framework 2 after extending outward, and the insertion position is sealed correspondingly, and the heat conduction sheet 5 is correspondingly in contact with the cold water in the water storage cavity 4.

[0024] The outer side of the outer waterproof layer 6 is also provided with an outer sheath 7.

[0025] In the present application, the cable core structure for communication is normally provided, and the difference is that a heat conduction layer is arranged on the outer layer of the cable core, the heat conduction layer is made of metal heat conduction material, and can be made of copper in particular, and the heat conduction effect is good.

[0026] In addition to the heat conduction layer, four water storage frameworks are also arranged, the shape of the water storage framework is arranged in an arc shape, and can be installed in a surrounding manner on the periphery of the heat conduction layer, and the whole is surrounded by the heat conduction layer; meanwhile, the water storage cavity is arranged in the water storage framework, the water storage cavity is large, and can store more cold water; after being arranged in this way, the heat conduction layer is equivalent to being arranged in close contact with the water storage framework, when the cable core generates heat, the heat is rapidly absorbed by the heat conduction layer, and the heat conduction layer can also transmit the heat to the cold water in the water storage cavity, the outer side of the water storage framework is also provided with an outer waterproof layer and an outer sheath, and the heat in the water body can also be directly transmitted through the outer waterproof layer and the outer sheath and dissipated, and the heat dissipation effect is very good.

[0027] In addition, the outer end surface of the heat conduction layer is also provided with a heat conduction sheet, the heat conduction sheet is also made of copper material, has good heat conductivity, the heat conduction sheet is inserted into the water storage cavity and directly in contact with the water storage cavity, so that the heat can be more directly transmitted to the water body from the heat conduction sheet, the heat conduction efficiency is higher, and the heat of the cable core can be effectively reduced.

[0028] The four water storage frameworks 2 are provided with water storage cavities 4 in the interiors thereof, the heat conduction sheets 5 on the heat conduction layer 3 are at least four in number, and each water storage cavity 4 is inserted with at least one heat conduction sheet 5; the four water storage frameworks 2 wrap the heat conduction sheets 5 in the whole.

[0029] The heat conduction layer 3 and the heat conduction sheet 5 are both made of metal material; the heat conduction layer 3 is sealed by welding after wrapping the cable core 1.

[0030] The interiors of the water storage frameworks 2 are also provided with support columns 8, and the support columns 8 are correspondingly directed to the center of the cable core 1.

[0031] The four water storage frameworks 2 are also provided with abutting clamping grooves 9 and abutting clamping blocks 10 at the positions of the abutting side walls, so that two adjacent water storage frameworks 2 can be correspondingly abutted and installed.

[0032] The cable core 1 comprises an innermost conductor 11, an insulation layer 12 outside the conductor 11, a shielding layer 13 outside the insulation layer 12, an inner waterproof layer 14 outside the shielding layer 13, and an inner sheath 15 outside the inner waterproof layer 14.

[0033] The application is provided with an inner waterproof layer and an outer waterproof layer, so that the water in the water storage cavity does not leak out to affect the internal conductor, and the abutting clamping grooves and clamping blocks are arranged between the adjacent water storage frames, facilitating abutting installation and disassembly, and the water storage frame is also provided with four, increasing the water storage capacity, and the inside of the water storage frame is also provided with a support column, which can increase the compression resistance of the water storage frame.

[0034] The above specific embodiment is only a preferred embodiment of the application, and is not intended to limit the implementation and the scope of claims of the application. Any equivalent changes and modifications made according to the content of the application patent protection scope should be included in the application patent protection scope.

Claims

1. A thermally conductive digital communication cable, characterized in that: It includes a cable core (1) and several water storage frames (2); the cable core (1) is also provided with a heat-conducting layer (3) on the outside, and the water storage frame (2) is set as an arc frame structure. Each water storage frame (2) is the same size and shape, so that the water storage frame (2) can be set on the periphery of the heat-conducting layer (3). The water storage frame (2) wraps the entire heat-conducting layer (3) inside, and each water storage frame (2) is also provided with a water storage cavity (4), which stores cold water accordingly. The outer end face of the heat-conducting layer (3) is also provided with heat-conducting plates (5) extending outward. The heat-conducting plates (5) all point to the circular position of the cable core (1). After the heat-conducting plates (5) extend outward, they are inserted into the water storage cavity (4) of the water storage frame (2), and the insertion position is sealed accordingly. The heat-conducting plates (5) are in contact with the cold water in the water storage cavity (4). The water storage frame (2) is also provided with an outer waterproof layer (6), and an outer protective sleeve (7) is provided on the outside of the outer waterproof layer (6). There are four water storage frames (2), and each of the four water storage frames (2) has a water storage cavity (4) inside. There are at least four heat-conducting sheets (5) on the heat-conducting layer (3), and at least one heat-conducting sheet (5) is inserted into each water storage cavity (4). The four water storage frames (2) completely enclose the heat-conducting sheets (5). The heat-conducting layer (3) and the heat-conducting sheet (5) are both made of metal materials; the heat-conducting layer (3) wraps the cable core (1) and then seals it by welding.

2. The thermally conductive digital communication cable according to claim 1, characterized in that: The water storage frame (2) is also equipped with support columns (8) inside, and the support columns (8) all point to the center of the cable core (1).

3. The thermally conductive digital communication cable according to claim 1, characterized in that: The four water storage frames (2) are also provided with docking slots (9) and docking blocks (10) at the adjacent docking side wall positions, so that two adjacent water storage frames (2) can be docked and installed accordingly.

4. The thermally conductive digital communication cable according to claim 1, characterized in that: The cable core (1) includes an innermost conductor (11), an insulation layer (12) outside the conductor (11), a shielding layer (13) outside the insulation layer (12), an inner waterproof layer (14) outside the shielding layer (13), and an inner sheath (15) outside the inner waterproof layer (14).

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