A radiator based on an AI server and its continuous forming process

Abstract

The present invention relates to the technical field of radiators, and specifically discloses a radiator based on an AI server and its continuous forming process, including a bottom plate and a plurality of radiating fins. A copper tube is installed on the top of the bottom plate, and a plurality of radiating fins are all installed on the surface of the copper tube. A fixing frame is connected to the top of the bottom plate through a fixing rod, and a first cleaning mechanism is provided on each of the four sides of the fixing frame. The first cleaning mechanism includes four moving plates, and a dust suction head is provided on one side of each of the four moving plates close to the radiating fins, and a second cleaning mechanism is provided on the side of each of the four moving plates away from the radiating fins. In this invention, when impurities need to be cleaned, through the cooperation of the first cleaning mechanism and other components, the four dust suction heads are driven to automatically suck and clean the impurities accumulated in the gap positions on the four sides of the plurality of radiating fins respectively, facilitating the subsequent use of the plurality of radiating fins. There is no need to disassemble and clean the radiator manually, reducing the adverse impact on the use of the AI server.

Description

Technical Field

[0001] The present invention relates to the technical field of radiators, and particularly to a radiator for an AI server and its continuous forming process. Background Art

[0002] The radiator of an AI server is a device specifically designed to efficiently dissipate the high heat generated inside the AI server. These radiators are usually optimized for the high power consumption and intensive computing requirements of AI servers to ensure the stable operation and optimal performance of the servers. With the continuous development of AI technology and the increasing application requirements, the heat dissipation requirements of AI servers will also continue to increase.

[0003] After the radiator in the prior art is used inside the AI server for a period of time, impurities will accumulate in the gap positions of the radiator fins. These impurities will affect the normal use of the radiator. Although it can be manually disassembled from the inside of the AI server and then the gap positions of the fins can be cleaned and removed with the help of cleaning tools, when manually cleaning the impurities, the radiator also needs to be disassembled, which causes the work of the AI server to be interrupted, indirectly affecting the use of the AI server, resulting in the radiator in the prior art being unable to meet people's usage requirements. Summary of the Invention

[0004] The purpose of the present invention is to solve the disadvantages existing in the prior art and to propose a radiator for an AI server and its continuous forming process.

[0005] To achieve the above purpose, the present invention adopts the following technical solutions:

[0006] A radiator for an AI server includes a bottom plate and a plurality of fins. A copper pipe is installed on the top of the bottom plate, and a plurality of fins are all installed on the surface of the copper pipe. A contact part is arranged at the bottom of the bottom plate. Four corners of the top of the bottom plate are commonly connected to a fixing frame through fixing rods. First cleaning mechanisms for cleaning the gaps between the plurality of fins are arranged on four sides of the fixing frame. The first cleaning mechanism includes moving plates arranged on four sides of the plurality of fins. Suction heads are arranged on one side of the four moving plates close to the fins, and second cleaning mechanisms for cleaning the bottom of the bottom plate are arranged on one side of the four moving plates away from the fins.

[0007] Optionally, first sliding grooves are opened on four outer walls of the fixing frame, first sliders are installed inside the four first sliding grooves, and rotating blocks are rotatably installed at one ends of the four first sliders away from the first sliding grooves.

[0008] Optionally, the bottom ends of the four rotating blocks are connected to the adjacent moving plates through first electric telescopic rods, and sponge blocks are installed at the bottoms of the four moving plates.

[0009] Optionally, second sliding grooves are formed in the outer walls of the four moving plates close to the heat sink, second sliding blocks are installed inside the four second sliding grooves, one ends of the four second sliding blocks away from the second sliding grooves are connected to the suction heads close to them through second electric telescopic rods, and connection ends for connecting to externally preset suction equipment are arranged at the tops of the four suction heads.

[0010] Optionally, fixing seats are installed at the four corner parts of the bottom plate, and moving seats are connected to the tops of the four fixing seats through springs.

[0011] Optionally, the second cleaning mechanism includes third sliding grooves formed in the outer walls of the four moving plates away from the heat sink, and third sliding blocks are installed inside the four third sliding grooves.

[0012] Optionally, rotating plates are rotatably installed at one ends of the four third sliding blocks away from the third sliding grooves, rectangular grooves are formed inside the four rotating plates, and rectangular plates are slidably installed inside the four rectangular grooves.

[0013] Optionally, fourth sliding grooves are formed in the inner walls on both sides of the four rectangular grooves, fourth sliding blocks are installed inside the two fourth sliding grooves, and one ends of the two fourth sliding blocks away from the fourth sliding grooves are connected to the rectangular plates close to them.

[0014] Optionally, a plurality of discharge ports are formed in the outer walls of the four rectangular plates away from the rectangular grooves, two rubber strips are installed on the outer walls of the four rectangular plates close to the plurality of discharge ports, and temperature sensors are installed inside the four rectangular plates.

[0015] Optionally, a continuous forming process for a radiator based on an AI server includes the radiator in the above, and the continuous forming process further includes the following steps:

[0016] Step 1: Material preparation, prepare copper-aluminum composite materials and copper tubes that meet the requirements;

[0017] Step 2: Material cutting, cut and process the copper-aluminum composite materials and copper tubes according to the design requirements of the radiator using a numerical control cutting machine to prepare a plurality of heat sinks with the same size and copper tubes with the same length;

[0018] Step 3: Punching, perform punching processing on the cut heat sinks according to the needs of the radiator design;

[0019] Step 4: Bending and forming, perform bending and forming on the punched heat sinks through a numerical control punching machine, and use a pipe bender to bend the copper tubes into the required shapes and angles;

[0020] Step Five: Welding Preparation. Before welding, the copper pipes and heat sinks need to be cleaned and deoxidized.

[0021] Step Six: Welding. Use professional welding equipment and techniques to weld the copper pipes to the heat sinks and other components.

[0022] Step Seven: Inspection and Testing. After welding, the welded joints need to be inspected and tested. Common inspection methods include visual inspection, X-ray detection, and ultrasonic detection.

[0023] Step Eight: Surface Treatment. The welded heat sinks are subjected to surface treatment, usually by sandblasting, oxidation, and painting.

[0024] Step Nine: Assembly. Assemble the processed heat sinks with other components to form a complete heat sink structure.

[0025] The beneficial effects of the present invention are as follows:

[0026] 1. In this invention, when impurities need to be cleaned, the first cleaning mechanisms arranged on the sides of the four moving plates close to the heat sinks cooperate with other components to drive the four dust suction heads to automatically suck and clean the impurities accumulated in the gap positions on the four sides of multiple heat sinks respectively, facilitating the subsequent use of multiple heat sinks. There is no need to manually disassemble and clean the heat sink, reducing the adverse impact on the use of the AI server.

[0027] 2. In this invention, if components generate high heat during long-term operation, through the mutual cooperation between the rotating plate and other components, the temperature sensor is driven to detect the temperature of the heat sink, and the temperature data of the heat sink is transmitted to other preset relevant detection devices, facilitating the staff to view the overall temperature data of the heat sink in real time, thereby obtaining whether the operating status of relevant components inside the AI server is normal and ensuring the stable operation of the AI server.

[0028] 3. In this invention, when the components inside the AI server operate to generate high temperature, causing a small amount of heat dissipation silicone grease to overflow from the edge position of the bottom plate, at this time, four first electric telescopic rods can be controlled to drive the four sponge blocks to move downward together for adjustment, so that the four sponge blocks move downward together to contact the components below. As the four first sliders move back and forth inside the corresponding first chutes, the four sponge blocks can be driven to automatically clean the small amount of heat dissipation silicone grease overflowing from the four sides of the bottom plate.

[0029] 4. In the present invention, after the radiator has been used for a long time as a whole, when the staff needs to disassemble it from the surface of the component for maintenance, if the thermal grease has been in a high-temperature state for a long time or the quality of the thermal grease is poor before that, resulting in the drying of the thermal grease, the mutual cooperation between the sponge block and other components can be used again to cause the alcohol adsorbed inside to overflow outward, so that the alcohol can soften the dried thermal grease at the bottom edge of the bottom plate. This can facilitate the subsequent disassembly of the bottom plate from the surface of the component by the staff, indirectly improving the overall disassembly efficiency of the radiator. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] For the convenience of those skilled in the art to understand, the present invention will be further described below with reference to the accompanying drawings.

[0031] Figure 1 FIG. 1 is a schematic diagram of the overall structure of a radiator based on an AI server proposed by the present invention;

[0032] Figure 2 FIG. 2 is a schematic diagram of the structure of the present invention excluding the fixing frame;

[0033] Figure 3 FIG. 3 is Figure 2 a schematic diagram of the structure from another angle;

[0034] Figure 4 FIG. 4 is a schematic diagram of the structure of the fixing frame in the present invention;

[0035] Figure 5 FIG. 5 is a schematic diagram of the structure of one of the moving plates in the present invention;

[0036] Figure 6 FIG. 6 is Figure 5 a schematic diagram of the structure from another angle;

[0037] Figure 7 FIG. 7 is a schematic diagram of the structure of the first cleaning mechanism in the present invention;

[0038] Figure 8 FIG. 8 is a schematic diagram of the structure of the second cleaning mechanism in the present invention;

[0039] Figure 9 FIG. 9 is a schematic diagram of the separation of one of the rectangular plates and the rotating plate in the present invention.

[0040] In the figure: 1, bottom plate; 2, heat sink; 3, copper tube; 4, fixing seat; 5, spring; 6, moving seat; 7, fixing rod; 8, fixing frame; 9, moving plate; 10, abutting part; 11, first chute; 12, first slider; 13, rotating block; 14, first electric telescopic rod; 15, second chute; 16, sponge block; 17, rotating plate; 18, third chute; 19, second slider; 20, second electric telescopic rod; 21, dust suction head; 22, connection end; 23, third slider; 24, rectangular plate; 25, rectangular groove; 26, fourth chute; 27, discharge port; 28, temperature sensor; 29, rubber strip; 30, fourth slider. Detailed implementation mode

[0041] The technical solutions of the present invention will be clearly and completely described below in conjunction with the embodiments. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative work shall fall within the protection scope of the present invention.

[0042] Referring to Figures 1-9 , a radiator based on an AI server, includes a bottom plate 1 and a plurality of heat sinks 2. A copper tube 3 is installed on the top of the bottom plate 1, and a plurality of heat sinks 2 are all installed on the surface of the copper tube 3. An abutting part 10 is arranged at the bottom of the bottom plate 1. The four corners of the top of the bottom plate 1 are jointly connected with a fixing frame 8 through fixing rods 7. A first cleaning mechanism for cleaning the gaps between the plurality of heat sinks 2 is arranged on the four sides of the fixing frame 8. The first cleaning mechanism includes moving plates 9 arranged on the four sides of the plurality of heat sinks 2. A dust suction head 21 is arranged on one side of the four moving plates 9 close to the heat sinks 2, and a second cleaning mechanism for cleaning the bottom of the bottom plate 1 is arranged on the side of the four moving plates 9 away from the heat sinks 2.

[0043] As a technical optimization scheme of the present invention, first chutes 11 are opened on the four outer walls of the fixing frame 8, first sliders 12 are installed inside the four first chutes 11, and rotating blocks 13 are rotatably installed at the ends of the four first sliders 12 away from the first chutes 11. First linear motors are preset inside the four first chutes 11, and the four first linear motors can drive the four first sliders 12 to move back and forth inside the corresponding first chutes 11 for adjustment; and first driving devices are preset inside the plurality of first sliders 12, and the output ends of the four first driving devices are connected to the rotating parts of their corresponding rotating blocks 13, so as to drive the four rotating blocks 13 to rotate for adjustment.

[0044] As a technical optimization solution of the present invention, the bottom ends of the four rotating blocks 13 are all connected to the adjacent moving plates 9 through the first electric telescopic rods 14, and sponge blocks 16 are installed at the bottoms of the four moving plates 9. Second driving devices are preset inside the four rotating blocks 13, and the output ends of the four second driving devices are respectively connected to the corresponding first electric telescopic rods 14, so as to drive the four first electric telescopic rods 14 and the moving plates 9 to rotate and adjust.

[0045] As a technical optimization solution of the present invention, second sliding grooves 15 are provided on the outer walls of the four moving plates 9 close to the heat sinks 2, second sliding blocks 19 are installed inside the four second sliding grooves 15, and the ends of the four second sliding blocks 19 far away from the second sliding grooves 15 are all connected to the adjacent dust suction heads 21 through the second electric telescopic rods 20. Connection ends 22 for connecting to a preset dust suction device outside are provided at the tops of the four dust suction heads 21. Second linear motors are preset inside the four second sliding grooves 15, and the four second linear motors can drive the four second sliding blocks 19 to move back and forth inside the corresponding second sliding grooves 15, thereby driving the four second electric telescopic rods 20 and the dust suction heads 21 to move and adjust; a dust suction device is preset outside the server, and the input end of the dust suction device is connected to the connection end 22 through an adjustable pipeline provided, so that the four dust suction heads 21 all have suction force, and can suck and clean the impurities accumulated between the multiple heat sinks 2.

[0046] As a technical optimization solution of the present invention, fixing seats 4 are installed at the four corner parts of the bottom plate 1, and moving seats 6 are connected to the tops of the four fixing seats 4 through springs 5. When installing the entire radiator on the surface of the component that needs to be cooled, four screws are sequentially passed downward through the corresponding moving seats 6 and the inside of the fixing seats 4, so that the four screws are threadedly connected to the shell of the component to be installed; since the radiator needs to be stably fixed on the CPU or the graphics card for a long time to ensure the stable operation of the radiator. However, during long-term operation, the radiator and the CPU or the graphics card may generate slight vibrations, resulting in the loosening of the screws. The screws with springs 5 can reduce this loosening, because the springs 5 have a certain elasticity and can play a buffering role when the screws are vibrated, thereby maintaining the stability of the radiator; moreover, the springs 5 have the characteristic of automatically adjusting the tightening force. When the contact surface between the radiator and the CPU or the graphics card changes due to factors such as thermal expansion and contraction, the springs 5 can automatically adjust the tightening force according to the tightening degree of the screws to ensure that the radiator always keeps close contact with the CPU or the graphics card.

[0047] As a technical optimization solution of the present invention, the second cleaning mechanism includes third chutes 18 opened on the outer walls of the four moving plates 9 away from the side of the heat sink 2. Third sliders 23 are installed inside the four third chutes 18. Third linear motors are preset inside the four third chutes 18, and the four third linear motors can drive the four third sliders 23 to move back and forth inside the corresponding third chutes 18 for adjustment.

[0048] As a technical optimization solution of the present invention, rotating plates 17 are rotatably installed at one ends of the four third sliders 23 away from the third chutes 18. Rectangular grooves 25 are opened inside the four rotating plates 17. Rectangular plates 24 are slidably installed inside the four rectangular grooves 25. Third driving devices are preset on the outer walls of the four third sliders 23. The output ends of the four third driving devices are respectively connected to the rotating parts at one ends of the corresponding rotating plates 17, so as to drive the four rotating plates 17 to rotate and adjust.

[0049] As a technical optimization solution of the present invention, fourth chutes 26 are opened on both inner walls of the four rectangular grooves 25. Fourth sliders 30 are installed inside the two fourth chutes 26. One ends of the two fourth sliders 30 away from the fourth chutes 26 are connected to the rectangular plates 24 close to them. Fourth linear motors are preset inside the two fourth chutes 26. The two fourth linear motors can drive the two fourth sliders 30 to move back and forth inside the corresponding fourth chutes 26, and then drive the rectangular plates 24 to move back and forth inside the rectangular grooves 25 for adjustment.

[0050] As a technical optimization solution of the present invention, a plurality of discharge ports 27 are opened on the outer walls of the four rectangular plates 24 away from the rectangular grooves 25. Two rubber strips 29 are installed on the outer walls of the four rectangular plates 24 close to the plurality of discharge ports 27. Temperature sensors 28 are installed inside the four rectangular plates 24. The interiors of the four rectangular plates 24 are hollow, and the four rectangular plates 24 can be connected to a preset liquid discharge device outside through hoses, so that the liquid discharge device can transport liquids such as alcohol to the interiors of the rectangular plates 24 through the hoses, and the plurality of discharge ports 27 can discharge the alcohol outwards; the temperature sensor 28 is a temperature sensor with the model B3950 / 3470 in the prior art, having high precision and stability.

[0051] As a technical optimization solution of the present invention, a continuous forming process of a radiator based on an AI server includes the radiator described above, and this continuous forming process further includes the following steps:

[0052] Step 1: Material preparation, prepare copper-aluminum composite materials and copper tubes 3 that meet the requirements;

[0053] Step 2: Material cutting. Cut and process the copper-aluminum composite material and the copper pipe 3 according to the design requirements of the radiator using a numerical control cutting machine to prepare a plurality of heat sinks 2 with the same size and copper pipes 3 with the same length.

[0054] Step 3: Punching. Perform punching processing on the cut heat sinks 2 according to the needs of the radiator design.

[0055] Step 4: Bending and forming. Bend and form the punched heat sinks 2 through a numerical control punching machine, and use a pipe bender to bend the copper pipe 3 into the required shape and angle.

[0056] Step 5: Welding preparation. Before welding, it is necessary to clean and deoxidize the copper pipe 3 and the heat sink 2.

[0057] Step 6: Welding. Use professional welding equipment and techniques to weld the copper pipe 3 to the heat sink 2 and other components.

[0058] Step 7: Inspection and testing. After welding, it is necessary to inspect and test the welded joints. Common inspection methods include visual inspection, X-ray detection, and ultrasonic detection.

[0059] Step 8: Surface treatment. Perform surface treatment on the welded radiator, usually by sandblasting, oxidation, and painting.

[0060] Step 9: Assembly. Assemble the processed radiator with other components to form a complete radiator structure.

[0061] In the present invention, when the user uses the device, a sufficient amount of heat dissipation silicone grease can be evenly applied to the surface of the abutting portion 10 at the bottom of the bottom plate 1 first, and then four screws are sequentially passed downward through the corresponding moving seats 6 and the fixing seats 4 so that the four screws are threadedly connected to the outer shell of the component to be installed. With the help of the applied heat dissipation silicone grease, the gap between the bottom plate 1 and the component to be installed can be filled, so that the heat generated during the operation of the component can be conducted to the inside of the copper pipe 3 through the abutting portion 10 of the bottom plate 1, and continue to conduct the heat to the inside of the plurality of heat sinks 2 through the copper pipe 3. With the cooperation of the circulating coolant inside the copper pipe 3 and the plurality of heat sinks 2, the component can have a good heat dissipation effect, ensuring that the component can operate stably inside the AI server.

[0062] After multiple heat sinks 2 are used inside the AI server for a period of time, impurities will inevitably accumulate in the gap positions between the multiple heat sinks 2. When it is necessary to clean these impurities, it is not necessary to disassemble the entire radiator from the surface of the component. Only need to control the externally preset dust suction device to start, so that a suction force is generated on the side of the four dust suction heads 21 close to the heat sink 2, and control the telescopic ends of the four second electric telescopic rods 20 to extend together, driving the four dust suction heads 21 to respectively abut against the four side surfaces of the multiple heat sinks 2. By means of the corresponding first slider 12 moving horizontally back and forth inside the first chute 11, and by means of the corresponding second slider 19 moving up and down inside the second chute 15, the four dust suction heads 21 can be driven to automatically suck and clean the impurities accumulated in the gap positions on the four side surfaces of the multiple heat sinks 2 respectively, which is convenient for the subsequent use of the multiple heat sinks 2 and avoids the problem that the heat dissipation effect of the multiple heat sinks 2 is affected by long-term accumulation of impurities.

[0063] If the component generates relatively high heat during long-term operation, at this time, the four rotating plates 17 can be controlled to rotate upward to a horizontal state on one side of the corresponding third slider 23, and the four third sliders 23 can be controlled to move and adjust inside the corresponding third chute 18, driving the four rotating plates 17 at this time to correspond to the gap positions between two of the heat sinks 2. Then, the four moving plates 9 are controlled to rotate 180 degrees by themselves, and the four rotating plates 17 in the horizontal state are driven to rotate between two of the heat sinks 2. As the four third sliders 23 move upward inside the corresponding third chute 18, the temperature sensors 28 inside the four rectangular plates 24 are driven to contact one of the heat sinks 2. At this time, the four temperature sensors 28 can simultaneously detect the temperature of one of the heat sinks 2 in real time, and can drive the four rotating plates 17 to rotate to the gap positions between other corresponding two heat sinks 2 in turn as the four third sliders 23 move and adjust inside the corresponding third chute 18 and the four moving plates 9 continuously rotate 180 degrees, detect the temperature of the other heat sinks 2, and transmit the temperature data of the heat sinks 2 to other preset relevant detection devices, which is convenient for the staff to view the temperature data of the entire radiator in real time, so as to obtain whether the operating state of the relevant components inside the AI server is normal and ensure the stable operation of the AI server.

[0064] Meanwhile, when the components inside the AI server operate to generate high temperatures, a small amount of the thermal grease filled between the abutting portion 10 and the components will overflow from the edge position of the bottom plate 1. To avoid the adverse effects of the overflowing thermal grease on the use of other components, at this time, the telescopic ends of the four first electric telescopic rods 14 can be controlled to all extend downward, driving the four moving plates 9 and the sponge blocks 16 at their bottoms to move downward together for adjustment, so that the four sponge blocks 16 move downward together to contact the components below. At this time, as the four first sliders 12 move back and forth inside the corresponding first chutes 11, the four sponge blocks 16 can be driven to automatically clean the small amount of thermal grease overflowing from the four sides of the bottom plate 1; for the thermal grease overflowing from the four corner parts of the bottom plate 1, the corresponding rotating blocks 13 can be controlled to drive the moving plates 9 to rotate and adjust, and with the elongation of the telescopic ends of the corresponding first electric telescopic rods 14, the corresponding sponge blocks 16 can be driven to clean the thermal grease overflowing from the four corner parts of the bottom plate 1, improving the cleaning effect of the overflowing thermal grease and expanding the cleaning range.

[0065] Moreover, to further improve the cleaning effect of the overflowing thermal grease, the four third sliders 23 can be controlled to move downward together inside the corresponding third chutes 18 until the corresponding rotating plates 17 move downward to abut against the sponge blocks 16 below, and then the externally preset liquid discharging device is controlled to start, so that the multiple discharge ports 27 all discharge volatile cleaning liquids such as alcohol outward. At this time, the alcohol discharged from the multiple discharge ports 27 can be adsorbed and temporarily stored downward by the sponge blocks 16 along the way, and with the back-and-forth movement of the sponge blocks 16, it has a better cleaning effect on the overflowing thermal grease.

[0066] For example, after the radiator as a whole has been used for a long time and the staff needs to disassemble it from the surface of the components for maintenance. Before that, if the thermal grease has been in a high-temperature state for a long time, or the quality of the thermal grease is poor, resulting in the drying of the thermal grease and causing adhesion between the bottom plate 1 and the components, the staff cannot quickly disassemble the radiator as a whole. The above steps of discharging alcohol from the multiple discharge ports 27 and guiding it to be adsorbed and temporarily stored inside the sponge blocks 16 can be repeated. After the four sponge blocks 16 have adsorbed a sufficient amount of alcohol inside, the telescopic ends of the four first electric telescopic rods 14 are controlled to extend downward together, and the sponge blocks 16 below are pressed accordingly, prompting the alcohol adsorbed inside to overflow outward. With the back-and-forth movement of the four first sliders 12 inside the first chutes 11, the overflowing alcohol can be driven to evenly contact the bottom edge position of the bottom plate 1, so that the alcohol can soften the dried thermal grease at the bottom edge position of the bottom plate 1, which can facilitate the subsequent disassembly of the bottom plate 1 from the surface of the components by the staff and indirectly improve the disassembly efficiency of the radiator as a whole.

[0067] After the radiator as a whole is removed from the surface of the component, the staff needs to clean the residual thermal grease on the surface of the abutting portion 10 of the bottom plate 1. Then, after overhauling the radiator as a whole, new thermal grease is reapplied to the abutting portion 10. When cleaning the old thermal grease, the radiator as a whole can be inverted at this time, so that the fixing frame 8 is placed on the table. Then, control the telescopic ends of the four first electric telescopic rods 14 to extend together, and push the ends of the four moving plates 9 with the sponge blocks 16 to move to a position higher than the bottom plate 1. Then, first control the four rotating plates 17 to rotate to a horizontal state, and then control the four third sliders 23 to move upward together inside the corresponding third chutes 18 to a position close to the sponge blocks 16. Then, control the four moving plates 9 to rotate 180 degrees, driving the four rotating plates 17 in a horizontal state to rotate to a position close to the top of the bottom plate 1. Control the four third sliders 23 to move and adjust inside the corresponding third chutes 18, and then drive the four rotating plates 17 to move to abut against the top of the bottom plate 1. With the help of multiple discharge ports 27 to discharge alcohol outward and the four first sliders 12 to move back and forth inside the corresponding first chutes 11, after the alcohol is discharged to the surface of the abutting portion 10, the old thermal grease can be softened, and with the help of the back-and-forth movement of the two rubber strips 29, the softened thermal grease can be automatically scraped and cleaned from the surface of the abutting portion 10, thus achieving the effect of automatically cleaning the old thermal grease attached to the abutting portion 10 of the bottom plate 1, reducing the manual labor amount, and improving the overhaul efficiency of the radiator as a whole.

[0068] And during the process of overhauling the radiator as a whole, if it is found that the edge positions of some of the heat dissipation fins 2 are deformed, the above steps of detecting the temperatures of the multiple heat dissipation fins 2 with the temperature sensor 28 can be repeated, so that the third sliders 23 close to the deformed parts of the heat dissipation fins 2 move and adjust inside the corresponding third chutes 18, and with the help of the corresponding moving plates 9 rotating 180 degrees, drive the rotating plates 17 in a horizontal state to rotate above or below the deformed heat dissipation fins 2. As the corresponding third sliders 23 move and adjust inside the third chutes 18, the rotating plates 17 in a horizontal state can be driven to move upward or downward to automatically correct the heat dissipation fins 2 that are bent upward or downward, facilitating the continued use of these heat dissipation fins 2.

[0069] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to the specific embodiments described. Obviously, according to the content of this specification, many modifications and changes can be made. This specification selects and specifically describes these embodiments to better explain the principle and practical application of the present invention, so that those skilled in the art in the relevant technical field can well understand and utilize the present invention. The present invention is only limited by the claims and their full scope and equivalents.

Claims

1. A radiator based on an AI server, comprising a bottom plate (1) and a plurality of heat sinks (2), characterized in that, A copper tube (3) is installed on the top of the bottom plate (1), and a plurality of heat sinks (2) are all installed on the surface of the copper tube (3). A butting portion (10) is provided at the bottom of the bottom plate (1). At the four corner positions of the top of the bottom plate (1), a fixing frame (8) is commonly connected through fixing rods (7). On the four side surfaces of the fixing frame (8), a first cleaning mechanism for cleaning the gaps between the plurality of heat sinks (2) is provided. The first cleaning mechanism includes moving plates (9) provided on the four side surfaces of the plurality of heat sinks (2). On one side of the four moving plates (9) close to the heat sinks (2), suction heads (21) are provided. On the side of the four moving plates (9) away from the heat sinks (2), a second cleaning mechanism for cleaning the bottom of the bottom plate (1) is provided; First sliding grooves (11) are opened on the four outer walls of the fixing frame (8), and first sliding blocks (12) are installed inside the four first sliding grooves (11). One end of the four first sliding blocks (12) away from the first sliding grooves (11) is rotatably installed with rotating blocks (13); The bottom ends of the four rotating blocks (13) are connected to the adjacent moving plates (9) through first electric telescopic rods (14), and sponge blocks (16) are installed at the bottoms of the four moving plates (9); On the outer wall of one side of the four moving plates (9) close to the heat sinks (2), second sliding grooves (15) are opened, and second sliding blocks (19) are installed inside the four second sliding grooves (15). One end of the four second sliding blocks (19) away from the second sliding grooves (15) is connected to the adjacent suction heads (21) through second electric telescopic rods (20). At the top ends of the four suction heads (21), connection ends (22) for connecting to a preset external suction device are provided; The second cleaning mechanism includes third sliding grooves (18) opened on the outer wall of one side of the four moving plates (9) away from the heat sinks (2), and third sliding blocks (23) are installed inside the four third sliding grooves (18); One end of the four third sliding blocks (23) away from the third sliding grooves (18) is rotatably installed with rotating plates (17). Rectangular grooves (25) are opened inside the four rotating plates (17), and rectangular plates (24) are slidably installed inside the four rectangular grooves (25); Fourth sliding grooves (26) are opened on the inner walls of both sides of the four rectangular grooves (25). Inside the two fourth sliding grooves (26) of each rectangular groove (25), fourth sliding blocks (30) are installed. One end of the two fourth sliding blocks (30) away from the fourth sliding grooves (26) is connected to the adjacent rectangular plate (24); On the outer wall of one side of the four rectangular plates (24) away from the rectangular grooves (25), a plurality of discharge ports (27) are opened. On the outer wall of one side of the four rectangular plates (24) close to the plurality of discharge ports (27), two rubber strips (29) are installed. Temperature sensors (28) are installed inside the four rectangular plates (24).

2. The radiator based on an AI server according to claim 1, wherein, Fixing seats (4) are installed at the four corner parts of the bottom plate (1), and moving seats (6) are connected to the tops of the four fixing seats (4) through springs (5).

3. A continuous forming process of a radiator based on an AI server, characterized in that, For fabricating and forming the radiator in Claim 2 above, and this continuous forming process further includes the following steps: Step 1: Material preparation. Prepare the copper-aluminum composite material and copper pipes (3) that meet the requirements. Step 2: Material cutting. Cut and process the copper-aluminum composite material and copper pipes (3) according to the design requirements of the radiator using a numerically controlled cutting machine to prepare a plurality of heat sinks (2) with the same dimensions and copper pipes (3) with the same length. Step 3: Punching. Perform punching processing on the cut heat sinks (2) according to the needs of the radiator design. Step 4: Bending and forming. Bend and form the punched heat sinks (2) using a numerically controlled punching machine, and use a pipe bender to bend the copper pipes (3) into the required shapes and angles. Step 5: Welding preparation. Clean and deoxidize the copper pipes (3) and heat sinks (2) before welding. Step 6: Welding. Weld the copper pipes (3) to the heat sinks (2) and other components using welding equipment. Step 7: Inspection and testing. Inspect and test the welded joints after welding is completed. Step 8: Surface treatment. Perform surface treatment on the welded radiator. Step 9: Assembly. Assemble the treated radiator with other components to form a complete radiator structure.

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