A cutting and welding processing equipment for a vapor chamber

Abstract

The application discloses a cutting and welding processing equipment for a vapor chamber, which comprises a mounting frame, a cutting mechanism, a conveying mechanism, a transfer mechanism and a welding machine. The cutting mechanism is used for cutting a steel belt into a steel mesh; the conveying mechanism comprises a conveying disc, and the vapor chamber is adapted to be fixed to the conveying disc; the transfer mechanism is arranged on the mounting frame and located outside the conveying disc, and comprises a first transfer assembly and a second transfer assembly; the steel mesh is adapted to be placed on the first transfer assembly, the first transfer assembly is used for transferring the steel mesh to the outside of the cutting mechanism, and the second transfer assembly comprises a first driving assembly and a suction disc; the first driving assembly is connected and matched with the suction disc, the first driving assembly is used for driving the suction disc to reciprocate between the first transfer assembly and the conveying disc, and is also used for driving the suction disc to move close to or away from the steel mesh or the vapor chamber, and the suction disc is used for adsorbing or releasing the steel mesh. The application can avoid the alignment deviation caused by manual placement of the steel mesh.

Description

Technical Field

[0001] This application relates to the field of heat exchanger processing, and more particularly to a cutting and welding processing equipment for heat exchangers. Background Technology

[0002] In related technologies, during the manufacturing process of a heat exchanger, to achieve a stable connection of the heat dissipation structure, a pre-cut steel mesh of a specific shape is typically welded to the surface of the heat exchanger. The cutting of the steel mesh is usually accomplished through die stamping. Afterwards, an operator manually removes the steel mesh and places it on the heat exchanger for positioning. Once positioned, the operator uses resistance welding to weld the steel mesh to the heat exchanger. However, this welding method requires manual alignment, and the alignment accuracy between the steel mesh and the heat exchanger is easily affected by the operator's skill level, reducing the alignment and welding accuracy between the steel mesh and the heat exchanger. Summary of the Invention

[0003] To minimize the impact of operator skill level on the alignment accuracy between the steel mesh and the heat exchange plate, and to improve the alignment and welding accuracy between the steel mesh and the heat exchange plate, this application provides a cutting and welding processing device for heat exchange plates.

[0004] The cutting and welding processing equipment for heat exchange plates provided in this application adopts the following technical solution: A cutting and welding processing device for a heat spreader plate includes: a mounting frame; a cutting mechanism disposed on the mounting frame for cutting steel strip into steel mesh; and a conveying mechanism disposed on the mounting frame, the conveying mechanism including a conveying disc, the heat spreader plate being adapted to be fixed on the conveying disc, and the conveying disc rotating about the central axis of the conveying disc when driven.

[0005] A transfer mechanism is provided on the mounting frame and located outside the conveyor tray. The transfer mechanism includes a first transfer component and a second transfer component. The first transfer component is opposite to the steel belt, and the steel mesh is adapted to be placed on the first transfer component. The first transfer component is used to transfer the steel mesh to the outside of the cutting mechanism. The second transfer component includes a first drive component and an adsorption plate. The first drive component is connected and cooperates with the adsorption plate. The adsorption plate is opposite to the first transfer component or the conveyor tray. The first drive component is used to drive the adsorption plate to reciprocate between the first transfer component and the conveyor tray, and is also used to drive the adsorption plate to move closer to or away from the steel mesh or the heat spreader. The adsorption plate is used to adsorb or release the steel mesh.

[0006] A welding machine is provided on the mounting frame and is adapted to be opposite to both the adsorption plate and the temperature equalization plate. The welding machine is used to weld the steel mesh and the temperature equalization plate.

[0007] By adopting the above technical solution, after the steel strip is cut into steel mesh by the cutting mechanism, the first transfer component transfers the steel mesh to the outside of the cutting mechanism, and the first drive component drives the adsorption plate to sequentially complete the picking, moving, and alignment release operations of the steel mesh, so that the steel mesh is accurately stacked on the surface of the heat exchange plate, and then the welding machine welds the steel mesh to the heat exchange plate. Compared with the prior art, this application can realize the fully automated alignment and assembly of the steel mesh from cutting to welding, avoiding the alignment deviation caused by manual placement of the steel mesh, thereby improving the alignment accuracy and welding accuracy of the steel mesh and the heat exchange plate.

[0008] Preferably, the adsorption plate has multiple connecting holes and adsorption holes, the multiple connecting holes are spaced apart, the multiple connecting holes are opposite to multiple welding points of the steel mesh, the welding machine passes through the connecting holes to weld the steel mesh and the heat spreader, the adsorption holes are spaced apart from the connecting holes, and the adsorption holes are used to adsorb or release the steel mesh.

[0009] The first driving component includes a first driving member and a second driving member. The first driving member is disposed on the mounting frame and is connected and cooperated with the second driving member. The adsorption disk is connected and cooperated with the second driving member. The first driving member is used to drive the adsorption disk to reciprocate between the first transfer component and the conveying disk. The second driving member is used to drive the adsorption disk to move closer to or away from the steel mesh or the heat exchange plate.

[0010] By adopting the above technical solution, after the adsorption plate moves the steel mesh to the heat spreader, the welding machine passes through the connecting hole to weld the steel mesh and the heat spreader. Thus, the steel mesh can be accurately transported and positioned by the adsorption plate without affecting the welding path, and the welding operation can be completed directly in the adsorption state. This reduces the risk of positional deviation during the transport of the steel mesh and improves the alignment accuracy and welding accuracy between the steel mesh and the heat spreader.

[0011] Preferably, the first transfer assembly includes a third drive member, a fourth drive member, a connecting plate, and a receiving tray. The third drive member is connected and cooperates with the connecting plate. The receiving tray is slidably disposed on the connecting plate. The receiving tray is opposite to the bottom wall of the steel strip and is adapted to abut against the steel strip. The receiving tray is used to place the steel mesh. The third drive member is used to drive the connecting plate to rotate around the pivot axis of the third drive member, so that the connecting plate drives the receiving tray to rotate closer to or away from the cutting mechanism. The fourth drive member is adapted to be opposite to the receiving tray and abut against it. The fourth drive member is used to drive the receiving tray to move closer to the steel strip.

[0012] By adopting the above technical solution, the receiving tray receives the steel mesh after cutting, and the third driving component drives the steel mesh to be transferred to the outside of the cutting mechanism so that the steel mesh is aligned with the adsorption tray. This ensures that the steel mesh is stably positioned after cutting and is automatically transferred to the alignment area, improving the continuity and accuracy of steel mesh transmission, reducing alignment errors caused by manual intervention, and thus improving the alignment accuracy of the steel mesh and the heat spreader before welding and the overall process efficiency.

[0013] Preferably, the cutting mechanism includes a cutting machine, a feeding assembly, and a forming assembly. The mounting frame is provided with a cutting table, which has a discharge hole. The first transfer assembly is opposite to the discharge hole. The feeding assembly is used to feed steel strip to the cutting table. The forming assembly includes a fifth driving member, a clamping member, and a forming member. The forming member is adapted to be opposite to the discharge hole and to be placed on the top wall of the steel strip. The fifth driving member is connected and cooperates with the clamping member. The fifth driving member is used to drive the clamping member to move the forming member closer to or away from the top wall of the steel strip. The clamping member is used to clamp or release the forming member. The cutting machine is used to cut the steel mesh on the steel strip according to the shape of the forming member.

[0014] By adopting the above technical solution, the fifth driving component drives the forming component to achieve the forming and positioning of the steel strip. After the clamping component releases the forming component, the cutting machine completes the cutting of the steel mesh. The cut steel mesh falls into the receiving tray through the feeding hole. After the steel mesh is cut, the clamping component re-clamps the forming component and drives the forming component away from the steel strip. At the same time, the feeding component continues to convey the steel strip. Thus, multiple mechanisms can cooperate in the forming, cutting, unloading and feeding process, improve the automation level and cycle stability of the steel mesh forming process, and reduce the accuracy error caused by manual positioning operation.

[0015] Preferably, the clamping member includes a driving part, a first clamping arm and a second clamping arm. The driving part is connected and cooperates with the fifth driving member. The first clamping arm and the second clamping arm are both connected and cooperate with the driving part. The driving part is used to drive the first clamping arm and the second clamping arm to move in opposite directions, so that the first clamping arm and the second clamping arm clamp or release the forming member.

[0016] By adopting the above technical solution, the first and second clamping arms are used to clamp and release the forming part under the action of the driving part, thereby driving the forming part to complete the positioning and pressing of the steel strip, so that the steel strip is stably attached to the cutting table during the cutting process. This ensures that the steel strip does not shift or warp during the cutting process, and improves the cutting accuracy and the consistency of steel mesh forming.

[0017] Preferably, the cutting mechanism further includes a first clamping component and a second clamping component. Along the first direction of the mounting frame, the first clamping component and the second clamping component are spaced apart. The forming member is located between the first clamping component and the second clamping component. Both the first clamping component and the second clamping component include a sixth driving member and a pressure plate. The pressure plate is opposite to the top wall of the steel strip. The sixth driving member cooperates with the pressure plate connecting plate. The sixth driving member is used to drive the pressure plate to move closer to or away from the steel strip. The pressure plate is used to press the steel strip onto the cutting table.

[0018] By adopting the above technical solution, the first and second clamping components apply clamping force to the front and rear ends of the steel strip, and the sixth driving component drives the pressure plate to press the steel strip onto the cutting table to form a stable support area. This ensures that the tension of the steel strip is stable during the cutting process, prevents the steel strip from shifting or warping, and improves the cutting accuracy and structural consistency of the steel mesh.

[0019] Preferably, the feeding assembly includes a feeding roller, a receiving roller, and a seventh drive component. The feeding roller and the receiving roller are both pivotally mounted on the mounting frame. The cutting table is located between the feeding roller and the receiving roller. The feeding roller is used to feed the steel strip to the receiving roller. The steel strip passes between the forming member and the cutting table. The seventh drive component is disposed on the mounting frame and connected to the receiving roller. The seventh drive component is used to drive the receiving roller to rotate, so that the receiving roller drives the feeding roller to feed the steel strip.

[0020] By adopting the above technical solution, the seventh driving component drives the take-up roller to pull the steel strip and drive the feeding roller to synchronously transport the steel strip to the cutting table. The steel strip is cut between the forming part and the cutting table. The cut part of the steel strip is continued to be wound up by the take-up roller, thereby realizing continuous feeding and orderly recycling of the steel strip throughout the entire processing process. This avoids the interruption of the cycle and positioning deviation caused by manual segmented feeding, thereby improving the steel mesh processing efficiency and feeding stability.

[0021] Preferably, the cutting and welding processing equipment further includes: a feeding mechanism, which is disposed on the mounting frame and located outside the conveyor tray. The feeding mechanism includes a second driving component, a first suction head, and a lifting component. The second driving component is pulsatorically connected to the first suction head. The first suction head is used to pick up or release the heat equalization plate. The second driving component is used to drive the first suction head to move closer to or away from the conveyor tray. The lifting component includes an eighth driving member and a lifting member. The lifting member is slidably disposed on the mounting frame. The heat equalization plate is adapted to be placed on the lifting member. The eighth driving member is connected and cooperates with the lifting member. The eighth driving member is used to drive the lifting member to move closer to or away from the first suction head.

[0022] By adopting the above technical solution, the eighth driving component drives the lifting component to transport the heat exchange plate to the first suction head. The second driving component drives the first suction head to complete the suction, handling and precise release of the heat exchange plate, so that the heat exchange plate is accurately placed in the preset heat exchange plate placement position on the conveyor tray. This enables automatic picking and placing and precise alignment of the heat exchange plate, reduces positional deviation and operational instability caused by manual placement, and improves the alignment efficiency and automated feeding accuracy before steel mesh welding.

[0023] Preferably, the cutting and welding processing equipment further includes: a feeding mechanism, which is disposed on the mounting frame and located outside the conveyor tray. The feeding mechanism includes a ninth driving member, a tenth driving member, an eleventh driving member, and a second suction head. The tenth driving member is connected to and cooperates with both the ninth and eleventh driving members. The second suction head is connected to and cooperates with the eleventh driving member. The ninth driving member is used to drive the second suction head to move closer to or away from the conveyor tray along the second direction of the mounting frame. The tenth driving member is used to drive the second suction head to move along the first direction of the mounting frame. The eleventh driving member is used to drive the second suction head to move closer to or away from the conveyor tray along the height direction of the mounting frame. The second suction head is used to pick up or release the welded heat spreader.

[0024] By adopting the above technical solution, the second suction head is driven by the ninth, tenth and eleventh driving components to complete the picking, lifting, lateral movement and release operations of the welded heat spreader, so that the heat spreader is automatically transferred from the conveyor tray to the preset storage area. This enables the automatic unloading and orderly stacking of finished heat spreaders, avoids the cycle delay and position deviation caused by manual handling, and improves the post-weld processing efficiency of the whole machine and the automation level of the production line.

[0025] Preferably, the conveyor plate is provided with a plurality of spaced positioning elements, and a receiving gap is defined between the plurality of positioning elements. The temperature equalization plate is adapted to be placed in the receiving gap and to be positioned and engaged with the positioning elements.

[0026] By adopting the above technical solution, the temperature distribution plate is placed in the receiving gap and cooperates with multiple positioning components to achieve limited positioning. The positioning components improve the positional stability of the temperature distribution plate on the conveyor plate by contacting and constraining the edge or positioning hole of the temperature distribution plate, thereby ensuring that the temperature distribution plate is always in the set position during the rotation of the conveyor plate.

[0027] In summary, this application includes at least one of the following beneficial technical effects: 1. After the steel strip is cut into steel mesh by the cutting mechanism, the first transfer component transfers the steel mesh to the outside of the cutting mechanism, and the first drive component drives the adsorption plate to sequentially complete the picking, moving, and alignment release operations of the steel mesh, so that the steel mesh is accurately stacked on the surface of the heat exchange plate, and then the welding machine welds the steel mesh to the heat exchange plate. Compared with the prior art, this application can realize the fully automated alignment and assembly of the steel mesh from cutting to welding, avoiding the alignment deviation caused by manual placement of the steel mesh, thereby improving the alignment accuracy and welding accuracy of the steel mesh and the heat exchange plate; 2. The first and second clamping components apply clamping force to the front and rear ends of the steel strip, and the sixth driving component drives the pressure plate to press the steel strip onto the cutting table to form a stable support area. This ensures that the tension of the steel strip is stable during the cutting process, prevents the steel strip from shifting or warping, and improves the cutting accuracy and structural consistency of the steel mesh. 3. The temperature distribution plate is placed in the receiving gap and cooperates with multiple positioning components to achieve limiting positioning. The positioning components improve the positional stability of the temperature distribution plate on the conveyor plate by contacting and constraining the edge or positioning hole of the temperature distribution plate, thereby ensuring that the temperature distribution plate is always in the set position during the rotation of the conveyor plate. Attached Figure Description

[0028] Figure 1 This is a schematic diagram of the cutting and welding processing equipment according to the embodiments of this application; Figure 2 yes Figure 1 Enlarged view of point A in the middle; Figure 3 yes Figure 1 Enlarged view of point B in the middle; Figure 4 This is a schematic diagram of a portion of the structure of the cutting and welding processing equipment according to an embodiment of this application; Figure 5 yes Figure 4 Enlarged view of point C in the middle; Figure 6 This is a cross-sectional view of another part of the structure of the cutting and welding processing equipment according to the embodiments of this application; Figure 7 yes Figure 6 Enlarged view of point D; Figure 8 This is a schematic diagram of another part of the structure of the cutting and welding processing equipment according to the embodiments of this application; Figure 9 yes Figure 8 Enlarged view of point E in the middle; Figure 10 This is a cross-sectional view of another part of the structure of the cutting and welding processing equipment according to the embodiments of this application; Figure 11 yes Figure 10Enlarged view of point F in the middle; Figure 12 This is a schematic diagram of the feeding mechanism according to the embodiments of this application.

[0029] Explanation of reference numerals in the attached figures: 100. Cutting and welding processing equipment; 1. Mounting frame; 11. Cutting table; 111. Material feeding hole; 2. Cutting mechanism; 21. Cutting machine; 22. Feeding assembly; 221. Feeding roller; 222. Taking-up roller; 223. Seventh driving component; 23. Forming assembly; 231. Fifth driving component; 232. Clamping component; 2321. Driving unit; 2322. First clamping arm; 2323. Second clamping arm; 233. Forming component; 24. First pressing assembly; 25. Second pressing assembly; 251. Sixth driving component; 252. Pressure plate; 3. Conveying mechanism; 31. Conveying disc; 311. Positioning component; 312. Accommodation clearance; 4. Transfer mechanism; 41. First transfer assembly; 411. Third driving component; 412. Fourth driving component; 413. Connecting plate; 414. Receiving tray; 42. Second transfer assembly; 421. First driving assembly; 4211. First driving component; 4212. Second driving component; 422. Adsorption tray; 4221. Connecting hole; 4222. Adsorption hole; 5. Welding machine; 6. Feeding mechanism; 61. Second drive assembly; 611. Twelfth drive component; 612. Thirteenth drive component; 613. Fourteenth drive component; 62. First suction head; 63. Lifting assembly; 631. Eighth drive component; 632. Lifting component; 7. Feeding mechanism; 71. Ninth driving component; 72. Tenth driving component; 73. Eleventh driving component; 74. Second suction head. Detailed Implementation

[0030] The following is in conjunction with the appendix Figures 1-12 This application will be described in further detail.

[0031] This application discloses a cutting and welding processing equipment 100 for a heat spreader.

[0032] Reference Figure 1 , Figure 4 , Figure 10 and Figure 11 The cutting and welding processing equipment 100 for a heat exchange plate according to the embodiments of this application includes: a mounting frame 1, a cutting mechanism 2, a conveying mechanism 3, a transfer mechanism 4, and a welding machine 5.

[0033] The cutting mechanism 2 is located on the mounting frame 1 and is used to cut the steel strip into steel mesh.

[0034] The conveying mechanism 3 is mounted on the mounting frame 1. The conveying mechanism 3 includes a conveying plate 31. The temperature equalization plate is adapted to be fixed on the conveying plate 31. When the conveying plate 31 is driven, it rotates around the central axis of the conveying plate 31.

[0035] Specifically, the conveying mechanism 3 also includes a drive motor, which is connected and cooperates with the conveying disk 31. The drive motor drives the conveying disk 31 to rotate around the central axis of the conveying disk 31.

[0036] In some specific embodiments, the drive motor can be replaced with a hydraulic motor or a divider, etc.

[0037] The transfer mechanism 4 is located on the mounting frame 1 and outside the conveyor plate 31. The transfer mechanism 4 includes a first transfer component 41 and a second transfer component 42. The first transfer component 41 is opposite to the steel belt, and the steel mesh is suitable for being placed on the first transfer component 41. The first transfer component 41 is used to transfer the steel mesh to the outside of the cutting mechanism 2. The second transfer component 42 includes a first drive component 421 and an adsorption plate 422. The first drive component 421 is connected and cooperates with the adsorption plate 422. The adsorption plate 422 is opposite to the first transfer component 41 or the conveyor plate 31. The first drive component 421 is used to drive the adsorption plate 422 to reciprocate between the first transfer component 41 and the conveyor plate 31, and is also used to drive the adsorption plate 422 to move closer to or away from the steel mesh or the heat exchange plate. The adsorption plate 422 is used to adsorb or release the steel mesh.

[0038] It should be noted that the adsorption plate 422 is connected to the air pump. When the adsorption plate 422 comes into contact with the steel mesh, the air pump draws air from the adsorption plate 422 to make the adsorption plate 422 adsorb the steel mesh. When the steel mesh comes into contact with the heat spreader, the air pump stops drawing air from the adsorption plate 422 to make the adsorption plate 422 release the steel mesh.

[0039] The welding machine 5 is mounted on the mounting frame 1 and is adapted to be opposite to both the adsorption plate 422 and the heat spreader plate. The welding machine 5 is used to weld the steel mesh and the heat spreader plate.

[0040] Specifically, after the cutting mechanism 2 cuts the steel strip into a steel mesh, the first transfer component 41 transfers the steel mesh to the outside of the cutting mechanism 2. The first drive component 421 drives the suction plate 422 to move closer to the first transfer component 41. Then, along the height direction of the mounting frame 1, the first drive component 421 drives the suction plate 422 to move closer to the steel mesh, and the suction plate 422 adsorbs the steel mesh. Along the height direction of the mounting frame 1, the first drive component 421 drives the suction plate 422 to move away from the first transfer component 41. Then, the first drive component 421 drives the suction plate 422 to move closer to the conveyor plate 31. When the suction plate 422 is opposite to the conveyor plate 31, along the height direction of the mounting frame 1, the first drive component 421 drives the suction plate 422 to move closer to the heat exchange plate. The suction plate 422 presses the steel mesh onto the heat exchange plate so that the steel mesh and the heat exchange plate overlap and are precisely aligned. Then, the welding machine 5 welds the steel mesh to the heat exchange plate. After the steel mesh and the heat exchange plate are welded, the suction plate 422 releases the steel mesh. The height direction of the mounting frame 1 can be pointed to... Figure 1 The up and down directions in the middle.

[0041] In some specific embodiments, the welding machine 5 is preferably a laser welding machine 5.

[0042] Therefore, after the steel strip is cut into a steel mesh by the cutting mechanism 2, the first transfer component 41 transfers the steel mesh to the outside of the cutting mechanism 2, and the first drive component 421 drives the adsorption plate 422 to sequentially complete the picking, moving, and alignment release operations of the steel mesh, so that the steel mesh is accurately stacked on the surface of the heat exchange plate, and then the welding machine 5 welds the steel mesh to the heat exchange plate. Compared with the prior art, this application can realize the fully automated alignment and assembly of the steel mesh from cutting to welding, avoiding the alignment deviation caused by manual placement of the steel mesh, thereby improving the alignment accuracy and welding accuracy of the steel mesh and the heat exchange plate.

[0043] Reference Figures 4-7 In some embodiments of this application, the adsorption plate 422 is provided with a plurality of connecting holes 4221 and adsorption holes 4222. The plurality of connecting holes 4221 are spaced apart and are opposite to a plurality of welding points of the steel mesh. The welding machine 5 passes through the connecting holes 4221 to weld the steel mesh and the heat spreader. The adsorption holes 4222 are spaced apart from the connecting holes 4221 and are used to adsorb or release the steel mesh.

[0044] It should be noted that the number of connecting holes 4221 needs to be set according to the number of welding points of the steel mesh, and the position of the connecting holes 4221 needs to be set according to the position of the welding points of the steel mesh.

[0045] In some specific embodiments, the welding machine 5 is a laser welding component, and the laser emitted by the welding machine 5 passes through the connecting hole 4221 to weld the steel mesh and the heat exchange plate.

[0046] The adsorption hole 4222 adsorbs the steel mesh when the adsorption plate 422 is close to the steel mesh. After the adsorption plate 422 moves the steel mesh to the heat spreader, the welding machine 5 passes through the connecting hole 4221 to weld the steel mesh and the heat spreader. Thus, the steel mesh can be accurately transported and positioned by the adsorption plate 422 without affecting the welding path, and the welding operation can be completed directly in the adsorption state. This reduces the risk of positional displacement during the transport of the steel mesh and improves the alignment accuracy and welding accuracy between the steel mesh and the heat spreader.

[0047] The first driving assembly 421 includes a first driving member 4211 and a second driving member 4212. The first driving member 4211 is disposed on the mounting frame 1. The first driving member 4211 and the second driving member 4212 are connected and cooperated. The adsorption plate 422 is connected and cooperated with the second driving member 4212. The first driving member 4211 is used to drive the second driving member 4212 to drive the adsorption plate 422 to reciprocate between the first transfer assembly 41 and the conveying plate 31. The second driving member 4212 is used to drive the adsorption plate 422 to move closer to or away from the steel mesh or the heat exchange plate.

[0048] In some specific embodiments, the first driving member 4211 and the second driving member 4212 can both be cylinders, but this application is not limited to this, and the first driving member 4211 and the second driving member 4212 can both be linear slides, etc.

[0049] Reference Figure 1 , Figure 10 and Figure 11 In some embodiments of this application, along the height direction of the mounting frame 1, the first transfer assembly 41 is located below the steel strip. The first transfer assembly 41 includes a third drive member 411, a fourth drive member 412, a connecting plate 413, and a receiving tray 414. The third drive member 411 is connected and cooperates with the connecting plate 413. The receiving tray 414 is slidably disposed on the connecting plate 413. The receiving tray 414 is opposite to the bottom wall of the steel strip and is adapted to abut against the steel strip. The receiving tray 414 is used to place steel mesh. The third drive member 411 is used to drive the connecting plate 413 to rotate around the pivot axis of the third drive member 411, so that the connecting plate 413 drives the receiving tray 414 to rotate closer to or away from the cutting mechanism 2. The fourth drive member 412 is adapted to be opposite to and abut against the receiving tray 414. The fourth drive member 412 is used to drive the receiving tray 414 to move closer to the steel strip.

[0050] In some specific embodiments, the third driving member 411 is preferably a rotary cylinder, and the fourth driving member 412 is preferably a cylinder.

[0051] The fourth driving component 412 drives the receiving tray 414 to move closer to the steel strip. The receiving tray 414 abuts against the bottom wall of the steel strip. After the steel strip is cut to form a steel mesh, the steel mesh falls onto the receiving tray 414. The third driving component 411 drives the connecting plate 413 to rotate around the pivot axis of the third driving component 411. The connecting plate 413 drives the receiving tray 414 to move away from the cutting mechanism 2, so as to transfer the steel mesh to the outside of the cutting mechanism 2. Thus, the second transfer mechanism 4 can transfer the steel mesh of the first transfer mechanism 4 to the heat equalization plate.

[0052] After the cutting is completed, the steel mesh is received by the receiving tray 414. The third driving component 411 drives the steel mesh to be transferred to the outside of the cutting mechanism 2 so that the steel mesh is aligned with the adsorption tray 422. This ensures that the steel mesh is stably positioned after cutting and is automatically transferred to the alignment area, improving the continuity and accuracy of steel mesh transmission, reducing alignment errors caused by manual intervention, and thus improving the alignment accuracy of the steel mesh and the heat spreader before welding and the overall process efficiency.

[0053] Reference Figure 1 , Figure 8 and Figure 9 In some embodiments of this application, the cutting mechanism 2 includes a cutting machine 21, a feeding assembly 22, and a forming assembly 23. The mounting frame 1 is provided with a cutting table 11, which is provided with a discharge hole 111. The discharge hole 111 is a through hole. Along the height direction of the mounting frame 1, the cutting table 11 is located below the steel strip. The first transfer assembly 41 is opposite to the discharge hole 111. Specifically, the receiving tray 414 is opposite to the discharge hole. The feeding assembly 22 is used to convey the steel strip to the cutting table 11.

[0054] Furthermore, the forming assembly 23 is located above the steel strip. The forming assembly 23 includes a fifth driving member 231, a clamping member 232, and a forming member 233. The forming member 233 is adapted to be opposite to the feeding hole 111 and adapted to be placed on the top wall of the steel strip. The fifth driving member 231 is connected and cooperates with the clamping member 232. The fifth driving member 231 is used to drive the clamping member 232 to move the forming member 233 closer to or away from the top wall of the steel strip. The clamping member 232 is used to clamp or release the forming member 233. The cutting machine 21 is used to cut the steel mesh on the steel strip according to the shape of the forming member 233.

[0055] In some specific embodiments, the fifth driving component 231 is preferably a cylinder, and the cutting machine 21 is preferably a laser cutting machine 21.

[0056] It should be noted that the cutting machine 21 has a built-in forming part 233, and the cutting machine 21 emits a laser to the steel strip according to the shape of the forming part 233.

[0057] The fifth driving component 231 drives the clamping component 232 to move the forming component 233 closer to the steel strip. When the forming component 233 comes into contact with the steel strip, the clamping component 232 releases the forming component 233. Then, the cutting machine 21 cuts the steel mesh on the steel strip according to the shape of the forming component 233. The cut steel mesh falls into the receiving tray 414 through the discharge hole 111. After the steel mesh is cut, the clamping component 232 clamps the forming component 233. The fifth driving component 231 drives the forming component 233 away from the steel strip. The feeding component 22 conveys the uncut steel strip to the cutting table 11.

[0058] The fifth driving component 231 drives the forming component 233 to achieve the forming and positioning of the steel strip. After the clamping component 232 releases the forming component 233, the cutting machine 21 completes the cutting of the steel mesh. The cut steel mesh falls into the receiving tray 414 through the discharge hole 111. After the steel mesh is cut, the clamping component 232 re-clamps the forming component 233 and drives the forming component 233 away from the steel strip. At the same time, the feeding component 22 continues to convey the steel strip. Thus, multiple mechanisms can cooperate in the forming, cutting, discharge and feeding process, improve the automation level and cycle stability of the steel mesh forming process, and reduce the accuracy error caused by manual positioning operation.

[0059] Reference Figure 9 In some embodiments of this application, the clamping member 232 includes a driving part 2321, a first clamping arm 2322 and a second clamping arm 2323. The driving part 2321 is connected and cooperates with the fifth driving member 231. The first clamping arm 2322 and the second clamping arm 2323 are both connected and cooperate with the driving part 2321. The driving part 2321 is used to drive the first clamping arm 2322 and the second clamping arm 2323 to move towards or away from each other, so that the first clamping arm 2322 and the second clamping arm 2323 clamp or release the forming member 233.

[0060] In some specific embodiments, the drive unit 2321 is preferably the cylinder portion of the thumb cylinder.

[0061] When the drive unit 2321 drives the first clamping arm 2322 and the second clamping arm 2323 to move toward each other, the first clamping arm 2322 and the second clamping arm 2323 clamp the forming member 233 so that the forming member 233 moves closer to or away from the steel strip with the clamping member 232. When the drive unit 2321 drives the first clamping arm 2322 and the second clamping arm 2323 to move in opposite directions, the first clamping arm 2322 and the second clamping arm 2323 release the forming member 233 so that the forming member 233 presses the steel strip onto the cutting table 11.

[0062] The first clamping arm 2322 and the second clamping arm 2323, under the action of the driving part 2321, clamp and release the forming part 233, thereby driving the forming part 233 to complete the positioning and pressing of the steel strip, so that the steel strip is stably attached to the cutting table 11 during the cutting process, thereby ensuring that the steel strip does not shift or warp during the cutting process, and improving the cutting accuracy and the consistency of the steel mesh forming.

[0063] Reference Figure 8 and Figure 9 In some embodiments of this application, the cutting mechanism 2 further includes a first clamping component 24 and a second clamping component 25. Along the first direction of the mounting frame 1, the first clamping component 24 and the second clamping component 25 are spaced apart. Along the height direction of the mounting frame 1, both the first clamping component 24 and the second clamping component 25 are located above the cutting table 11. One of the first clamping component 24 and the second clamping component 25 is opposite to one end of the cutting table 11, and the other of the first clamping component 24 and the second clamping component 25 is opposite to the other end of the cutting table 11. The forming member 233 is located between the first clamping component 24 and the second clamping component 25. The first direction of the mounting frame 1 is... Figure 1 The front and back directions in the middle.

[0064] Both the first clamping assembly 24 and the second clamping assembly 25 include a sixth driving member 251 and a pressure plate 252. The pressure plate 252 is opposite to the top wall of the steel strip. The sixth driving member 251 cooperates with the pressure plate 252 connecting plate 413. The sixth driving member 251 is used to drive the pressure plate 252 to move closer to or away from the steel strip. The pressure plate 252 is used to press the steel strip onto the cutting table 11.

[0065] In some specific embodiments, the sixth drive element 251 is preferably a cylinder.

[0066] The sixth driving component 251 drives the pressure plate 252 to move closer to the top wall of the steel strip. The pressure plate 252 presses the steel strip onto the cutting table 11 to restrict the movement of the steel strip during the cutting process. The first pressing component 24 and the second pressing component 25 are respectively set at both ends of the cutting table 11, and apply pressing force simultaneously in the front and back directions of the steel strip to form a stable pressing area to help the steel strip maintain a flat and taut state. After the steel mesh is cut, the sixth driving component 251 drives the pressure plate 252 to move away from the steel strip.

[0067] The first clamping component 24 and the second clamping component 25 apply clamping force to the front and rear ends of the steel strip. The sixth driving component 251 drives the pressure plate 252 to press the steel strip onto the cutting table 11 to form a stable support area. This ensures that the tension of the steel strip is stable during the cutting process, prevents the steel strip from shifting or warping, and improves the cutting accuracy and structural consistency of the steel mesh.

[0068] Reference Figure 8In some embodiments of this application, the feeding assembly 22 includes a feeding roller 221, a receiving roller 222, and a seventh drive member 223. The feeding roller 221 and the receiving roller 222 are both pivotally mounted on the mounting frame 1. The cutting table 11 is located between the feeding roller 221 and the receiving roller 222. The feeding roller 221 is used to feed the steel strip to the receiving roller 222. The steel strip passes between the forming member 233 and the cutting table 11. The seventh drive member 223 is provided on the mounting frame 1 and is connected and cooperated with the receiving roller 222. The seventh drive member 223 is used to drive the receiving roller 222 to rotate, so that the receiving roller 222 drives the feeding roller 221 to feed the steel strip.

[0069] In some specific embodiments, the seventh drive element 223 is preferably a motor.

[0070] In some specific embodiments, the seventh drive member 223 can be directly connected and cooperated with the receiving roller 222, and the seventh drive member 223 directly drives the receiving roller 222 to rotate.

[0071] In some other specific embodiments, the seventh drive unit 223 can be connected to the take-up roller 222 via a belt.

[0072] The seventh driving component 223 drives the take-up roller 222 to rotate. During the rotation, the take-up roller 222 drives the feeding roller 221 to rotate synchronously through the traction steel belt, so that the feeding roller 221 conveys the uncut steel belt to the cutting table 11. The steel belt passes through the channel between the forming component 233 and the cutting table 11 in sequence. The take-up roller 222 winds up the cut steel belt, thereby achieving the technical effect of continuous steel belt feeding.

[0073] The seventh drive component 223 drives the take-up roller 222 to pull the steel strip and drive the feed roller 221 to synchronously transport the steel strip to the cutting table 11. The steel strip is cut between the forming component 233 and the cutting table 11. The cut part of the steel strip is continued to be wound up by the take-up roller 222, so as to realize the continuous feeding and orderly recycling of the steel strip in the entire processing process, avoiding the interruption of the cycle and the positioning deviation caused by manual segment feeding, thereby improving the steel mesh processing efficiency and feeding stability.

[0074] Reference Figure 1 , Figure 2 and Figure 12In some embodiments of this application, the cutting and welding processing equipment 100 may further include: a feeding mechanism 6, which is disposed on the mounting frame 1 and located outside the conveyor plate 31. Along the rotation direction of the conveyor plate 31, the feeding mechanism 6 is located upstream of the welding machine 5. The feeding mechanism 6 includes a second drive assembly 61, a first suction head 62, and a lifting assembly 63. The second drive assembly 61 is connected to the first suction head 62. The first suction head 62 is used to pick up or release the heat spreader plate. The second drive assembly 61 is used to drive the first suction head 62 to move closer to or away from the conveyor plate 31. The lifting assembly 63 includes an eighth drive member 631 and a lifting member 632. The lifting member 632 is slidably disposed on the mounting frame 1. The heat spreader plate is adapted to be placed on the lifting member 632. The eighth drive member 631 is connected and cooperates with the lifting member 632. The eighth drive member 631 is used to drive the lifting member 632 to move closer to or away from the first suction head 62.

[0075] In some specific embodiments, the eighth drive element 631 is preferably a cylinder.

[0076] In some specific embodiments, the second drive assembly 61 includes a twelfth drive member 611, a thirteenth drive member 612, and a fourteenth drive member 613. The twelfth drive member 611 is disposed on the mounting frame 1. The thirteenth drive member 612 is connected to the twelfth drive member 611. The fourteenth drive member 613 is connected to the first suction head 62. The twelfth drive member 611 drives the first suction head 62 to move along a first direction of the mounting frame 1, so that the first suction head 62 reciprocates between the lifting member 632 and the conveyor tray 31. The thirteenth drive member 612 drives the first suction head 62 to move along a second direction of the mounting frame 1, so that the first suction head 62 is precisely aligned with the lifting member 632. The fourteenth drive member 613 drives the first suction head 62 to move closer to or away from the lifting member 632, and closer to or away from the conveyor tray 31. The second direction of the mounting frame 1 can refer to... Figure 1 The left and right directions in the middle.

[0077] In some specific embodiments, the twelfth drive member 611, the thirteenth drive member 612 and the fourteenth drive member 613 can all be cylinders or hydraulic cylinders, but this application is not limited to this, the twelfth drive member 611, the thirteenth drive member 612 and the fourteenth drive member 613 can all be linear slides, etc.

[0078] Specifically, the operator places the heat spreader plate on the lifting member 632. The eighth driving member 631 drives the lifting member 632 to move closer to the first suction head 62. When the lifting member 632 moves to a preset position, the eighth driving member 631 stops driving the lifting member 632 to move. The second driving component 61 drives the first suction head 62 to move closer to the lifting member 632. The first suction head 62 adsorbs the heat spreader plate located on the lifting member 632. Then, the second driving component 61 drives the first suction head 62 to move away from the lifting member 632 and to move closer to the conveyor plate 31. When the first suction head 62 is opposite to the preset heat spreader plate placement position on the conveyor plate 31, the second driving component 61 drives the first suction head 62 to move closer to the conveyor plate 31. The first suction head 62 places the heat spreader plate at the preset heat spreader plate placement position on the conveyor plate 31.

[0079] Furthermore, after the heat spreader is placed on the conveyor plate 31, the conveyor plate 31 is driven to rotate toward the welding machine 5. When the heat spreader is opposite to the welding machine 5, the conveyor plate 31 stops rotating.

[0080] The eighth driving component 631 drives the lifting component 632 to transport the heat exchange plate to the first suction head 62. The second driving component 61 drives the first suction head 62 to complete the suction, handling and precise release of the heat exchange plate, so that the heat exchange plate is accurately placed in the preset heat exchange plate placement position on the conveyor plate 31. This enables automatic picking and placing and precise alignment of the heat exchange plate, reduces positional deviation and operational instability caused by manual placement, and improves the alignment efficiency and automated feeding accuracy before steel mesh welding.

[0081] Reference Figure 1 and Figure 3 In some embodiments of this application, the cutting and welding processing equipment 100 may further include: a feeding mechanism 7, which is disposed on the mounting frame 1 and located outside the conveyor plate 31. Along the rotation direction of the conveyor plate 31, the feeding mechanism 7 is located downstream of the welding machine 5. After the steel mesh is welded, the conveyor plate 31 is driven to rotate the steel mesh toward the feeding mechanism 7. The feeding mechanism 7 is used to remove the welded uniform plate from the conveyor plate 31.

[0082] The feeding mechanism 7 includes a ninth driving member 71, a tenth driving member 72, an eleventh driving member 73, and a second suction head 74. The tenth driving member 72 is connected and cooperates with both the ninth driving member 71 and the eleventh driving member 73. The second suction head 74 is connected and cooperates with the eleventh driving member 73. The ninth driving member 71 is used to drive the second suction head 74 to move closer to or away from the conveyor plate 31 along the second direction of the mounting frame 1. The tenth driving member 72 is used to drive the second suction head 74 to move along the first direction of the mounting frame 1. The eleventh driving member 73 is used to drive the second suction head 74 to move closer to or away from the conveyor plate 31 along the height direction of the mounting frame 1. The second suction head 74 is used to pick up or release the welded heat spreader plate.

[0083] In some specific embodiments, the ninth drive member 71, the tenth drive member 72, and the eleventh drive member 73 can all be cylinders or hydraulic cylinders, but this application is not limited to this, and the ninth drive member 71, the tenth drive member 72, and the eleventh drive member 73 can all be linear slides, etc.

[0084] The ninth driving component 71 drives the second suction head 74 to move closer to the conveyor plate 31 along the second direction of the mounting frame 1. The eleventh driving component 73 drives the second suction head 74 to descend along the height direction of the mounting frame 1 to above the welded heat spreader plate. After the second suction head 74 adsorbs the heat spreader plate, the eleventh driving component 73 drives the second suction head 74 to rise away from the conveyor plate 31. The ninth driving component 71 drives the second suction head 74 to move away from the conveyor plate 31 along the second direction of the mounting frame 1. The tenth driving component 72 drives the second suction head 74 to move along the first direction of the mounting frame 1 to the preset storage area of ​​the heat spreader plate. The eleventh driving component 73 drives the second suction head 74 to move closer to the preset storage area of ​​the heat spreader plate, and the second suction head 74 releases the heat spreader plate.

[0085] The ninth drive unit 71, the tenth drive unit 72 and the eleventh drive unit 73 work together to drive the second suction head 74 to complete the picking, lifting, lateral movement and release operations of the welded heat spreader plate, so that the heat spreader plate is automatically transferred from the conveyor plate 31 to the preset storage area. This enables the automatic unloading and orderly stacking of finished heat spreader plates, avoids the cycle delay and position deviation caused by manual handling, and improves the post-weld processing efficiency of the whole machine and the automation level of the production line.

[0086] Reference Figure 4 and Figure 5 In some embodiments of this application, the conveyor plate 31 is provided with a plurality of spaced positioning members 311, and a receiving gap 312 is defined between the plurality of positioning members 311. The heat equalization plate is adapted to be placed in the receiving gap 312 and positioned and engaged with the positioning members 311.

[0087] The temperature distribution plate is placed in the receiving gap 312 and cooperates with multiple positioning elements 311 to achieve limiting positioning. The positioning elements 311 improve the positional stability of the temperature distribution plate on the conveyor plate 31 by contacting and constraining the edge or positioning hole of the temperature distribution plate, thereby ensuring that the temperature distribution plate is always in the set position during the rotation of the conveyor plate 31.

[0088] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A cutting and welding processing equipment for a heat spreader plate, characterized in that, include: Mounting bracket (1); A cutting mechanism (2) is provided on the mounting frame (1) and is used to cut steel strip into steel mesh; A conveying mechanism (3) is provided on the mounting frame (1). The conveying mechanism (3) includes a conveying plate (31), and a temperature equalization plate is adapted to be fixed on the conveying plate (31). When the conveying plate (31) is driven, it rotates around the central axis of the conveying plate (31). A transfer mechanism (4) is provided on the mounting frame (1) and located outside the conveyor tray (31). The transfer mechanism (4) includes a first transfer component (41) and a second transfer component (42). The first transfer component (41) is opposite to the steel strip. The steel mesh is adapted to be placed on the first transfer component (41). The first transfer component (41) is used to transfer the steel mesh to the outside of the cutting mechanism (2). The second transfer component (42) includes a first drive component (421) and an adsorption tray. (422), the first driving component (421) is connected and cooperates with the adsorption disk (422), the adsorption disk (422) is opposite to the first transfer component (41) or the conveying disk (31), the first driving component (421) is used to drive the adsorption disk (422) to reciprocate between the first transfer component (41) and the conveying disk (31), and is also used to drive the adsorption disk (422) to move closer to or away from the steel mesh or the heat exchange plate, the adsorption disk (422) is used to adsorb or release the steel mesh; A welding machine (5) is provided on the mounting frame (1) and is adapted to be opposite to both the adsorption plate (422) and the temperature equalization plate. The welding machine (5) is used to weld the steel mesh and the temperature equalization plate. The adsorption plate (422) is provided with a plurality of connecting holes (4221) and adsorption holes (4222). The plurality of connecting holes (4221) are spaced apart and are opposite to a plurality of welding points of the steel mesh. The welding machine (5) passes through the connecting holes (4221) to weld the steel mesh and the heat spreader. The adsorption holes (4222) are spaced apart from the connecting holes (4221) and are used to adsorb or release the steel mesh.

2. The cutting and welding processing equipment for a heat spreader according to claim 1, characterized in that, The first driving assembly (421) includes a first driving member (4211) and a second driving member (4212). The first driving member (4211) is disposed on the mounting frame (1). The first driving member (4211) and the second driving member (4212) are connected and cooperated. The adsorption disk (422) is connected and cooperated with the second driving member (4212). The first driving member (4211) is used to drive the adsorption disk (422) to reciprocate between the first transfer assembly (41) and the conveying disk (31). The second driving member (4212) is used to drive the adsorption disk (422) to move closer to or away from the steel mesh or the heat exchange plate.

3. The cutting and welding processing equipment for a heat spreader according to claim 1, characterized in that, The first transfer assembly (41) includes a third drive member (411), a fourth drive member (412), a connecting plate (413), and a receiving tray (414). The third drive member (411) is connected and cooperates with the connecting plate (413). The receiving tray (414) is slidably disposed on the connecting plate (413). The receiving tray (414) is opposite to the bottom wall of the steel strip and is adapted to abut against the steel strip. The receiving tray (414) is used to place the steel mesh. The third drive member (411) is used to drive the connecting plate (413) to rotate around the pivot axis of the third drive member (411) so that the connecting plate (413) drives the receiving tray (414) to rotate closer to or away from the cutting mechanism (2). The fourth drive member (412) is adapted to be opposite to the receiving tray (414) and abut against it. The fourth drive member (412) is used to drive the receiving tray (414) to move closer to the steel strip.

4. The cutting and welding processing equipment for a heat spreader according to claim 1, characterized in that, The cutting mechanism (2) includes a cutting machine (21), a feeding assembly (22), and a forming assembly (23). The mounting frame (1) is provided with a cutting table (11), which has a discharge hole (111). The first transfer assembly (41) is opposite to the discharge hole (111). The feeding assembly (22) is used to feed steel strip to the cutting table (11). The forming assembly (23) includes a fifth driving member (231), a clamping member (232), and a forming member (233). The forming member (233) is... 33) Suitable to be opposite to the feed hole (111) and suitable to be placed on the top wall of the steel strip. The fifth driving member (231) is connected and cooperated with the clamping member (232). The fifth driving member (231) is used to drive the clamping member (232) to move the forming member (233) closer to or away from the top wall of the steel strip. The clamping member (232) is used to clamp or release the forming member (233). The cutting machine (21) is used to cut the steel mesh on the steel strip according to the shape of the forming member (233).

5. The cutting and welding processing equipment for a heat spreader according to claim 4, characterized in that, The clamping member (232) includes a driving part (2321), a first clamping arm (2322), and a second clamping arm (2323). The driving part (2321) is connected and cooperates with the fifth driving member (231). The first clamping arm (2322) and the second clamping arm (2323) are both connected and cooperate with the driving part (2321). The driving part (2321) is used to drive the first clamping arm (2322) and the second clamping arm (2323) to move in opposite directions or in the opposite direction, so that the first clamping arm (2322) and the second clamping arm (2323) clamp or release the forming member (233).

6. The cutting and welding processing equipment for a heat spreader according to claim 4, characterized in that, The cutting mechanism (2) further includes a first pressing component (24) and a second pressing component (25). Along the first direction of the mounting frame (1), the first pressing component (24) and the second pressing component (25) are spaced apart. The forming member (233) is located between the first pressing component (24) and the second pressing component (25). Both the first pressing component (24) and the second pressing component (25) include a sixth driving member (251) and a pressure plate (252). The pressure plate (252) is opposite to the top wall of the steel strip. The sixth driving member (251) cooperates with the pressure plate (252) connecting plate (413). The sixth driving member (251) is used to drive the pressure plate (252) to move closer to or away from the steel strip. The pressure plate (252) is used to press the steel strip onto the cutting table (11).

7. The cutting and welding processing equipment for a heat spreader according to claim 4, characterized in that, The feeding assembly (22) includes a feeding roller (221), a receiving roller (222), and a seventh drive (223). The feeding roller (221) and the receiving roller (222) are both pivotally mounted on the mounting frame (1). The cutting table (11) is located between the feeding roller (221) and the receiving roller (222). The feeding roller (221) is used to feed the steel strip to the receiving roller (222). The steel strip passes between the forming member (233) and the cutting table (11). The seventh drive (223) is located on the mounting frame (1) and is connected and cooperates with the receiving roller (222). The seventh drive (223) is used to drive the receiving roller (222) to rotate so that the receiving roller (222) drives the feeding roller (221) to feed the steel strip.

8. The cutting and welding processing equipment for a heat spreader according to claim 1, characterized in that, Also includes: The feeding mechanism (6) is located on the mounting frame (1) and outside the conveyor plate (31). The feeding mechanism (6) includes a second drive assembly (61), a first suction head (62), and a lifting assembly (63). The second drive assembly (61) is connected to the first suction head (62) in a transmission manner. The first suction head (62) is used to pick up or release the heat exchange plate. The second drive assembly (61) is used to drive the first suction head (62) to move closer to or away from the conveyor plate (31). The lifting assembly (63) includes an eighth drive member (631) and a lifting member (632). The lifting member (632) is slidably disposed on the mounting frame (1). The heat exchange plate is adapted to be placed on the lifting member (632). The eighth drive member (631) is connected and cooperates with the lifting member (632). The eighth drive member (631) is used to drive the lifting member (632) to move closer to or away from the first suction head (62).

9. The cutting and welding processing equipment for a heat spreader according to claim 1, characterized in that, Also includes: The feeding mechanism (7) is located on the mounting frame (1) and outside the conveyor plate (31). The feeding mechanism (7) includes a ninth driving member (71), a tenth driving member (72), an eleventh driving member (73), and a second suction head (74). The tenth driving member (72) is connected to both the ninth driving member (71) and the eleventh driving member (73). The second suction head (74) is connected to the eleventh driving member (73). The ninth driving member (71) is used to drive the second suction head (74) to move closer to or away from the conveyor plate (31) along the second direction of the mounting frame (1). The tenth driving member (72) is used to drive the second suction head (74) to move along the first direction of the mounting frame (1). The eleventh driving member (73) is used to drive the second suction head (74) to move closer to or away from the conveyor plate (31) along the height direction of the mounting frame (1). The second suction head (74) is used to pick up or release the heat exchange plate that has been welded.

10. The cutting and welding processing equipment for a heat spreader according to claim 1, characterized in that, The conveyor plate (31) is provided with a plurality of spaced positioning elements (311), and a receiving gap (312) is defined between the plurality of positioning elements (311). The temperature equalization plate is adapted to be placed in the receiving gap (312) and positioned and engaged with the positioning elements (311).

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