Carbon fiber heat-conducting plate with splicing function

Abstract

This utility model discloses a carbon fiber heat-conducting plate with splicing function, belonging to the technical field of carbon fiber heat-conducting plates. Its key technical features include a first heat-conducting plate and a second heat-conducting plate. A positioning block is provided on the right side of the first heat-conducting plate, and the surface of the positioning block engages with the inner wall of the second heat-conducting plate. A limiting component is engaged with the inner wall of the first heat-conducting plate, and the surface of the limiting component engages with the inner wall of the second heat-conducting plate. The first heat-conducting plate includes a carbon fiber base layer, a heat-conducting layer, a heat-dissipating layer, a protective layer, and a splicing auxiliary layer. This invention solves the problems of existing carbon fiber heat-conducting plates, which are mostly spliced ​​using protrusions and grooves, leading to loosening and misalignment during use, affecting subsequent normal use. Furthermore, the current carbon fiber heat-conducting plates have limited protective performance and are easily damaged by external corrosion, resulting in a reduced service life and increased usage costs.

Description

Technical Field

[0001] This utility model relates to the field of carbon fiber heat-conducting plate technology, and in particular to a carbon fiber heat-conducting plate with splicing function. Background Technology

[0002] Carbon fiber heat-conducting plates with splicing function are thermally conductive plates made of carbon fiber as the main raw material and manufactured through a specific process. They can ensure splicing accuracy while ensuring a tight fit at the splice joints, achieving good thermal continuity and effectively expanding the thermal conductivity area. They can meet the heat dissipation requirements of different sizes and shapes and are widely used in fields with diverse requirements for thermal conductivity and size specifications, such as heat dissipation of electronic equipment and thermal management of new energy batteries.

[0003] In real life, most carbon fiber sheets are laid by splicing. However, splicing makes it difficult to fix adjacent carbon fiber sheets together, resulting in poor overall stability. Secondly, when laying them on the top, bottom, left, or right sides, the carbon fiber sheets usually need to be cut to ensure a tight fit. However, splicing cut carbon fiber sheets together does not provide good stability, as they cannot be fixed to adjacent carbon fiber sheets, resulting in poor overall stability.

[0004] An existing patent (publication number: CN220928535U) discloses a carbon fiber plate with improved stability. It includes a first carbon fiber plate and a second carbon fiber plate. The left side of the first carbon fiber plate and the second carbon fiber plate are respectively provided with several first slots. The left side of the first carbon fiber plate and the second carbon fiber plate are respectively provided with several second slots, which intersect with the corresponding first slots. The right side of the first carbon fiber plate and the second carbon fiber plate are respectively provided with several plug-in plates. The right side of the plug-in plates is respectively provided with sliding grooves. Springs are provided in the sliding grooves. The upper part of the springs is connected to sliding rods, and the sliding rods slide in the sliding grooves.

[0005] To address the aforementioned issues, existing patents offer solutions. However, most existing carbon fiber heat-conducting plates are spliced ​​together using protrusions and grooves. After splicing, loosening and misalignment are prone to occur during use, affecting subsequent normal operation. Furthermore, the protective performance of current carbon fiber heat-conducting plates is limited, making them susceptible to damage from external erosion, which reduces the lifespan of the heat-conducting plate and increases usage costs.

[0006] To address this, a carbon fiber heat-conducting plate with splicing capabilities is proposed. Utility Model Content

[0007] The purpose of this utility model is to provide a carbon fiber heat-conducting plate with splicing function, which can solve the problems of existing carbon fiber heat-conducting plates, which are mostly spliced ​​by protrusions and grooves. After splicing, they are prone to loosening and misalignment during use, affecting subsequent normal use. In addition, the current carbon fiber heat-conducting plates have limited protective performance and are easily damaged when exposed to external erosion, resulting in a reduced service life and increased use costs.

[0008] To achieve the above objectives, the present invention provides the following technical solution: a carbon fiber heat-conducting plate with splicing function, comprising a first heat-conducting plate and a second heat-conducting plate, wherein a positioning block is provided on the right side of the first heat-conducting plate, the surface of the positioning block is engaged with the inner wall of the second heat-conducting plate, a limiting component is engaged with the inner wall of the first heat-conducting plate, and the surface of the limiting component is engaged with the inner wall of the second heat-conducting plate.

[0009] The first heat-conducting plate includes a carbon fiber base layer, a heat-conducting layer, a heat-dissipating layer, a protective layer, and a splicing auxiliary layer. The heat-conducting layer is disposed on the surface of the carbon fiber base layer, the heat-dissipating layer is disposed on the surface of the heat-conducting layer, the protective layer is disposed on the surface of the heat-dissipating layer, and the splicing auxiliary layer is disposed on the surface of the protective layer.

[0010] Preferably, the limiting component includes a first locking block, a connecting plate, and a second locking block. The side of the first locking block near the connecting plate is fixedly connected to the connecting plate, and the surface of the first locking block engages with the inner wall of the first heat-conducting plate. The side of the second locking block near the connecting plate is fixedly connected to the connecting plate, and the surface of the second locking block engages with the inner wall of the second heat-conducting plate. The surface of the connecting plate engages with the inner wall of the first heat-conducting plate and the inner wall of the second heat-conducting plate.

[0011] Preferably, the inner wall of the second heat-conducting plate is provided with a positioning groove for use with the positioning block, and the right side of the first heat-conducting plate is in contact with the left side of the second heat-conducting plate.

[0012] Preferably, the inner wall of the second heat-conducting plate is provided with a fixing groove for use with the connecting plate, and the inner wall of the second heat-conducting plate is provided with a limiting groove for use with the second locking block.

[0013] Preferably, the heat-conducting layer is made of pure copper and has a thickness of 0.3 mm.

[0014] Preferably, the heat dissipation layer is made of carbon nanotube coating, and the protective layer is made of polytetrafluoroethylene coating.

[0015] Preferably, the splicing auxiliary layer is made of thermally conductive silicone and has a thickness of 0.2 mm.

[0016] Compared with the prior art, the beneficial effects of this utility model are:

[0017] 1. By setting a first heat-conducting plate, this application can give full play to the characteristics of each layer of materials. The carbon fiber base layer provides structural support, the heat-conducting layer can efficiently conduct heat, the heat dissipation layer can enhance the heat dissipation effect, the protective layer can prevent external erosion, and the splicing auxiliary layer optimizes the splicing performance. The layers work together to improve the heat dissipation efficiency of the first heat-conducting plate, enhance the protective performance and splicing adaptability of the first heat-conducting plate, and meet the usage needs in a variety of complex environments.

[0018] 2. This application uses a positioning block and a limiting component to fix the positioning block to the position of the first heat-conducting plate, which facilitates the subsequent engagement of the positioning block with the inner wall of the second heat-conducting plate by the first heat-conducting plate, thus facilitating the initial positioning and installation. Then, the limiting component is installed on the inner walls of the first and second heat-conducting plates to facilitate installation and fixation. This completes the splicing and installation of the first and second heat-conducting plates, improving the reliability and stability of the splicing and effectively avoiding problems such as loosening and misalignment at the splicing point. Attached Figure Description

[0019] Figure 1 This is an overall structural diagram of the carbon fiber heat-conducting plate with splicing function of this utility model;

[0020] Figure 2 This is a structural diagram of the positioning block of this utility model;

[0021] Figure 3 This is a structural diagram of the limiting component of this utility model;

[0022] Figure 4 This is a structural diagram of the second heat-conducting plate of this utility model;

[0023] Figure 5 This is a structural diagram of the carbon fiber base layer of this utility model.

[0024] In the figure, 1 is the first heat-conducting plate; 101 is the carbon fiber base layer; 102 is the heat-conducting layer; 103 is the heat dissipation layer; 104 is the protective layer; 105 is the splicing auxiliary layer; 2 is the limiting component; 201 is the first locking block; 202 is the connecting plate; 203 is the second locking block; 3 is the positioning block; 4 is the positioning groove; 5 is the fixing groove; 6 is the limiting groove; and 7 is the second heat-conducting plate. Detailed Implementation

[0025] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0026] Please see Figure 1-5 The present invention provides the following technical solution:

[0027] A carbon fiber heat-conducting plate with splicing function includes a first heat-conducting plate 1 and a second heat-conducting plate 7. A positioning block 3 is provided on the right side of the first heat-conducting plate 1. The surface of the positioning block 3 is engaged with the inner wall of the second heat-conducting plate 7. A limiting component 2 is engaged with the inner wall of the first heat-conducting plate 1. The surface of the limiting component 2 is engaged with the inner wall of the second heat-conducting plate 7.

[0028] The first heat-conducting plate 1 includes a carbon fiber base layer 101, a heat-conducting layer 102, a heat-dissipating layer 103, a protective layer 104, and a splicing auxiliary layer 105. The heat-conducting layer 102 is disposed on the surface of the carbon fiber base layer 101, the heat-dissipating layer 103 is disposed on the surface of the heat-conducting layer 102, the protective layer 104 is disposed on the surface of the heat-dissipating layer 103, and the splicing auxiliary layer 105 is disposed on the surface of the protective layer 104.

[0029] In this embodiment: By setting a first heat-conducting plate 1, which is composed of a multi-layer structure including a carbon fiber base layer 101, a heat-conducting layer 102, a heat-dissipating layer 103, a protective layer 104, and a splicing auxiliary layer 105, the characteristics of each layer material can be fully utilized. The carbon fiber base layer 101 provides structural support, the heat-conducting layer 102 can efficiently conduct heat, the heat-dissipating layer 103 facilitates the heat dissipation effect, the protective layer 104 can prevent external erosion, and the splicing auxiliary layer 105 optimizes the splicing performance. The layers work together to improve the heat dissipation efficiency of the first heat-conducting plate 1 and enhance its protective properties. With its adaptability to splicing, it meets the usage requirements in various complex environments. By setting positioning block 3 and limiting component 2, the positioning block 3 is fixed to the position of the first heat-conducting plate 1, which facilitates the subsequent engagement of the positioning block 3 with the inner wall of the second heat-conducting plate 7 by the first heat-conducting plate 1, thus facilitating the initial positioning and installation. Then, the limiting component 2 is installed on the inner wall of the first heat-conducting plate 1 and the second heat-conducting plate 7, which facilitates the installation and fixation, thus completing the splicing and installation of the first heat-conducting plate 1 and the second heat-conducting plate 7. This improves the reliability and stability of the splicing and effectively avoids problems such as loosening and misalignment at the splicing point.

[0030] Specifically, such as Figure 3 As shown, the limiting component 2 includes a first locking block 201, a connecting plate 202, and a second locking block 203. The side of the first locking block 201 closest to the connecting plate 202 is fixedly connected to the connecting plate 202, and the surface of the first locking block 201 engages with the inner wall of the first heat-conducting plate 1. The side of the second locking block 203 closest to the connecting plate 202 is fixedly connected to the connecting plate 202, and the surface of the second locking block 203 engages with the inner wall of the second heat-conducting plate 7. The surface of the connecting plate 202 engages with the inner wall of the first heat-conducting plate 1 and the inner wall of the second heat-conducting plate 7.

[0031] Specifically, such as Figure 1 , Figure 2 , Figure 4 As shown, the inner wall of the second heat-conducting plate 7 is provided with a positioning groove 4 that works in conjunction with the positioning block 3, and the right side of the first heat-conducting plate 1 is in contact with the left side of the second heat-conducting plate 7.

[0032] Specifically, such as Figure 4 As shown, the inner wall of the second heat-conducting plate 7 is provided with a fixing groove 5 that is used in conjunction with the connecting plate 202, and the inner wall of the second heat-conducting plate 7 is provided with a limiting groove 6 that is used in conjunction with the second locking block 203.

[0033] In this embodiment: by setting a first locking block 201, a connecting plate 202, and a second locking block 203, it is convenient for the first locking block 201 and the second locking block 203 to be installed on the inner walls of the first heat-conducting plate 1 and the second heat-conducting plate 7 respectively by the connecting plate 202, which facilitates the assembly work and effectively prevents displacement or loosening at the splicing point, thereby improving the reliability and stability of the splicing. The positioning groove 4 opened in the inner wall of the second heat-conducting plate 7 facilitates the installation of the positioning block 3 on the inner wall of the second heat-conducting plate 7 through the positioning groove 4. The fixing groove 5 opened in the inner wall of the second heat-conducting plate 7 facilitates the installation of the connecting plate 202 on the inner wall of the second heat-conducting plate 7 through the fixing groove 5. The limiting groove 6 opened in the inner wall of the second heat-conducting plate 7 facilitates the installation of the second locking block 203 on the inner wall of the second heat-conducting plate 7 through the limiting groove 6, which facilitates the subsequent stable splicing of the first heat-conducting plate 1 and the second heat-conducting plate 7.

[0034] Specifically, such as Figure 5 As shown, the heat-conducting layer 102 is made of pure copper and has a thickness of 0.3 mm.

[0035] Specifically, such as Figure 5 As shown, the heat dissipation layer 103 is made of carbon nanotube coating, and the protective layer 104 is made of polytetrafluoroethylene coating.

[0036] In this embodiment: the thermally conductive layer 102 is made of pure copper with a thickness of 0.3mm. Utilizing the excellent thermal conductivity of copper, it can efficiently transfer the heat conducted from the carbon fiber base layer 101 to the heat dissipation layer 103, thereby improving the speed and efficiency of heat conduction. The heat dissipation layer 103 is coated with carbon nanotubes, which can increase the heat dissipation surface area and enhance the heat dissipation effect. The protective layer 104 is coated with polytetrafluoroethylene, which can effectively prevent the corrosion of external moisture, dust and other impurities, and protect the internal structure.

[0037] Specifically, such as Figure 5 As shown, the splicing auxiliary layer 105 is made of thermally conductive silicone and has a thickness of 0.2mm.

[0038] In this embodiment, the splicing auxiliary layer 105 is made of thermally conductive silicone. When in use, the thermally conductive silicone layer is coated on the splicing edge, which can enhance the sealing of the splicing point, prevent external air and impurities from entering from the splicing gap, and further reduce the thermal resistance of the splicing part, so that heat can be transferred smoothly at the splicing point, thereby improving the overall thermal conductivity of the entire large-area heat-conducting plate after splicing.

[0039] Working Principle: During the use of the first heat-conducting plate 1 and the second heat-conducting plate 7, the first heat-conducting plate 1, composed of a multi-layer structure including a carbon fiber base layer 101, a heat-conducting layer 102, a heat-dissipating layer 103, a protective layer 104, and a splicing auxiliary layer 105, fully utilizes the characteristics of each layer. The carbon fiber base layer 101 provides structural support, the heat-conducting layer 102 efficiently conducts heat, the heat-dissipating layer 103 enhances heat dissipation, the protective layer 104 prevents external corrosion, and the splicing auxiliary layer 105 optimizes splicing performance. The coordinated work of these layers improves the heat dissipation efficiency of the first heat-conducting plate 1 and enhances its performance. The first heat-conducting plate 1 offers excellent protection and adaptability to various complex environments, meeting the needs of use in diverse conditions. By setting up positioning blocks 3 and limiting components 2, the positioning blocks 3 are fixed to the position of the first heat-conducting plate 1, facilitating the subsequent engagement of the first heat-conducting plate 1 with the positioning blocks 3 on the inner wall of the second heat-conducting plate 7, thus completing the initial positioning and installation. Then, the limiting components 2 are installed on the inner walls of the first heat-conducting plate 1 and the second heat-conducting plate 7, facilitating installation and fixation. This completes the splicing and installation of the first heat-conducting plate 1 and the second heat-conducting plate 7, improving the reliability and stability of the splicing and effectively avoiding problems such as loosening and misalignment at the splicing points.

[0040] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A carbon fiber heat-conducting plate with splicing function, comprising a first heat-conducting plate (1) and a second heat-conducting plate (7), characterized in that: A positioning block (3) is provided on the right side of the first heat-conducting plate (1). The surface of the positioning block (3) is engaged with the inner wall of the second heat-conducting plate (7). A limiting component (2) is engaged with the inner wall of the first heat-conducting plate (1). The surface of the limiting component (2) is engaged with the inner wall of the second heat-conducting plate (7). The first heat-conducting plate (1) includes a carbon fiber base layer (101), a heat-conducting layer (102), a heat dissipation layer (103), a protective layer (104), and a splicing auxiliary layer (105). The heat-conducting layer (102) is disposed on the surface of the carbon fiber base layer (101), the heat dissipation layer (103) is disposed on the surface of the heat-conducting layer (102), the protective layer (104) is disposed on the surface of the heat dissipation layer (103), and the splicing auxiliary layer (105) is disposed on the surface of the protective layer (104).

2. The carbon fiber heat-conducting plate with splicing function according to claim 1, characterized in that: The limiting component (2) includes a first locking block (201), a connecting plate (202), and a second locking block (203). The side of the first locking block (201) near the connecting plate (202) is fixedly connected to the connecting plate (202), and the surface of the first locking block (201) is engaged with the inner wall of the first heat-conducting plate (1). The side of the second locking block (203) near the connecting plate (202) is fixedly connected to the connecting plate (202), and the surface of the second locking block (203) is engaged with the inner wall of the second heat-conducting plate (7). The surface of the connecting plate (202) is engaged with the inner wall of the first heat-conducting plate (1), and the surface of the connecting plate (202) is engaged with the inner wall of the second heat-conducting plate (7).

3. The carbon fiber heat-conducting plate with splicing function according to claim 1, characterized in that: The inner wall of the second heat-conducting plate (7) is provided with a positioning groove (4) that works with the positioning block (3), and the right side of the first heat-conducting plate (1) is in contact with the left side of the second heat-conducting plate (7).

4. The carbon fiber heat-conducting plate with splicing function according to claim 2, characterized in that: The inner wall of the second heat-conducting plate (7) is provided with a fixing groove (5) that is used in conjunction with the connecting plate (202), and the inner wall of the second heat-conducting plate (7) is provided with a limiting groove (6) that is used in conjunction with the second locking block (203).

5. A carbon fiber heat-conducting plate with splicing function according to claim 1, characterized in that: The heat-conducting layer (102) is made of pure copper and has a thickness of 0.3 mm.

6. The carbon fiber heat-conducting plate with splicing function according to claim 1, characterized in that: The heat dissipation layer (103) is made of carbon nanotube coating, and the protective layer (104) is made of polytetrafluoroethylene coating.

7. The carbon fiber heat-conducting plate with splicing function according to claim 1, characterized in that: The splicing auxiliary layer (105) is made of thermally conductive silicone and has a thickness of 0.2 mm.

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