Thermal control equipment support structure with efficient heat dissipation function

Abstract

The utility model discloses an efficient heat dissipation thermal control equipment support structure, which comprises a mounting support and a heat dissipation structure, and is characterized in that the mounting support comprises a plurality of fixing assemblies and a plurality of damping assemblies, and the fixing assemblies are sequentially connected through the damping assemblies to form the mounting support; the heat dissipation structure comprises a supporting plate, the supporting plate is connected to the installation support, a conduction groove is formed in the supporting plate, and a plurality of heat conduction blocks are arranged in the conduction groove at equal intervals to form concave-convex alternate conduction contact surfaces; the supporting plate is further connected with a fixing plate so as to cover the conduction groove, and a plurality of heat dissipation plates are arranged on the side, away from the conduction groove, of the fixing plate at equal intervals. According to the technical scheme of the utility model, the heat dissipation performance of the thermal control equipment in high-power-consumption operation is improved.

Description

Technical Field

[0001] This utility model relates to the field of heat dissipation bracket technology, and in particular to a heat control equipment bracket structure with high-efficiency heat dissipation. Background Technology

[0002] In modern thermal control equipment, as equipment performance continuously improves, its power consumption also increases, resulting in a significant amount of heat generated during operation. If this heat cannot be dissipated effectively and promptly, it will affect the stability and reliability of the equipment, and may even lead to performance degradation or component damage. In the operation of high-power thermal control equipment, heat sinks not only need to provide efficient heat conduction and dissipation, but also need to ensure the stability of the equipment in complex environments.

[0003] However, most heat dissipation brackets on the market currently lack effective shock absorption structures, which significantly affects equipment performance and heat dissipation under vibration. Utility Model Content

[0004] The main purpose of this utility model is to provide a thermal control equipment support structure with high heat dissipation efficiency, which aims to improve the heat dissipation performance of thermal control equipment when operating at high power consumption.

[0005] To achieve the above objectives, this utility model proposes a high-efficiency heat dissipation thermal control equipment support structure, comprising:

[0006] The mounting bracket includes multiple fixing components and multiple shock-absorbing components, and the multiple fixing components are connected sequentially through the shock-absorbing components to form the mounting bracket.

[0007] A heat dissipation structure includes a support plate connected to the mounting bracket. The support plate has conductive grooves, and a plurality of heat-conducting blocks are arranged at equal intervals in the conductive grooves to form an alternating concave-convex conductive contact surface.

[0008] A fixing plate is also connected to the support plate to cover the conduction groove. Several heat dissipation plates are arranged at equal intervals on the side of the fixing plate away from the conduction groove.

[0009] In one possible implementation, the fixing component includes:

[0010] The base, the bottom of the heat sink abuts against the base, and the shock absorption assembly is connected to the base;

[0011] A movable support frame is provided, with an adjusting rod vertically disposed between the base and the movable support frame, and the support plate is connected to the movable support frame.

[0012] In one possible implementation, the damping assembly includes:

[0013] A telescopic rod, the two ends of which are respectively connected to the two bases;

[0014] The spring clips are fixed at both ends to the ends of the telescopic rod.

[0015] In one possible implementation, a pad is provided on the base.

[0016] In one possible implementation, the heat-conducting block has several heat dissipation grooves.

[0017] In one possible implementation, a spiral groove is provided on the end face of the support plate.

[0018] This utility model's technical solution employs multiple fixing components and multiple shock-absorbing components to form a mounting bracket, and connects a heat dissipation structure to the mounting bracket. The support plate of the heat dissipation structure is provided with conductive grooves, within which several heat-conducting blocks are arranged at equal intervals, forming an alternating concave-convex contact surface. A fixing plate covers the conductive grooves, and several heat dissipation plates are also provided on one side of the fixing plate. When thermal control equipment operates at high power or in complex working environments, the equipment is often subjected to significant external vibrations or impacts. The technical solution of this application not only enhances the heat dissipation performance of the equipment but also improves the stability and reliability of its operation. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0020] Figure 1 This is a schematic diagram of an embodiment of the thermal control equipment bracket structure for high-efficiency heat dissipation according to the present invention;

[0021] Figure 2 An exploded view of an embodiment of the thermal control equipment support structure for high-efficiency heat dissipation according to this utility model.

[0022] Explanation of icon numbers:

[0023] 10. Mounting bracket; 11. Fixing component; 111. Base; 1110. Pad; 112. Movable bracket; 113. Adjusting rod; 12. Shock absorption component; 121. Telescopic rod; 122. Spring; 20. Heat dissipation structure; 21. Support plate; 211. Conductive groove; 212. Heat-conducting block; 2120. Heat dissipation groove; 213. U-shaped groove; 22. Fixing plate; 23. Heat dissipation plate.

[0024] The realization of the purpose, functional features and advantages of this utility model will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the scope of this application.

[0026] In response to the problems in the background art, and in conjunction with reference Figure 1 and Figure 2 As shown, the present invention proposes a high-efficiency heat dissipation thermal control equipment support structure, comprising:

[0027] Mounting bracket 10, which includes multiple fixing components 11 and multiple shock-absorbing components 12. The multiple fixing components 11 are connected in sequence through the shock-absorbing components 12 to form the mounting bracket 10.

[0028] The heat dissipation structure 20 includes a support plate 21 connected to the mounting bracket 10. The support plate 21 has a conduction groove 211, and a plurality of heat-conducting blocks 212 are arranged at equal intervals in the conduction groove 211 to form an alternating concave-convex conduction contact surface.

[0029] A fixing plate 22 is also connected to the support plate 21 to cover the conduction groove 211. Several heat dissipation plates 23 are arranged at equal intervals on the side of the fixing plate 22 away from the conduction groove 211.

[0030] In this embodiment, the mounting bracket 10 consists of multiple fixing components 11 and multiple damping components 12. The fixing components 11 provide basic structural support for the bracket, enabling it to support and fix the equipment. The damping components 12 are mainly used to mitigate the impact of external vibrations on the bracket and the equipment. In practical applications, the damping components 12 can be elastic materials, silicone pads, rubber pads, springs, or dampers, etc. They can effectively absorb and isolate vibrations, preventing vibrations from being transmitted to the equipment, thereby ensuring that the equipment is not disturbed by external vibrations during high-power operation. The multiple fixing components 11 are connected sequentially through the damping components 12 to form a square support frame. The shape can also be adjusted to other shapes depending on the thermal control equipment to be supported; this is not limited here.

[0031] The heat dissipation structure 20 includes a support plate 21 with conductive grooves 211. Several heat-conducting blocks 212 are arranged at equal intervals within the conductive grooves 211 to improve heat conduction efficiency. The design of the conductive grooves 211 and the heat-conducting blocks 212 forms an alternating concave-convex contact surface, greatly increasing the contact area between the heat-conducting blocks 212 and the support plate 21, thus improving heat conduction efficiency. It also helps to distribute heat more evenly throughout the heat dissipation bracket. The contact between the conductive grooves 211 and the heat-conducting blocks 212 increases the heat conduction path, effectively improving heat dissipation efficiency. The heat-conducting blocks 212 can be made of materials with high thermal conductivity, such as copper, aluminum, or graphene, enabling rapid absorption and conduction of heat in high-power devices. A fixing plate 22 can be used to cover the conductive grooves 211, and heat dissipation plates 23 are arranged at equal intervals on the side of the fixing plate 22 opposite to the conductive grooves 211. The fixed plate 22 not only serves a sealing function, ensuring effective heat dissipation, but the heat dissipation plate 23 on it further enhances the heat dissipation effect. By increasing the surface area, the heat dissipation plate 23 helps the equipment dissipate heat more quickly, avoiding localized overheating. The heat dissipation plate 23 can be finned, further improving heat dissipation efficiency by increasing the contact area with the surrounding air. The number and spacing of the heat dissipation plates 23 can be optimized according to actual needs to balance heat dissipation effect and structural strength.

[0032] The thermal control device can be supported on the support plate 21. When the thermal control device is operating at high power or in a complex working environment, it is usually subjected to large external vibrations or impacts. The solution in this embodiment can not only enhance the heat dissipation performance of the device, but also improve the stability and reliability of the device operation.

[0033] Combined with reference Figure 1 and Figure 2 As shown, in one possible implementation, the fixing component 11 includes:

[0034] The base 111, the bottom of the heat sink 23 abuts against the base 111, and the shock absorption component 12 is connected to the base 111;

[0035] The movable support 112 has an adjusting rod 113 vertically arranged between the base 111 and the movable support 112, and the support plate 21 is connected to the movable support 112.

[0036] In this embodiment, the base 111 is the foundation of the fixing component 11, responsible for bearing the weight of the entire support structure and contacting the ground or fixed surface of the installation environment. The bottom abutment design of the base 111 and the heat sink 23 ensures that the heat sink 23 can be stably connected to the base 111, thereby achieving efficient heat conduction. The contact between the heat sink 23 and the base 111 can effectively conduct the heat generated by the equipment to the support system and dissipate it into the air through the heat sink 23. The base 111 can be made of materials with good thermal conductivity, such as aluminum alloy or steel, to enhance the performance of the entire heat dissipation system. Multiple bases 111 can be connected by a shock-absorbing component 12, which can absorb vibrations generated from the environment or during equipment operation. The shock-absorbing component 12 can be made of elastic materials, such as rubber, silicone, springs, or dampers, which can effectively isolate the transmission of external vibrations and prevent vibrations from affecting the support structure and the thermal management performance of the equipment. The movable support 112 and the base 111 are connected by a vertically set adjustment rod 113, allowing the height of the heat dissipation structure 20 to be adjusted according to actual needs. The connection between the support plate 21 and the movable bracket 112 ensures the stability and structural rigidity of the heat dissipation system. The adjustability of the movable bracket 112 provides greater adaptability during vibrations or environmental changes, allowing adjustment of the contact pressure and position between the heat sink 23 and the base 111 to optimize the heat conduction path. It should be noted that the adjusting rod 113 is vertically positioned between the base 111 and the movable bracket 112, allowing the movable bracket 112 to move in a certain direction, thereby adjusting the position of the support plate 21. This adjustment mechanism helps to flexibly adjust the layout of the heat dissipation system in different usage environments to meet different space requirements or heat distributions. For example, in environments with high equipment density, the height or position of the support plate 21 can be adjusted using the adjusting rod 113 to optimize heat flow distribution, making heat dissipation more uniform and efficient.

[0037] Combined with reference Figure 1 As shown, in one possible implementation, the shock absorption assembly 12 includes:

[0038] Telescopic rod 121, with its two ends respectively connected to the two bases 111;

[0039] The two ends of the spring piece 122 are respectively fixed to the two ends of the telescopic rod 121.

[0040] In this embodiment, the telescopic rod 121 can be an adjustable-length component, composed of connecting tubes of different diameters joined together. Its two ends are connected to the base 111 via threaded connection or welding. The main function of the telescopic rod 121 is to adapt to different working environments through its adjustable length, thereby adjusting the vibration damping effect within a certain range. The telescopic nature of the telescopic rod 121 provides an important vibration damping function, absorbing vibrations from the environment or equipment and converting vibration energy into elastic deformation of the telescopic rod 121, thus reducing vibration transmission. The adjustable characteristics of the telescopic rod 121 allow the vibration damping system to be flexibly adjusted according to the needs of the equipment. For example, in high-vibration environments, the telescopic rod 121 can extend to a longer position, providing a larger elastic buffer space; in low-vibration environments, the telescopic rod 121 can be shortened to improve its rigidity and support force. Through this adjustment, the support can achieve a more precise vibration damping effect. The material of the telescopic rod 121 typically needs to have good elasticity and strength. Common materials include stainless steel, aluminum alloy, or composite materials with high wear resistance to ensure its reliability and stability during long-term use. Spring 122 is an elastic element installed at both ends of the telescopic rod 121. It is usually made of an elastic metal material (such as steel sheet). Spring 122 can be arc-shaped. The function of spring 122 is to further enhance the shock absorption effect by providing additional elasticity to dissipate and absorb vibration energy. The two ends of spring 122 are fixed to the two ends of the telescopic rod 121, usually by screws, welding or other fixing methods. The design of spring 122 should ensure that it can undergo sufficient elastic deformation during vibration and effectively absorb vibration energy.

[0041] Combined with reference Figure 1 As shown, in one possible implementation, a pad 1110 is provided on the base 111.

[0042] In this embodiment, the pad 1110 can be made of a soft, elastic material (such as rubber, silicone, elastic plastic, etc.), which can effectively absorb and isolate vibrations from the ground or other external environments. In this way, the pad 1110 can reduce the transmission of vibrations to the base 111, preventing vibrations from affecting the operation of the support system and equipment through the base 111. Another important function of the pad 1110 is to provide an anti-slip effect, preventing the support from slipping in the installation position due to vibration or external forces. The bottom of the pad 1110 usually has strong friction, which can make firm contact with the ground or fixed surface, ensuring the stability of the equipment.

[0043] Combined with reference Figure 2 As shown, in one possible implementation, the heat-conducting block 212 is provided with a plurality of heat dissipation grooves 2120.

[0044] The presence of several heat dissipation grooves 2120 on the surface of the heat-conducting block 212 is to further optimize heat conduction and heat dissipation. The heat dissipation grooves 2120 increase the surface area. By increasing the complex structure of the surface of the heat-conducting block 212, the grooves expand the contact area with the surrounding air, thereby improving heat dissipation efficiency. The grooves increase the heat transfer path, allowing heat to diffuse over a larger area and preventing localized overheating. They also promote convection heat dissipation; the placement of the heat dissipation grooves 2120 helps improve airflow and enhance the natural convection effect. When air flows between the grooves, a vortex effect occurs due to the shape and structure of the grooves. This airflow disturbance can carry away more heat, thereby improving heat dissipation efficiency. Furthermore, they reduce thermal resistance. The heat dissipation grooves 2120 not only improve heat dissipation efficiency but also reduce thermal resistance, especially when heat needs to be conducted through multiple media. The groove design effectively reduces thermal resistance during heat conduction, improving the efficiency of the entire heat dissipation system.

[0045] In one possible implementation, a spiral groove 213 is provided on the end face of the support plate 21.

[0046] In this embodiment, a groove structure resembling a U-shape is formed on the end face of the support plate 21, which is generally curved or folded back. The U-shaped groove 213 can significantly increase the contact area between the end face and the surrounding air, thereby enhancing heat dissipation capacity. The complex U-shaped shape can cause airflow disturbance within the groove, increasing the airflow path and thus improving air convection efficiency and carrying away more heat. Due to the folding and bending characteristics of the U-shaped groove 213, it can change the heat transfer path to a certain extent, allowing heat to be evenly diffused across the entire end face and helping to quickly guide heat to the heat dissipation structure 20. Through the shape change of the U-shaped groove 213, heat can be transferred more efficiently from the heat source to the heat dissipation system. The U-shaped groove 213 not only increases the area of ​​the heat dissipation surface but also effectively disturbs airflow and optimizes thermal convection. When air flows back and forth inside the groove, the resulting vortex effect helps to improve heat dissipation performance and enhance the efficiency of heat removal.

[0047] In the accompanying drawings of this embodiment, the same or similar reference numerals correspond to the same or similar components. In the description of this application, it should be understood that if terms such as "upper," "lower," "left," and "right" indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, they are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, the terms used to describe positional relationships in the accompanying drawings are only for illustrative purposes and should not be construed as limiting this patent. For those skilled in the art, the specific meaning of the above terms can be understood according to the specific circumstances.

[0048] The above are merely preferred embodiments of this application and are not intended to limit this application. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A high-efficiency heat dissipation thermal control equipment support structure, characterized in that, include: The mounting bracket includes multiple fixing components and multiple shock-absorbing components, and the multiple fixing components are connected sequentially through the shock-absorbing components to form the mounting bracket. A heat dissipation structure includes a support plate connected to the mounting bracket. The support plate has conductive grooves, and a plurality of heat-conducting blocks are arranged at equal intervals in the conductive grooves to form an alternating concave-convex conductive contact surface. A fixing plate is also connected to the support plate to cover the conduction groove. Several heat dissipation plates are arranged at equal intervals on the side of the fixing plate away from the conduction groove.

2. The high-efficiency heat dissipation thermal control equipment support structure according to claim 1, characterized in that, The fixing component includes: The base, the bottom of the heat sink abuts against the base, and the shock absorption assembly is connected to the base; A movable support frame is provided, with an adjusting rod vertically disposed between the base and the movable support frame, and the support plate is connected to the movable support frame.

3. The high-efficiency heat dissipation thermal control equipment support structure according to claim 2, characterized in that, The shock absorption components include: A telescopic rod, the two ends of which are respectively connected to the two bases; The spring clips are fixed at both ends to the ends of the telescopic rod.

4. The high-efficiency heat dissipation thermal control equipment support structure according to claim 2, characterized in that, The base is provided with pads.

5. The high-efficiency heat dissipation thermal control equipment support structure according to any one of claims 1 to 4, characterized in that, The heat-conducting block has several heat dissipation grooves.

6. The high-efficiency heat dissipation thermal control equipment support structure according to claim 1, characterized in that, A spiral groove is provided on the end face of the support plate.

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