Large-flux liquid cooling channel of hollow liquid cooling box body plate
By setting a "S"-shaped structure with a wide opening and narrow bottom on the inner wall of the chassis, the closed liquid cooling channel with a tight fit between the cover strips, the problem of large space occupied by the precision instrument radiator and insufficient cooling liquid throughput is solved, and efficient heat dissipation effect is achieved.
Patent Information
- Application Number
- CN202422384102.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-29
- Publication Date
- 2025-07-04
- Estimated Expiration
- 2034-09-29
AI Technical Summary
The miniaturization and compactness of existing precision instruments lead to a large space occupancy of the radiator, and the passage and contact surface of the traditional liquid-cooled channel coolant are limited, making it difficult to effectively reduce the internal temperature of the chassis.
A closed liquid-cooling channel with a wide mouth and a narrow bottom is set up on the inner wall of the chassis. The cover strips are closely matched with the liquid-cooling tank to form multiple "S"-shaped structures, increasing the passage throughput and widening the channel opening, and using coolant to increase the heat dissipation effect.
It has achieved increasing the throughput of liquid cooling channels, improved the heat dissipation efficiency inside the chassis, novel structure and strong practicality, and has good cooling effect.
Smart Images
Figure CN223067428U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to a liquid cooling box plate channel, in particular to a large-flux liquid cooling channel of a hollow liquid cooling box plate. Background Art
[0002] With the progress of science and technology and the continuous development of various precision instruments, the miniaturization and compactness of precision instruments is a development trend. However, the heat dissipation of miniaturized and compact precision instruments has always been a research topic, because the radiator is generally installed inside the precision instrument, and the radiator itself needs to occupy a large space, which invisibly increases the volume of the precision instrument; the traditional solution is generally to set the outer box of the precision instrument as a hollow structure, and cool the internal precision instrument through the coolant set in the hollow outer box. The traditional liquid cooling channel is a trough with the same width as the bottom. Not only is the amount of coolant passing through limited, but the contact surface between the coolant and the inside of the chassis is also limited. Utility Model Content
[0003] In order to overcome the shortcomings of the background technology, the utility model discloses a large-throughput liquid cooling channel of a hollow liquid-cooling box plate. By setting the heat dissipation system of the precision instrument outside the chassis of the precision instrument and utilizing a closed liquid cooling channel with a wide mouth and a narrow bottom on the inner wall of the chassis, the throughput of the liquid cooling channel is increased and the channel mouth is widened to increase the cooling effect by utilizing the coolant in the channel to achieve the purpose of heat dissipation inside the chassis.
[0004] In order to achieve the above-mentioned purpose, the present invention adopts the following technical solutions:
[0005] A large-flux liquid cooling channel of a hollow liquid cooling box plate comprises a cover plate strip and a flat plate, wherein the cover plate strip comprises a straight cover plate strip and an arc-shaped cover plate, wherein the cover plate strip is a combination of multiple "S"-shaped structures formed by connecting multiple straight cover plates and multiple arc-shaped cover plates end to end, and a liquid cooling groove is arranged on the top surface of the horizontally arranged flat plate, wherein the liquid cooling groove comprises a straight groove and an arc-shaped groove, wherein the liquid cooling groove is a combination of multiple "S"-shaped structures formed by connecting multiple straight grooves and multiple arc-shaped grooves end to end, and the cross section of the liquid cooling groove is an inverted trapezoidal structure with a wide mouth and a narrow bottom, and the cover plate The cross-section of the strip is an inverted trapezoidal structure that is wide at the top and narrow at the bottom, matching the liquid cooling groove opening. A trapezoidal upper cover with a narrow upper and wide lower structure whose bottom width is greater than the width of the liquid cooling groove opening is provided on the top of the cover strip. The cover strip is placed at the opening of the liquid cooling groove and can completely cover the liquid cooling groove. The two side walls of the cover strip are respectively in contact with the two side walls of the liquid cooling groove opening. The lower bottom surface of the trapezoidal upper cover protrudes from the two sides of the cover strip and rests on the two edges of the liquid cooling groove opening. After the cover strip covers the liquid cooling groove opening, the remaining liquid cooling groove forms a liquid cooling channel.
[0006] The large-flux liquid cooling channel of the hollow liquid cooling box plate is provided with liquid inlet and outlet holes penetrating the side wall of the plate at both ends of the liquid cooling groove.
[0007] For the large-flux liquid cooling channel of the hollow liquid cooling box body plate, there is a tight fit between the cover strip and the mouth of the liquid cooling groove.
[0008] For the large-flux liquid cooling channel of the hollow liquid cooling box body plate, an arc transition is provided between the upper bottom surface and the two side walls of the trapezoidal upper cover.
[0009] For the large-flux liquid cooling channel of the hollow liquid cooling box body plate, the cover strip and the flat plate are both made of aluminum.
[0010] Due to the adoption of the above technical solution, the utility model has the following beneficial effects:
[0011] For the large-flux liquid cooling channel of the hollow liquid cooling box body plate of the utility model, by arranging the heat dissipation system of the precision instrument outside the chassis of the precision instrument and using a closed liquid cooling channel with a wider mouth and a narrower bottom on the inner wall of the chassis, the purpose of increasing the throughput of the liquid cooling channel and widening the channel mouth to increase the cooling effect with the coolant in the channel for heat dissipation inside the chassis is achieved; the utility model has a novel structure, strong practicability and good use effect, and has research and development value. BRIEF DESCRIPTION OF THE DRAWINGS
[0012] Figure 1 It is a schematic assembly structure diagram of the utility model;
[0013] Figure 2 It is a schematic assembly structure diagram of the cross section of the cover strip and the cross section of the liquid cooling groove of the utility model.
[0014] In the figure: 1. Cover strip; 2. Straight cover strip; 3. Arc cover strip; 4. Liquid cooling groove; 5. Straight groove; 6. Arc groove; 7. Flat plate; 8. Liquid inlet and outlet hole; 9. Trapezoidal upper cover. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0015] The utility model can be more detailedly explained through the following embodiments. The utility model is not limited to the following embodiments. The purpose of disclosing the utility model is to protect all changes and improvements within the scope of the utility model;
[0016] Combined with the attached Figure 1The large-flux liquid cooling channel of the hollow liquid cooling box body plate described in item 1 or 2 includes a cover plate strip 1 and a flat plate 7. The cover plate strip 1 includes a straight cover strip 2 and an arc cover strip 3. The cover plate strip 1 is a combination of a plurality of "S" - shaped structures formed by connecting the ends of a plurality of straight cover strips 2 and a plurality of arc cover strips 3. On the top surface of the horizontally arranged flat plate 7, there is a liquid cooling groove 4. The liquid cooling groove 4 includes a straight groove 5 and an arc groove 6. The liquid cooling groove 4 is a combination of a plurality of straight grooves 5 and a plurality of arc grooves 6 connected end to end to form a plurality of "S" - shaped structures. The cross - section of the liquid cooling groove 4 is an inverted trapezoidal structure with a wide mouth and a narrow bottom. The cross - section of the cover plate strip 1 is an inverted trapezoidal structure with a wide top and a narrow bottom that matches the mouth of the liquid cooling groove 4. On the top of the cover plate strip 1, there is a trapezoidal upper cover 9 with a narrow - top and wide - bottom structure whose bottom width is greater than the width of the mouth of the liquid cooling groove 4. The upper bottom surface and the two side walls of the trapezoidal upper cover 9 are set with arc transitions. The cover plate strip 1 is placed at the mouth of the liquid cooling groove 4 and can completely cover the liquid cooling groove 4. The two side walls of the cover plate strip 1 are respectively in contact with the two side walls of the mouth of the liquid cooling groove 4. The cover plate strip 1 and the mouth of the liquid cooling groove 4 are in tight fit. The lower bottom surface of the trapezoidal upper cover 9 protrudes from both sides of the cover plate strip 1 and rests on the two edges of the mouth of the liquid cooling groove 4. The remaining part of the liquid cooling groove 4 after the cover plate strip 1 covers the mouth of the liquid cooling groove 4 forms a liquid cooling channel. At both ends of the liquid cooling groove 4, there are liquid inlet and outlet holes 8 that penetrate the side walls of the flat plate 7. The materials of the cover plate strip 1 and the flat plate 7 are both aluminum.
[0017] When implementing the large - flux liquid cooling channel of the hollow liquid cooling box body plate described in the present utility model, during use, the cover plate strip 1 is placed at the mouth of the liquid cooling groove 4 and connected by vacuum diffusion welding. The lower bottom surface of the trapezoidal upper cover 9 protrudes from both sides of the cover plate strip 1 and rests on the two edges of the mouth of the liquid cooling groove 4, effectively increasing the connection effect. The two liquid inlet and outlet holes 8 located on the side walls of the flat plate 7 are respectively connected to radiators. The liquid cooling channel is filled with coolant. The "S" - shaped liquid cooling channel set on the chassis increases the radiation range of the coolant. The liquid cooling channel with a wide mouth and a narrow bottom increases the throughput of the coolant, and the widened channel mouth effectively increases the cooling effect.
[0018] The parts not detailed in the present utility model are prior art.
Claims
1. A large-flux liquid cooling channel for a hollow liquid-cooled box body plate, characterized in that: It includes a cover strip (1) and a flat plate (7). The cover strip (1) includes a straight cover strip (2) and an arc cover strip (3). The cover strip (1) is a combination of multiple "S" - shaped structures formed by connecting multiple straight cover strips (2) and multiple arc cover strips (3) end to end. On the top surface of the horizontally arranged flat plate (7), there is a liquid - cooling groove (4). The liquid - cooling groove (4) includes a straight groove (5) and an arc groove (6). The liquid - cooling groove (4) is a combination of multiple "S" - shaped structures formed by connecting multiple straight grooves (5) and multiple arc grooves (6) end to end. The cross - section of the liquid - cooling groove (4) is an inverted trapezoidal structure with a wide top and a narrow bottom. The cross - section of the cover strip (1) is an inverted trapezoidal structure with a wide top and a narrow bottom that matches the opening of the liquid - cooling groove (4). On the top of the cover strip (1), there is a trapezoidal upper cover (9) with a narrow top and a wide bottom structure whose bottom width is greater than the width of the opening of the liquid - cooling groove (4). The cover strip (1) is placed at the opening of the liquid - cooling groove (4) and can completely cover the liquid - cooling groove (4). The two side walls of the cover strip (1) are respectively in contact with the two side walls of the opening of the liquid - cooling groove (4). The lower bottom surface of the trapezoidal upper cover (9) protrudes from both sides of the cover strip (1) and rests on the two edges of the opening of the liquid - cooling groove (4). The remaining part of the liquid - cooling groove (4) after the cover strip (1) covers the opening of the liquid - cooling groove (4) forms a liquid - cooling channel.
2. The high-throughput liquid cooling channel of the hollow liquid-cooled box body plate according to claim 1, characterized in that: At both ends of the liquid - cooling groove (4), there are liquid inlet and outlet holes (8) that penetrate the side wall of the flat plate (7).
3. The large-flux liquid cooling channel of the hollow liquid-cooled box body plate according to claim 1, characterized in that: There is a tight fit between the cover strip (1) and the opening of the liquid - cooling groove (4).
4. The large-flux liquid cooling channel of the hollow liquid-cooled box body plate according to claim 1, wherein: The upper bottom surface and the two side walls of the trapezoidal upper cover (9) are set to have an arc transition.
5. The high-flux liquid cooling channel of the hollow liquid-cooled box body plate according to claim 1, characterized in that: The materials of both the cover strip (1) and the flat plate (7) are aluminum.