High-efficiency copper-aluminum composite radiator
By introducing an adjustment device into the copper-aluminum composite radiator, and adjusting the aluminum fin spacing using slide rod and motor drive technology, the problem of fixing the spacing of the heat dissipation pipes in the prior art is solved, and the heat dissipation effect and service life are improved.
Patent Information
- Application Number
- CN202323272546.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2023-12-01
- Publication Date
- 2024-12-13
- Estimated Expiration
- 2033-12-01
AI Technical Summary
The spacing between the existing copper-aluminum composite radiator is fixed and cannot be adjusted according to the heat dissipation needs of different equipment or systems, resulting in the inability to meet specific heat dissipation design requirements in some cases, affecting the heat dissipation effect.
An efficient copper-aluminum composite radiator including a mounting frame, a mount and a driving mechanism is designed. Through the adjustment device driven by a slide rod, a skateboard, a rotating plate and a motor, the spacing between the aluminum fins can be adjusted and heat conduction can be optimized. and heat dissipation effect.
The spacing of heat dissipation pipe fittings is realized according to specific needs, the heat dissipation effect is improved, the service life of the radiator is extended, and the corrosion resistance of aluminum materials is resisted against oxidation and corrosion.
Smart Images
Figure CN222165767U_ABST
Abstract
Description
Technical Field
[0001] This utility model belongs to the field of radiator technology, and specifically relates to a high-efficiency copper-aluminum composite radiator. Background Art
[0002] Copper-aluminum composite radiators are heat dissipation components with excellent heat dissipation performance. They are mainly composed of two metal materials, aluminum and copper. Aluminum has good thermal conductivity and is lightweight, while copper has high thermal conductivity. Therefore, combining the two materials can leverage their respective advantages and improve heat dissipation. In existing technologies, several copper heat dissipation pipes are usually vertically fixed inside the radiator housing and interconnected. However, in this method, different equipment or systems have different heat dissipation requirements, and the fixed spacing of the heat dissipation pipes cannot be adjusted according to the needs, which may not meet the heat dissipation requirements of specific equipment. In some cases, it is necessary to customize special sizes or adjust the spacing to adapt to specific heat dissipation designs.
[0003] For example, the utility model patent with announcement number CN212253740U discloses a high-efficiency copper-aluminum composite radiator. In the technical solution of this patent, several heat dissipation copper pipes are vertically fixed inside the fixed shell of the radiator and are interconnected. An external interface is fixedly installed on one side of the fixed shell of the radiator and connected to the heat dissipation copper pipes to facilitate heat dissipation. However, in this method, the heat dissipation copper pipes are fixedly installed and the spacing between them cannot be adjusted. The spacing of the heat dissipation pipes determines the heat conduction path and the surface heat dissipation area. If the fixed spacing is too small or too large, the heat transfer area may not be fully utilized, thus affecting the heat dissipation effect. Adjusting the spacing of the heat dissipation pipes can optimize heat conduction and heat dissipation effect according to specific circumstances. Utility Model Content
[0004] In view of this, this utility model addresses the shortcomings of the prior art by providing a high-efficiency copper-aluminum composite radiator, which not only has excellent heat dissipation performance, but also allows for adjustment of the spacing between aluminum fins according to heat dissipation requirements through an adjustment device, thereby optimizing heat conduction and heat dissipation effect.
[0005] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is: a high-efficiency copper-aluminum composite radiator, including a mounting bracket, a groove at the lower end of the mounting bracket, an adjustment device inside the groove, a heat dissipation pipe at the upper end of the adjustment device, the heat dissipation pipe including aluminum fins, and a liquid supply pipe installed on the inner wall of the aluminum fins.
[0006] As a further improvement of this utility model, the adjusting device includes slide rods symmetrically arranged inside the groove. A fixed plate is connected to the middle of the two slide rods. Slide plates are provided at both ends of the fixed plate. The two slide plates are slidably connected to the slide rods. Slide grooves are provided on the two slide grooves. Two moving rods are slidably arranged inside the two slide grooves. A round rod is provided at the upper end of the fixed plate. Two rotating plates are rotatably arranged on the round rod. The two ends of the two rotating plates are rotatably connected to the adjacent moving rods respectively. A moving part is provided on the left side of the left slide plate and a moving part is provided on the right side of the right slide plate. A driving mechanism for driving the moving part and the moving part along the slide rod is also provided inside the groove.
[0007] As a further improvement of this utility model, the movable component one includes a slide plate two disposed on the left side of the left slide plate one. A round rod two is disposed at the upper end of the slide plate two, and two rotating plates two are rotatably disposed at the lower end of the round rod two. The two rotating plates two are respectively rotatably connected to the adjacent movable rod.
[0008] As a further improvement of this utility model, the moving part two includes a sliding plate three disposed on the right side of the right sliding plate three. A round rod three is disposed at the upper end of the sliding plate three, and two rotating plates three are rotatably disposed at the lower end of the round rod three. The two rotating plates three are respectively rotatably connected to the adjacent moving rod.
[0009] As a further improvement of this utility model, the driving mechanism includes a bidirectional lead screw rotatably disposed in the middle of the groove, a motor disposed on the left side of the mounting bracket, the output end of the motor passing through the side wall of the groove and connected to the bidirectional lead screw, and the lower ends of the second and third round rods are both provided with U-shaped plates threadedly connected to the bidirectional lead screw.
[0010] As a further improvement of this utility model, a first pipe connector is installed on one side of the mounting bracket, and a second pipe connector is slidably installed inside the mounting bracket. One end of the second pipe connector is connected to the liquid supply pipe, and a corrugated pipe is installed on the other end of the second pipe connector. The other end of the corrugated pipe is connected to the first pipe connector.
[0011] As a further improvement of this utility model, the lower end of the mounting bracket is provided with several support bases, and the bottom outer wall of the support base is provided with anti-slip stripes.
[0012] Compared with the prior art, the beneficial effects of this utility model are as follows:
[0013] Firstly, by incorporating heat dissipation pipes, aluminum fins, with their high thermal conductivity, can quickly transfer heat from the radiator to the air, improving heat dissipation. Furthermore, aluminum has excellent corrosion resistance, resisting the erosion of common oxidizing and corrosive substances and extending the service life of the radiator.
[0014] Secondly, by setting the first moving part, starting the motor can make the bidirectional lead screw rotate, which in turn makes the second sliding plate move along the groove to both ends or the middle, and further makes the second rotating plate rotate. The rotation of the second rotating plate can make the first sliding plate on the left end move along the groove to both ends or the middle under the combined action of the first rotating plate, thereby moving the aluminum fins on the first and second sliding plates on the left end, improving the heat dissipation effect.
[0015] Thirdly, by setting the second moving part, starting the motor can make the bidirectional lead screw rotate, thereby making the third sliding plate move along the groove to both ends or the middle, and further making the third rotating plate rotate. The rotation of the third rotating plate can make the first sliding plate on the right end move along the groove to both ends or the middle under the combined action of the first rotating plate, thereby moving the aluminum fins on the first and third sliding plates on the right end, improving the heat dissipation effect.
[0016] Fourth, by setting up corrugated pipes, which can freely expand and contract, the spacing between heat dissipation components can be adjusted more conveniently. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] The present invention will be further described in detail below with reference to the accompanying drawings and specific implementation methods.
[0018] Figure 1 It is a structural diagram of the utility model;
[0019] Figure 2 This is a schematic diagram of the adjustment device structure of this utility model;
[0020] Figure 3 This is a schematic cross-sectional view of the utility model;
[0021] Figure 4 This is a front view structural diagram of the present invention.
[0022] In the diagram: 101, mounting bracket; 102, aluminum fins; 103, liquid supply pipe; 104, first pipe connector; 105, second pipe connector; 106, corrugated pipe; 107, support base; 201, slide bar; 202, fixing plate; 203, slide plate one; 204, slide groove; 205, moving rod; 206, round rod one; 207, rotating plate one; 208, slide plate two; 209, round rod two; 210, rotating plate two; 211, slide plate three; 212, round rod three; 213, rotating plate three; 301, double-acting lead screw; 302, motor; 303, U-shaped plate. DETAILED DESCRIPTION
[0023] To better understand this utility model, the following embodiments further illustrate its content, but the scope of protection of this utility model is not limited to the embodiments described below. Numerous specific details are set forth in the following description to provide a more thorough understanding of this utility model. However, it will be apparent to those skilled in the art that this utility model can be practiced without one or more of these details.
[0024] like Figure 1 As shown, a high-efficiency copper-aluminum composite radiator includes a mounting bracket 101. A groove is formed at the lower end of the mounting bracket 101, and an adjustment device is installed inside the groove. A heat dissipation pipe is installed at the upper end of the adjustment device. The heat dissipation pipe includes aluminum fins 102, and a liquid supply pipe 103 is installed on the inner wall of the aluminum fins 102. The liquid supply pipe 103 is made of copper. By setting the heat dissipation pipe, the aluminum fins 102 have high thermal conductivity, which can quickly conduct heat from the radiator to the air, improving the heat dissipation effect. Moreover, aluminum material has excellent corrosion resistance, which can resist the erosion of common oxidizing and corrosive substances, extending the service life of the radiator.
[0025] like Figure 1 , 2 As shown, the adjustment device includes slide rods 201 symmetrically arranged inside the groove. A fixed plate 202 is connected to the middle of the two slide rods 201. Slide plates 203 are provided at both ends of the fixed plate 202. The two slide plates 203 are slidably connected to the slide rods 201. Slide grooves 204 are provided on the two slide plates 203. Two moving rods 205 are slidably arranged inside the two slide grooves 204. A round rod 206 is provided at the upper end of the fixed plate 202. Two rotating plates 207 are rotatably arranged on the round rod 206. The two ends of the two rotating plates 207 are rotatably connected to the adjacent moving rods 205 respectively. A moving part 1 is provided on the left side of the left slide plate 203, and a moving part 2 is provided on the right side of the right slide plate 203. A drive mechanism for driving the moving parts 1 and 2 to move along the slide rods 201 is also provided inside the groove.
[0026] like Figure 1 , 2 As shown in Figure 3, the movable component one includes a slide plate two 208 disposed on the left side of the left slide plate one 203. A round rod two 209 is disposed on the upper end of the slide plate two 208. Two rotating plates two 210 are rotatably disposed on the lower end of the round rod two 209. The two rotating plates two 210 are respectively rotatably connected to the adjacent movable rod 205. By setting the movable component one, the slide plate two 208 can move along the groove to both ends or the middle, which can cause the rotating plates two 210 to rotate. The rotation of the rotating plates two 210 can cause the slide plate two 208 to move along the groove to both ends or the middle under the combined action of the rotating plates one 207.
[0027] like Figure 1 ,2 As shown in Figure 3, the second movable component includes a third sliding plate 211 located on the right side of the first sliding plate 203. A round rod 212 is provided at the upper end of the third sliding plate 211, and two rotating plates 213 are rotatably provided at the lower end of the round rod 212. The two rotating plates 213 are rotatably connected to the adjacent movable rod 205 respectively. By setting the second movable component, the third sliding plate 211 can move along the groove to both ends or the middle, which can cause the rotating plates 213 to rotate. The rotation of the rotating plates 213 can cause the third sliding plate 211 to move along the groove to both ends or the middle under the combined action of the first rotating plate 207.
[0028] like Figure 1 , 2 As shown in Figure 3, the driving mechanism includes a bidirectional lead screw 301 rotatably disposed in the middle of the groove. A motor 302 is disposed on the left side of the mounting bracket 101. The output end of the motor 302 passes through the side wall of the groove and is connected to the bidirectional lead screw 301. The lower ends of the second round rod 209 and the third round rod 212 are both provided with U-shaped plates 303 that are threadedly connected to the bidirectional lead screw 301. By setting up the driving mechanism, starting the motor 302 can make the bidirectional lead screw 301 rotate. The rotation of the bidirectional lead screw 301 drives the U-shaped plates 303 to drive the second sliding plate 208 and the third sliding plate 211 to move along the groove towards both ends or the middle.
[0029] like Figure 1 , 4 As shown, a first pipe connector 104 is installed on one side of the mounting bracket 101, and a second pipe connector 105 is slidably installed inside the mounting bracket 101. One end of the second pipe connector 105 is connected to the liquid supply pipe 103, and a corrugated pipe 106 is installed on the other end of the second pipe connector 105. The other end of the corrugated pipe 106 is connected to the first pipe connector 104. By setting the corrugated pipe 106, the spacing between the heat dissipation pipes can be adjusted more conveniently.
[0030] Instructions for use: When it is necessary to adjust the spacing between the heat dissipation pipes, first start the motor 302. The motor 302 will cause the bidirectional lead screw 301 to rotate. The rotation of the bidirectional lead screw 301 will drive the U-shaped plate 303 to move the sliding plate 208 and the sliding plate 211 along the groove towards both ends or the middle. The movement of the sliding plate 208 will cause the rotating plate 210 to rotate. The rotation of the rotating plate 210 will cause the left sliding plate 203 to move along the groove towards both ends or the middle under the combined action of the rotating plate 207, thereby causing the left end... The aluminum fins 102 on slide plate 1 203 and slide plate 2 208 move to improve heat dissipation. At the same time, the movement of slide plate 3 211 causes the rotating plate 3 213 to rotate. The rotation of rotating plate 3 213 causes slide plate 1 203 on the right end to move towards both ends or the middle along the groove under the combined action of rotating plate 1 207. This causes the aluminum fins 102 on slide plate 1 203 and slide plate 3 211 on the right end to move, thereby allowing the radiator to adjust the spacing between the aluminum fins 102 according to the heat dissipation requirements, optimizing heat conduction and heat dissipation.
[0031] According to another embodiment of the present invention, such as Figure 1 , 4 As shown, the lower end of the mounting bracket 101 is provided with several support bases 107, and the bottom outer wall of the support base 107 is provided with anti-slip stripes. The support bases 107 provide good support for the mounting bracket 101 and greatly improve the stability of the mounting bracket 101.
[0032] Finally, it should be noted that the above embodiments are only used to illustrate the technical solution of this utility model and are not intended to limit it. Any other modifications or equivalent substitutions made by those skilled in the art to the technical solution of this utility model, as long as they do not depart from the spirit and scope of the technical solution of this utility model, should be covered within the scope of the claims of this utility model.
Claims
1. A high-efficiency copper-aluminum composite radiator, comprising a mounting frame (101), characterized in that: The lower end of the mounting frame (101) is provided with a groove, an adjusting device is arranged inside the groove, a heat dissipation pipe is arranged at the upper end of the adjusting device, the heat dissipation pipe comprises an aluminum fin (102), and a liquid supply pipe (103) is installed on the inner wall of the aluminum fin (102).
2. The high-efficiency copper-aluminum composite radiator according to claim 1, characterized in that: The adjusting device comprises a sliding rod (201) symmetrically arranged inside the groove, the middle parts of the two sliding rods (201) are commonly connected to a fixed plate (202), the left and right ends of the fixed plate (202) are each provided with a sliding plate 1 (203), the two sliding plates 1 (203) are both slidably connected to the sliding rod (201), the two sliding plates 1 (203) are each provided with a sliding groove (204), the interiors of the two sliding grooves (204) are each slidably provided with two moving rods (205), the fixed plate A round rod (206) is arranged at the upper end of (202), and two rotating plates (207) are rotatably arranged on the round rod (206). The two ends of the two rotating plates (207) are respectively rotatably connected to the adjacent moving rods (205). A moving part (1) is arranged on the left side of the left end slide (203), and a moving part (2) is arranged on the right side of the right end slide (203). A driving mechanism for driving the moving parts (1) and (2) to move along the slide rod (201) is also arranged inside the groove.
3. The high-efficiency copper-aluminum composite radiator according to claim 2, characterized in that: The moving member 1 comprises a slide plate 2 (208) arranged on the left side of the left end slide plate 1 (203), a round rod 2 (209) is arranged on the upper end of the slide plate 2 (208), and two rotating plates 2 (210) are rotatably arranged on the lower end of the round rod 2 (209), and the two rotating plates 2 (210) are respectively rotatably connected to the adjacent moving rods (205).
4. The high-efficiency copper-aluminum composite radiator according to claim 3, characterized in that: The moving member 2 comprises a slide plate 3 (211) arranged on the right side of the right end slide plate 1 (203); a round rod 3 (212) is arranged at the upper end of the slide plate 3 (211); two rotating plates 3 (213) are rotatably arranged at the lower end of the round rod 3 (212); the two rotating plates 3 (213) are rotatably connected to adjacent moving rods (205) respectively.
5. The high-efficiency copper-aluminum composite radiator according to claim 4, characterized in that: The driving mechanism comprises a bidirectional screw rod (301) rotatably arranged in the middle of the groove, a motor (302) is arranged on the left side of the mounting frame (101), the output end of the motor (302) passes through the side wall of the groove and is connected to the bidirectional screw rod (301), and the lower ends of the second round rod (209) and the third round rod (212) are both provided with a U-shaped plate (303) threadedly connected to the bidirectional screw rod (301).
6. The high-efficiency copper-aluminum composite radiator according to claim 1, characterized in that: A first pipe joint (104) is installed on one side of the mounting frame (101), and a second pipe joint (105) is slidably installed inside the mounting frame (101), one end of the second pipe joint (105) is connected to the liquid supply pipe (103), and a bellows (106) is installed on the other end of the second pipe joint (105), and the other end of the bellows (106) is connected to the first pipe joint (104).
7. The high-efficiency copper-aluminum composite radiator according to claim 1, characterized in that: A plurality of support bases (107) are arranged at the lower end of the mounting frame (101), and anti-slip stripes are provided on the bottom outer wall of the support base (107).