Machining equipment and machining method for nickel-plated copper heat dissipation bottom plate

Abstract

The invention relates to the technical field of heat dissipation bottom plate machining, in particular to nickel-plated copper heat dissipation bottom plate machining equipment and a using method. The machining equipment for the nickel-plated copper heat dissipation bottom plate comprises a transferring assembly used for transferring the nickel-plated copper heat dissipation bottom plate and a transverse cutting assembly used for transversely cutting the nickel-plated copper heat dissipation bottom plate. The overturning assembly is used for overturning the nickel-plated copper heat dissipation bottom plate cut by the transverse cutting assembly; the longitudinal cutting assembly is used for longitudinally cutting the nickel-plated copper heat dissipation bottom plate overturned by the overturning assembly; according to the machining equipment for the nickel-plated copper heat dissipation bottom plate, transverse and longitudinal two-way cutting of the nickel-plated copper heat dissipation bottom plate is achieved through mutual cooperation of all the assemblies, and therefore it can be guaranteed that the size of the cut nickel-plated copper heat dissipation bottom plate meets the installation requirement; and therefore, the quality of the cut nickel-plated copper heat dissipation bottom plate is ensured.

Description

Technical Field

[0001] The invention relates to the technical field of heat dissipation base plate processing, in particular to copper nickel-plated heat dissipation base plate processing equipment and a processing method thereof. Background Art

[0002] The copper-nickel-plated heat sink is made of copper heat sink with a layer of nickel metal evenly coated on its surface through electroplating process. The copper-nickel-plated heat sink combines the advantages of copper and nickel. Copper has excellent thermal conductivity and can quickly transfer heat from the heat source to the surface of the heat sink. Nickel is known for its good corrosion resistance and oxidation resistance, which can improve the service life of the heat sink to a certain extent. The smooth surface of the nickel layer helps to reduce the contact thermal resistance between the heat source and the heat source, thereby improving the heat conduction efficiency. In order to better meet the installation requirements of the copper-nickel-plated heat sink, when processing the copper-nickel-plated heat sink, it is necessary to perform corresponding cutting operations on the copper-nickel-plated heat sink; In the prior art, during the cutting process, the copper-nickel-plated heat sink is usually cut once. This cutting method cannot ensure that the size of the copper-nickel-plated heat sink meets the installation requirements. At the same time, the cutting method of the copper-nickel-plated heat sink in the prior art is relatively single, so the cutting quality of the entire copper-nickel-plated heat sink cannot be guaranteed. Therefore, it is urgent to redesign a new copper-nickel-plated heat dissipation base plate processing equipment to solve the above problems. Summary of the invention

[0003] The present invention provides a copper-nickel-plated heat dissipation base plate processing device and a use method to solve the technical problems raised in the above background technology.

[0004] The invention provides a copper-nickel-plated heat sink processing device, which comprises a transport component for transporting the copper-nickel-plated heat sink, a transverse cutting component for transversely cutting the copper-nickel-plated heat sink, a flipping component for flipping the copper-nickel-plated heat sink after being cut by the transverse cutting component, a longitudinal cutting component for longitudinally cutting the copper-nickel-plated heat sink after being flipped by the flipping component, and a calibration component for calibrating the copper-nickel-plated heat sink after being cut by the longitudinal cutting component. The transverse cutting component is installed on one side of the transport component, and the transverse cutting component comprises a transverse cutting main body, a first transverse cutting support part, a second transverse cutting support part, at least one transverse cutting first lifting cylinder, at least one transverse cutting second lifting cylinder, at least one transverse cutting limiting slide rail, a transverse cutting adjustment seat, a transverse cutting drive motor, a transverse cutting limiting part, a transverse cutting drive shaft, a transverse cutting linkage belt, a transverse cutting wheel, a transverse cutting auxiliary driving part and an auxiliary cutting part; the transverse cutting main body is installed on one side of the transport component, the first transverse cutting support part and the second transverse cutting support part are both installed in the transverse cutting main body, and the transverse cutting first The lifting cylinder is installed on the first transverse cutting support part, the second transverse cutting lifting cylinder is installed on the second transverse cutting support part, one end of the transverse cutting limit slide rail is connected to the output end of the first transverse cutting lifting cylinder, the other end of the transverse cutting limit slide rail is connected to the output end of the second transverse cutting lifting cylinder, the transverse cutting adjustment seat is slidably connected to the transverse cutting limit slide rail, the transverse cutting drive motor is installed on the lower side of the transverse cutting adjustment seat, the transverse cutting limit part is installed on the upper side of the transverse cutting adjustment seat, the transverse cutting drive shaft is rotatably connected in the transverse cutting limit part, and the transverse cutting linkage belt is rotatably connected to the transverse cutting The transverse cutting wheel is installed between the output end of the cutting drive motor and one end of the transverse cutting drive shaft, and the transverse cutting wheel is installed on the other end of the transverse cutting drive shaft; a cutting limit groove for limiting the transverse cutting wheel is opened on the transverse cutting main body; the transverse cutting auxiliary drive component is installed at one end of the transverse cutting limit slide rail, and the output end of the transverse cutting auxiliary drive component is connected to the transverse cutting adjustment seat; the auxiliary cutting component is installed on the upper side of the transverse cutting main body, the flipping assembly is installed on one side of the transverse cutting assembly, the longitudinal cutting assembly is installed on the side of the flipping assembly away from the transverse cutting assembly, and the calibration assembly is installed on the side of the longitudinal cutting assembly away from the flipping assembly.

[0005] Optionally, the transfer component includes a transfer base, multiple transfer support parts, a transfer workbench, a transfer active rotating roller, a transfer driven rotating roller, a transfer belt and a transfer drive; the multiple transfer support parts are installed on the transfer base, the transfer workbench is installed on the end of the transfer support part away from the transfer base, the transfer active rotating roller is rotatably connected to one end of the transfer workbench, the transfer driven rotating roller is rotatably connected to the other end of the transfer workbench, the transfer belt is rotatably connected between the transfer active rotating roller and the transfer driven rotating roller, the transfer drive is installed on the transfer base, and the output end of the transfer drive is connected to one end of the transfer active rotating roller; the transfer drive includes a transfer drive motor and a transfer drive belt, the transfer drive motor is installed on the transfer base, and the transfer drive belt is connected between the output end of the transfer drive motor and one end of the transfer active rotating roller.

[0006] Optionally, the transverse cutting auxiliary drive component includes a transverse cutting auxiliary seat and a transverse cutting drive cylinder. The transverse cutting auxiliary seat is installed on the transverse cutting limit slide rail, the transverse cutting drive cylinder is installed on one side of the transverse cutting auxiliary seat, and the output end of the transverse cutting drive cylinder is connected to one side of the transverse cutting adjustment seat.

[0007] Optionally, the auxiliary cutting part includes an auxiliary cutting clamping block and an auxiliary cutting adjusting cylinder, the auxiliary cutting clamping block is arranged on the transverse cutting main body, the auxiliary cutting adjusting cylinder is installed in the transverse cutting main body, and the output end of the auxiliary cutting adjusting cylinder is connected to the auxiliary cutting clamping block.

[0008] Optionally, the flipping assembly includes a flipping bracket, a flipping feed piece, a flipping rotating shaft, a flipping motor, a flipping reducer, a first flipping clamp and a second flipping clamp; the flipping bracket is installed on one side of the transverse cutting assembly, the flipping feed piece is installed on the flipping bracket, the flipping rotating shaft is rotatably connected to the flipping bracket, the flipping motor and the flipping reducer are both installed on one side of the flipping bracket, and the output end of the flipping motor is connected to the flipping reducer, and the output end of the flipping reducer is connected to one end of the flipping rotating shaft, the first flipping clamp and the second flipping clamp are sequentially installed on the flip rotating shaft; the second flip clamp has the same structure as the first flip clamp.

[0009] Optionally, the first flip clamp includes a flip disk, a flip first support rod, a flip second support rod, a flip first limit rod, a flip first clamping rod, a flip first driving cylinder, a flip second limit rod, a flip second clamping rod and a flip second driving cylinder; the flip disk is installed on the flip rotating shaft, the flip first support rod and the flip second support rod are both fixedly connected to the side wall of the flip disk, the flip first limit rod is connected to the side wall of the flip first support rod, the flip first clamping rod is slidably connected to the side wall of the flip first support rod, the flip first driving cylinder is installed on the outside of the flip first support rod, and the output end of the flip first driving cylinder is connected to the flip first clamping rod; the flip second limit rod is connected to the side wall of the flip second support rod, the flip second clamping rod is slidably connected to the side wall of the flip second support rod, the flip second driving cylinder is installed on the outside of the flip second support rod, and the output end of the flip second driving cylinder is connected to the flip second clamping rod.

[0010] Optionally, the flipping feeding member includes a first feed support, a second feed support, a feed driving shaft, a feed driving gear, a feed drive motor, a feed driving chain, a first feed driven gear, a first feed chain, a second feed driven gear and a second feed chain; the first feed support and the second feed support are both installed on the flipping bracket, the feed driving shaft is rotatably connected between the first feed support and the second feed support, the feed driving gear is installed on the feed driving shaft, the feed drive motor is installed in the flipping bracket, and the feed driving chain is installed between the output end of the feed drive motor and the feed driving gear, the first feed driven gear is rotatably connected in the first feed support, the first feed chain is installed between one end of the feed driving shaft extending into the first feed support and the first feed driven gear, the second feed driven gear is rotatably connected in the second feed support, and the second feed chain is installed between one end of the feed driving shaft extending into the second feed support and the second feed driven gear.

[0011] Optionally, the longitudinal cutting assembly includes a longitudinal cutting main body, multiple longitudinal cutting pressing parts, a longitudinal cutting moving part, a longitudinal cutting workbench, a longitudinal cutting adjustment motor, a longitudinal cutting adjustment screw, a longitudinal cutting sliding seat, a longitudinal cutting connecting part, a longitudinal cutting motor, a longitudinal cutting wheel, a longitudinal cutting support rod and a longitudinal cutting laser calibrator; the longitudinal cutting main body is installed on one side of the flipping assembly, multiple longitudinal cutting pressing parts are arranged on the upper side of the longitudinal cutting main body, the longitudinal cutting moving part is arranged on one side of the longitudinal cutting main body, the longitudinal cutting workbench is installed on the longitudinal cutting moving part, the longitudinal cutting adjustment motor is installed on one side of the longitudinal cutting workbench, the longitudinal cutting adjustment screw is rotatably connected to the longitudinal cutting workbench, and one end of the longitudinal cutting adjustment screw is connected to the longitudinal cutting workbench. The output end of the longitudinal cutting adjustment motor is connected, the longitudinal cutting sliding seat is threadedly connected to the longitudinal cutting adjustment screw, the longitudinal cutting connecting part is installed on the longitudinal cutting sliding seat, the longitudinal cutting motor is installed at the end of the longitudinal cutting connecting part away from the longitudinal cutting sliding seat, and the longitudinal cutting wheel is connected to the output end of the longitudinal cutting motor, one end of the longitudinal cutting support rod is connected to the side wall of the longitudinal cutting connecting part, and the other end of the longitudinal cutting support rod is connected to the longitudinal cutting laser calibrator; the longitudinal cutting clamping part includes a clamping support part, a clamping screw, a clamping abutting part and a clamping adjustment part, the clamping support part is installed on the longitudinal cutting main body, the clamping screw is threadedly connected to the end of the clamping support part, the clamping abutting part is installed at the lower end of the clamping screw, and the clamping adjustment part is installed at the upper end of the clamping screw.

[0012] Optionally, the calibration assembly includes a calibration base, multiple calibration limit rods, multiple transverse limit plates, multiple transverse calibration parts and a longitudinal calibration part; the calibration base is installed on one side of the longitudinal cutting assembly, multiple calibration limit rods and transverse limit plates are installed on the calibration base, and the transverse calibration parts and the longitudinal calibration parts are installed on the calibration base; the transverse calibration part includes a transverse calibration cylinder and a transverse calibration push plate, the transverse calibration cylinder is installed on the calibration base, and the transverse calibration push plate is connected to the output end of the transverse calibration cylinder; the longitudinal calibration part includes a longitudinal calibration cylinder and a longitudinal calibration push plate, the longitudinal calibration cylinder is installed on the calibration base, the longitudinal calibration push plate is connected to the output end of the longitudinal calibration cylinder, and the longitudinal calibration push plate faces the calibration limit rod.

[0013] Optionally, the present invention also discloses a processing method for a copper-nickel-plated heat sink processing equipment, comprising the following steps: S1, material transfer, placing the copper-nickel-plated heat sink to be cut on a transfer component, and the transfer component drives the copper-nickel-plated heat sink to be cut to transfer; S2, material transverse cutting, when the copper-nickel-plated heat sink to be cut on the transfer component passes through the transverse cutting component, the transverse cutting component performs a transverse cutting action on the copper-nickel-plated heat sink; S3, material flipping, the copper-nickel-plated heat sink after the transverse cutting action of the transverse cutting component enters the flipping component, and the flipping component flips the copper-nickel-plated heat sink; S4, material longitudinal cutting, the copper-nickel-plated heat sink after the flipping component flips enters the longitudinal cutting component, and the longitudinal cutting component performs a longitudinal cutting action on the copper-nickel-plated heat sink; S5, material calibration, the copper-nickel-plated heat sink after the longitudinal cutting action of the longitudinal cutting component enters the calibration component, and the calibration component performs a calibration action on the copper-nickel-plated heat sink.

[0014] The beneficial effects of the present invention are as follows: The copper-plated nickel heat sink processing equipment comprises a transfer component for transferring the copper-plated nickel heat sink, a transverse cutting component for performing transverse cutting on the copper-plated nickel heat sink, a flipping component for flipping the copper-plated nickel heat sink after being cut by the transverse cutting component, a longitudinal cutting component for performing longitudinal cutting on the copper-plated nickel heat sink after being flipped by the flipping component, and a calibration component for calibrating the copper-plated nickel heat sink after being cut by the longitudinal cutting component, wherein the transverse cutting component is installed on one side of the transfer component, the flipping component is installed on one side of the transverse cutting component, the longitudinal cutting component is installed on a side of the flipping component away from the transverse cutting component, and the calibration component is installed on a side of the longitudinal cutting component away from the flipping component, wherein the copper-plated nickel heat sink processing equipment of the present invention realizes transverse and longitudinal bidirectional cutting of the copper-plated nickel heat sink through the mutual cooperation of various components, thereby ensuring that the size of the copper-plated nickel heat sink after cutting meets the installation requirements, and at the same time, multiple components cooperate with each other for processing, thereby ensuring the quality of the copper-plated nickel heat sink after cutting. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0016] Figure 1 It is a schematic diagram of the process of the copper nickel-plated heat dissipation base plate processing equipment provided by the present invention; Figure 2It is a structural schematic diagram of a transfer assembly of a copper-nickel-plated heat dissipation base plate processing device provided by the present invention; Figure 3 It is a structural schematic diagram of a transverse cutting assembly of a copper-nickel-plated heat dissipation base plate processing device provided by the present invention from a first perspective; Figure 4 It is a structural schematic diagram of a second viewing angle of a transverse cutting assembly of a copper-nickel-plated heat dissipation base plate processing device provided by the present invention; Figure 5 It is a structural schematic diagram of the transverse cutting assembly of the copper-nickel-plated heat dissipation base plate processing equipment provided by the present invention from a third perspective; Figure 6 yes Figure 5 A partial enlarged view of the middle A area; Figure 7 It is a structural schematic diagram of the first perspective of the flip assembly of the copper-nickel-plated heat dissipation bottom plate processing equipment provided by the present invention; Figure 8 It is a structural schematic diagram of a second viewing angle of a flip assembly of a copper-nickel-plated heat dissipation bottom plate processing device provided by the present invention; Fig. 9 yes Figure 8 A partial enlarged view of the middle B area; Fig.10 It is a structural schematic diagram of a longitudinal cutting assembly of a copper-nickel-plated heat dissipation base plate processing device provided by the present invention from a first perspective; Fig.11 yes Fig.10 A partial enlarged view of the middle C area; Fig.12 It is a structural schematic diagram of a longitudinal cutting assembly of a copper-nickel-plated heat dissipation base plate processing device provided by the present invention from a second viewing angle; Fig.13 yes Fig.12 A partial enlarged view of the D area in the middle; Fig.14 It is a structural schematic diagram of a calibration component of a copper-nickel-plated heat dissipation base plate processing device provided by the present invention; In the figure: 1000, transfer assembly; 1100, transfer base; 1200, transfer support; 1300, transfer workbench; 1400, transfer active rotating roller; 1500, transfer driven rotating roller; 1600, transfer belt; 1710, transfer drive motor; 1720, transfer drive belt; 2000, transverse cutting assembly; 2010, transverse cutting main body; 2011, cutting limit groove; 2020, first transverse cutting support; 2030, second transverse cutting support; 2040, first transverse cutting lifting cylinder; 2050, second transverse cutting lifting cylinder; 2060, transverse cutting limit slide rail; 2070, transverse cutting adjustment seat; 2080, transverse cutting drive motor; 2090, transverse cutting limit part; 2100, transverse cutting drive shaft; 2110, transverse cutting wheel; 2120, transverse cutting auxiliary drive member; 2121, transverse cutting auxiliary seat; 2122, transverse cutting drive cylinder; 2130, auxiliary cutting member; 2131, auxiliary cutting pressing block; 2132, auxiliary cutting adjustment cylinder; 3000, flip assembly; 3010, flip bracket; 3020, flip feed member; 3021, first feed support; 3022, second feed support; 3023, feed drive shaft; 3024, feed drive gear; 3025, feed drive motor; 3026, feed drive chain; 3027, first feed driven gear; 3028, first feed chain; 3029, second feed driven gear; 3030, second feed chain; 3040, flip shaft moving shaft; 3050, flip motor; 3060, flip reducer; 3070, first flip clamp; 3071, flip plate; 3072, flip first support rod; 3073, flip second support rod; 3074, flip first limit rod; 3075, flip first clamp rod; 3076, flip first driving cylinder; 3077, flip second limit rod; 3078, flip second clamp rod; 3079, flip second driving cylinder; 3080, second flip clamp; 4000, longitudinal cutting assembly; 4010, longitudinal cutting main body; 4020, longitudinal cutting clamping member; 4021, clamping support; 4022, clamping screw; 4023, clamping abutment; 4024, clamping adjustment; 4030, longitudinal cutting moving part; 4040, longitudinal cutting workbench; 4050, longitudinal cutting adjustment motor; 4060, longitudinal cutting adjustment screw; 4070, longitudinal cutting sliding seat; 4080, longitudinal cutting connection part; 4090, longitudinal cutting motor; 4100, longitudinal cutting wheel; 4110, longitudinal cutting support rod; 4120, longitudinal cutting laser calibrator; 5000, calibration assembly; 5100, calibration base; 5200, calibration limit rod; 5300, lateral limit plate; 5410, lateral calibration cylinder; 5420, lateral calibration push plate; 5510, longitudinal calibration cylinder; 5520, longitudinal calibration push plate. DETAILED DESCRIPTION

[0017] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. It will be understood that the specific embodiments described herein are only used to explain the present invention, rather than to limit the present invention. It should also be noted that, for ease of description, only parts related to the present invention, rather than all structures, are shown in the drawings. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present invention. The appearance of the phrase in various places in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0019] See also Figures 1 to 14 The copper-nickel-plated heat sink processing equipment of the present invention comprises a transport component 1000 for transporting the copper-nickel-plated heat sink, a transverse cutting component 2000 for transversely cutting the copper-nickel-plated heat sink, a flipping component 3000 for flipping the copper-nickel-plated heat sink cut by the transverse cutting component 2000, a longitudinal cutting component 4000 for longitudinally cutting the copper-nickel-plated heat sink after the flipping component 3000, and a calibration component 5000 for calibrating the copper-nickel-plated heat sink cut by the longitudinal cutting component 4000. The transverse cutting assembly 2000 is installed on one side of the transfer assembly 1000, and the transverse cutting assembly 2000 includes a transverse cutting main body 2010, a first transverse cutting support part 2020, a second transverse cutting support part 2030, at least one transverse cutting first lifting cylinder 2040, at least one transverse cutting second lifting cylinder 2050, at least one transverse cutting limiting slide rail 2060, a transverse cutting adjustment seat 2070, a transverse cutting drive motor 2080, a transverse cutting limiting part 2090, a transverse cutting drive shaft 2100, a transverse cutting linkage belt, a transverse cutting wheel 2110, a transverse cutting auxiliary driving member 2120 and an auxiliary cutting member 2130; The transverse cutting body 2010 is installed on one side of the transfer assembly 1000, the first transverse cutting support 2020 and the second transverse cutting support 2030 are both installed in the transverse cutting body 2010, the first transverse cutting lifting cylinder 2040 is installed on the first transverse cutting support 2020, the second transverse cutting lifting cylinder 2050 is installed on the second transverse cutting support 2030, one end of the transverse cutting limit slide 2060 is connected to the output end of the first transverse cutting lifting cylinder 2040, the other end of the transverse cutting limit slide 2060 is connected to the output end of the second transverse cutting lifting cylinder 2050, and the transverse cutting adjustment seat 2070 is connected to the output end of the first transverse cutting lifting cylinder 2040. The lateral cutting limit slide rail 2060 is slidably connected to the lateral cutting limit slide rail 2060, the lateral cutting drive motor 2080 is installed at the lower side of the lateral cutting adjustment seat 2070, the lateral cutting limit part 2090 is installed at the upper side of the lateral cutting adjustment seat 2070, the lateral cutting drive shaft 2100 is rotatably connected in the lateral cutting limit part 2090, the lateral cutting linkage belt is rotatably connected between the output end of the lateral cutting drive motor 2080 and one end of the lateral cutting drive shaft 2100, and the lateral cutting wheel 2110 is installed at the other end of the lateral cutting drive shaft 2100; the lateral cutting main body 2010 is provided with a cutting limit groove 2011 for limiting the lateral cutting wheel 2110; The transverse cutting auxiliary driving member 2120 is installed at one end of the transverse cutting limiting slide rail 2060, and the output end of the transverse cutting auxiliary driving member 2120 is connected to the transverse cutting adjustment seat 2070; The auxiliary cutting member 2130 is installed on the upper side of the transverse cutting main body 2010, the flip assembly 3000 is installed on one side of the transverse cutting assembly 2000, the longitudinal cutting assembly 4000 is installed on the side of the flip assembly 3000 away from the transverse cutting assembly 2000, and the calibration assembly 5000 is installed on the side of the longitudinal cutting assembly 4000 away from the flip assembly 3000; Among them, when the user needs to use the copper-nickel-plated heat sink processing equipment of the present invention to perform cutting processing on the copper-nickel-plated heat sink, first, the user places the copper-nickel-plated heat sink in the transfer component 1000, and the transfer component 1000 drives the copper-nickel-plated heat sink to move. When passing through the transverse cutting component 2000, the external transport equipment or manual transport of the copper-nickel-plated heat sink from the transport component 1000 to the transverse cutting component 2000, and then, the transverse cutting component 2000 performs transverse cutting on the copper-nickel-plated heat sink. The nickel-plated heat sink bottom plate enters into the flip assembly 3000, which flips the copper-nickel-plated heat sink bottom plate 180°. Then, the copper-nickel-plated heat sink bottom plate enters into the longitudinal cutting assembly 4000, which performs longitudinal cutting on the copper-nickel-plated heat sink bottom plate. Then, the copper-nickel-plated heat sink bottom plate enters into the calibration assembly 5000, which performs length and width alignment on the cut copper-nickel-plated heat sink bottom plate, thereby ensuring that the copper-nickel-plated heat sink bottom plate has a higher precision after cutting, and can better meet the requirements of the construction operation. It is worth noting that the copper-plated nickel heat sink can be transported between different components by using existing transport equipment, such as a robot. Specifically, the transverse cutting body 2010 serves as a fixed support for each structure in the transverse cutting component 2000; when the copper-nickel-plated heat dissipation base plate enters the transverse cutting component 2000 for processing, first, the copper-nickel-plated heat dissipation base plate to be cut is transported from the transfer component 1000 to the transverse cutting body 2010 by external transport equipment, and then, the auxiliary cutting piece 2130 enters the working state, and the auxiliary cutting piece 2130 fixes the copper-nickel-plated heat dissipation base plate on the transverse cutting body 2010, and then, the transverse cutting drive motor 2080 enters the working state, so that the output end of the transverse cutting drive motor 2080 drives the transverse cutting linkage belt to rotate, and then the transverse cutting linkage belt drives the transverse cutting drive shaft 2100 to rotate, and then the transverse cutting drive shaft 2100 drives the transverse cutting wheel 2110 to rotate, and then, the transverse cutting first lifting cylinder 2040 and the transverse cutting The second lifting cylinder 2050 for cutting enters the working state at the same time, so that the first lifting cylinder 2040 for transverse cutting and the second lifting cylinder 2050 for transverse cutting drive the transverse cutting limit rail 2060 to rise to a certain height, so that the transverse cutting limit rail 2060 drives the transverse cutting adjustment seat 2070 to move, and then can drive the transverse cutting wheel 2110 to extend from the cutting limit groove 2011 to the transverse cutting main body 2010, so as to start cutting the copper-plated nickel heat dissipation bottom plate on the transverse cutting main body 2010, and then, the transverse cutting auxiliary driving member 2120 enters the working state, and the transverse cutting auxiliary driving member 2120 drives the transverse cutting adjustment seat 2070 to move on the transverse cutting limit rail 2060, so that the transverse cutting adjustment seat 2070 drives the transverse cutting wheel 2110 to move along the direction of the cutting limit groove 2011, so as to complete the transverse cutting action of the copper-plated nickel heat dissipation bottom plate; It is worth noting that the surface area of ​​the copper-nickel-plated heat sink to be cut is smaller than the surface area of ​​the upper surface of the transverse cutting body 2010, so the transverse cutting wheel 2110 can fully complete the cutting action of the copper-nickel-plated heat sink; Furthermore, the number of the first lifting cylinders 2040 for transverse cutting, the second lifting cylinders 2050 for transverse cutting, and the limiting slide rails 2060 for transverse cutting are the same; Furthermore, the transverse cutting limiter 2090 can ensure the stability of the rotation of the transverse cutting drive shaft 2100, and thus the transverse cutting drive shaft 2100 can ensure the stability of the rotation of the transverse cutting wheel 2110; Furthermore, when the first transverse cutting lifting cylinder 2040 and the second transverse cutting lifting cylinder 2050 drive the transverse cutting limiting slide rail 2060 to move, the transverse cutting limiting slide rail 2060 drives the transverse cutting adjustment seat 2070, the transverse cutting driving motor 2080, the transverse cutting limiting part 2090, the transverse cutting driving shaft 2100, and the transverse cutting auxiliary driving member 2120 to move in the vertical direction; At the same time, the height of the transverse cutting wheel 2110 extending out of the transverse cutting body 2010 can be adjusted, thereby ensuring that when cutting copper-plated nickel heat sinks of different thicknesses, the copper-plated nickel heat sinks can be completely cut off, thereby ensuring the cutting effect of the copper-plated nickel heat sink to a certain extent; Moreover, when the copper-nickel-plated heat sink to be cut is not placed on the transverse cutting body 2010, the transverse cutting wheel 2110 does not extend out of the transverse cutting body 2010. Only when the copper-nickel-plated heat sink needs to be cut will the transverse cutting wheel 2110 extend out of the transverse cutting body 2010.

[0020] In this embodiment, the transfer component 1000 includes a transfer base 1100, a plurality of transfer support parts 1200, a transfer workbench 1300, a transfer active rotating roller 1400, a transfer driven rotating roller 1500, a transfer belt 1600 and a transfer driving member; the plurality of transfer support parts 1200 are all installed on the transfer base 1100, the transfer workbench 1300 is installed at one end of the transfer support part 1200 away from the transfer base 1100, the transfer active rotating roller 1400 is rotatably connected to one end of the transfer workbench 1300, and the transfer driven rotating roller 1500 is rotatably connected to the transfer belt 1600. At the other end of the transport workbench 1300, the transport belt 1600 is rotatably connected between the transport active rotating roller 1400 and the transport driven rotating roller 1500, the transport driving member is installed on the transport base 1100, and the output end of the transport driving member is connected to one end of the transport active rotating roller 1400; the transport driving member includes a transport driving motor 1710 and a transport driving belt 1720, the transport driving motor 1710 is installed on the transport base 1100, and the transport driving belt 1720 is connected between the output end of the transport driving motor 1710 and one end of the transport active rotating roller 1400; Among them, the transfer base 1100 plays a role of fixed support for each structure in the transfer component 1000. When the user needs to use the transfer component 1000 to transfer the copper-nickel-plated heat dissipation base plate, the user places the copper-nickel-plated heat dissipation base plate to be processed on the transfer belt 1600, and then the transfer drive enters the working state, so that the transfer drive drives the transfer active rotating roller 1400 to rotate, so that the transfer active rotating roller 1400 drives the transfer belt 1600 to rotate between the transfer active rotating roller 1400 and the transfer driven rotating roller 1500, so that as the transfer belt 1600 rotates, the transfer belt 1600 drives the copper-nickel-plated heat dissipation base plate to transfer, and at the same time, the transfer workbench 1300 can ensure the stability of the rotation of the transfer belt 1600; Furthermore, when the transfer driving component drives the transfer active rotating roller 1400 to rotate, first, the transfer driving motor 1710 enters the working state, and then, the output end of the transfer driving motor 1710 drives the transfer driving belt 1720 to rotate between the output end of the transfer driving motor 1710 and the transfer active rotating roller 1400, thereby completing the action of driving the transfer active rotating roller 1400.

[0021] In this embodiment, the transverse cutting auxiliary drive component 2120 includes a transverse cutting auxiliary seat 2121 and a transverse cutting drive cylinder 2122. The transverse cutting auxiliary seat 2121 is installed on the transverse cutting limit slide rail 2060, and the transverse cutting drive cylinder 2122 is installed on one side of the transverse cutting auxiliary seat 2121, and the output end of the transverse cutting drive cylinder 2122 is connected to one side of the transverse cutting adjustment seat 2070.

[0022] Among them, the transverse cutting auxiliary seat 2121 plays a role of fixed support for each structure within the transverse cutting sub-driver 2120. When the transverse cutting sub-driver 2120 needs to drive the transverse cutting adjustment seat 2070 to move on the transverse cutting limit slide rail 2060, the transverse cutting drive cylinder 2122 enters the working state, so that the output end of the transverse cutting drive cylinder 2122 drives the transverse cutting adjustment seat 2070 to move on the transverse cutting limit slide rail 2060.

[0023] In this embodiment, the auxiliary cutting part 2130 includes an auxiliary cutting clamping block 2131 and an auxiliary cutting adjusting cylinder 2132. The auxiliary cutting clamping block 2131 is arranged on the transverse cutting main body 2010, and the auxiliary cutting adjusting cylinder 2132 is installed in the transverse cutting main body 2010, and the output end of the auxiliary cutting adjusting cylinder 2132 is connected to the auxiliary cutting clamping block 2131.

[0024] Among them, the number of the auxiliary cutting adjustment cylinder 2132 and the auxiliary cutting pressing block 2131 can be set to be multiple, so as to ensure the pressing effect on the copper-plated nickel heat dissipation bottom plate on the transverse cutting main body 2010; Specifically, when the copper-nickel-plated heat dissipation base plate is placed on the transverse cutting main body 2010, the auxiliary cutting adjustment cylinder 2132 enters the working state, so that the output end of the auxiliary cutting adjustment cylinder 2132 drives the auxiliary cutting clamping block 2131 to move toward the direction close to the upper side of the transverse cutting main body 2010 until the copper-nickel-plated heat dissipation base plate is fixed.

[0025] In this embodiment, the flip assembly 3000 includes a flip bracket 3010, a flip feed piece 3020, a flip rotation shaft 3040, a flip motor 3050, a flip reducer 3060, a first flip clamp 3070 and a second flip clamp 3080; the flip bracket 3010 is installed on one side of the transverse cutting assembly 2000, the flip feed piece 3020 is installed on the flip bracket 3010, the flip rotation shaft 3040 is rotatably connected to the flip bracket 3010, the flip motor 3050 and the flip reducer 3060 are both installed on one side of the flip bracket 3010, and the output end of the flip motor 3050 is connected to the flip reducer 3060, and the output end of the flip reducer 3060 is connected to one end of the flip rotation shaft 3040, the first flip clamp 3070 and the second flip clamp 3080 are installed on the flip rotation shaft 3040 in sequence; the second flip clamp 3080 and the first flip clamp 3070 have the same structure.

[0026] Among them, when the copper-plated nickel heat sink bottom plate enters the flip assembly 3000 and needs to be flipped, first, the copper-plated nickel heat sink bottom plate enters the flip feed piece 3020 under the transportation of the external transportation equipment, and the flip feed piece 3020 drives the copper-plated nickel heat sink bottom plate to approach the flip rotation shaft 3040, until the copper-plated nickel heat sink bottom plate enters the first flip clamp 3070 and the second flip clamp 3080. At this time, the first flip clamp 3070 and the second flip clamp 3080 fix the copper-plated nickel heat sink bottom plate, and then, the flip motor 3050 enters the working state, and the flip motor 3050 drives the flip rotation shaft 3040 to rotate through the flip reducer 3060, so that the flip rotation shaft 3040 drives the first flip clamp 3070 and the second flip clamp 3080 to flip, so that the direction of the copper-plated nickel heat sink bottom plate changes, and then, the external transportation equipment transports the flipped copper-plated nickel heat sink bottom plate to the longitudinal cutting assembly 4000; In addition, the copper-nickel-plated heat sink is easily affected by moisture in a humid environment, especially when the same side of the copper-nickel-plated heat sink is parked in the same position for a long time, which is more likely to cause the copper-nickel-plated heat sink to get damp. Turning the copper-nickel-plated heat sink over and processing it again can prevent the bottom of the copper-nickel-plated heat sink from getting damp to a certain extent.

[0027] In this embodiment, the first flip clamping member 3070 includes a flip disk 3071, a flip first support rod 3072, a flip second support rod 3073, a flip first limit rod 3074, a flip first clamping rod 3075, a flip first driving cylinder 3076, a flip second limit rod 3077, a flip second clamping rod 3078 and a flip second driving cylinder 3079; the flip disk 3071 is installed on the flip rotation shaft 3040, the flip first support rod 3072 and the flip second support rod 3073 are fixedly connected to the side wall of the flip disk 3071, and the flip first limit rod 3074 is connected to the side wall of the flip first support rod 3072 Then, the flip first clamping rod 3075 is slidably connected to the side wall of the flip first support rod 3072, the flip first driving cylinder 3076 is installed on the outside of the flip first support rod 3072, and the output end of the flip first driving cylinder 3076 is connected to the flip first clamping rod 3075; the flip second limit rod 3077 is connected to the side wall of the flip second support rod 3073, the flip second clamping rod 3078 is slidably connected to the side wall of the flip second support rod 3073, the flip second driving cylinder 3079 is installed on the outside of the flip second support rod 3073, and the output end of the flip second driving cylinder 3079 is connected to the flip second clamping rod 3078.

[0028] Among them, the flip disk 3071 plays a role of fixing and supporting the flip first support rod 3072 and the flip second support rod 3073. When the copper-nickel-plated heat dissipation base plate enters between the flip first limit rod 3074 and the flip first clamping rod 3075 through one end of the flip feed piece 3020, the flip first driving cylinder 3076 enters the working state, so that the output end of the flip first driving cylinder 3076 drives the flip first clamping rod 3075 to move in the direction close to the flip first limit rod 3074 until the copper-nickel-plated heat dissipation base plate is clamped. Then, the flip motor 3050 works to drive the flip disk 3071 to rotate, so that the flip first limit rod 3074 and the flip first clamping rod 3075 change their directions, thereby driving the copper-nickel-plated heat dissipation base plate to change its direction. Furthermore, when the direction of the copper-nickel-plated heat sink is changed, the flipped second limit rod 3077 and the flipped second clamping rod 3078 are turned toward the flip feeder 3020 to achieve continuous flipping of different copper-nickel-plated heat sinks. Moreover, the first flip limit rod 3074 and the first flip clamp rod 3075 are both kept vertically with the first flip support rod 3072, and the first flip limit rod 3074 and the first flip clamp rod 3075 are both facing the flip feed piece 3020 in the initial state, and the copper-plated nickel heat dissipation bottom plate transferred by the flip feed piece 3020 just enters between the first flip limit rod 3074 and the first flip clamp rod 3075; The working principle of the second flip clamp 3080 is completely the same as the working principle of the first flip clamp 3070 .

[0029] In this embodiment, the flip feed member 3020 includes a first feed support portion 3021, a second feed support portion 3022, a feed driving shaft 3023, a feed driving gear 3024, a feed drive motor 3025, a feed driving chain 3026, a first feed driven gear 3027, a first feed chain 3028, a second feed driven gear 3029 and a second feed chain 3030; the first feed support portion 3021 and the second feed support portion 3022 are both installed on the flip bracket 3010, the feed driving shaft 3023 is rotatably connected between the first feed support portion 3021 and the second feed support portion 3022, and the feed driving gear 3024 is installed on the feed driving shaft 3023 The feed drive motor 3025 is installed in the flip bracket 3010, and the feed active chain 3026 is installed between the output end of the feed drive motor 3025 and the feed active gear 3024, the first feed driven gear 3027 is rotatably connected in the first feed support part 3021, the first feed chain 3028 is installed between one end of the feed active shaft 3023 extending into the first feed support part 3021 and the first feed driven gear 3027, the second feed driven gear 3029 is rotatably connected in the second feed support part 3022, and the second feed chain 3030 is installed between one end of the feed active shaft 3023 extending into the second feed support part 3022 and the second feed driven gear 3029.

[0030] Among them, after the cutting of the transverse cutting assembly 2000 is completed, the copper-plated nickel heat dissipation bottom plate is placed between the first feed support part 3021 and the second feed support part 3022 under the transportation of external equipment, and then the feed drive motor 3025 enters the working state, and the feed drive motor 3025 drives the feed active chain 3026 to rotate, so that the feed active chain 3026 drives the feed active gear 3024 to rotate, and then the feed active gear 3024 drives the feed active shaft 3023 to rotate, so that the feed active shaft 3023 simultaneously drives the first feed chain 3028 and the second feed chain 3030 to rotate; When the first feed chain 3028 rotates between one end of the feed driving shaft 3023 and the first feed driven gear 3027, and the second feed chain 3030 rotates between the other end of the feed driving shaft 3023 and the second feed driven gear 3029, the first feed chain 3028 and the second feed chain 3030 cooperate with each other to realize the transfer action of the copper-nickel-plated heat dissipation base plate, so that the first feed chain 3028 and the second feed chain 3030 drive the copper-nickel-plated heat dissipation base plate to move toward the first flip clamp 3070 and the second flip clamp 3080.

[0031] In this embodiment, the longitudinal cutting assembly 4000 includes a longitudinal cutting main body 4010, a plurality of longitudinal cutting pressing members 4020, a longitudinal cutting moving part 4030, a longitudinal cutting workbench 4040, a longitudinal cutting adjustment motor 4050, a longitudinal cutting adjustment screw 4060, a longitudinal cutting sliding seat 4070, a longitudinal cutting connection part 4080, a longitudinal cutting motor 4090, a longitudinal cutting wheel 4100, a longitudinal cutting support rod 4110 and a longitudinal cutting laser calibrator 4120; the longitudinal cutting main body 401 0 is installed on one side of the flip assembly 3000, a plurality of longitudinal cutting pressing members 4020 are all arranged on the upper side of the longitudinal cutting main body 4010, the longitudinal cutting moving part 4030 is arranged on one side of the longitudinal cutting main body 4010, the longitudinal cutting workbench 4040 is installed on the longitudinal cutting moving part 4030, the longitudinal cutting adjustment motor 4050 is installed on one side of the longitudinal cutting workbench 4040, the longitudinal cutting adjustment screw 4060 is rotatably connected in the longitudinal cutting workbench 4040, and one end of the longitudinal cutting adjustment screw 4060 is connected to the longitudinal cutting workbench 4040. The longitudinal cutting adjusting motor 4050 is connected to the output end thereof, the longitudinal cutting sliding seat 4070 is threadedly connected to the longitudinal cutting adjusting screw 4060, the longitudinal cutting connecting portion 4080 is installed on the longitudinal cutting sliding seat 4070, the longitudinal cutting motor 4090 is installed on the end of the longitudinal cutting connecting portion 4080 away from the longitudinal cutting sliding seat 4070, and the longitudinal cutting wheel 4100 is connected to the output end of the longitudinal cutting motor 4090, one end of the longitudinal cutting support rod 4110 is connected to the side wall of the longitudinal cutting connecting portion 4080, and the longitudinal cutting wheel 4100 is connected to the output end of the longitudinal cutting motor 4090. The other end of the cutting support rod 4110 is connected to the longitudinal cutting laser calibrator 4120; the longitudinal cutting clamping member 4020 includes a clamping support portion 4021, a clamping screw 4022, a clamping abutment portion 4023 and a clamping adjustment portion 4024, the clamping support portion 4021 is installed on the longitudinal cutting main body 4010, the clamping screw 4022 is threadedly connected to the end of the clamping support portion 4021, the clamping abutment portion 4023 is installed at the lower end of the clamping screw 4022, and the clamping adjustment portion 4024 is installed at the upper end of the clamping screw 4022; The longitudinal cutting body 4010 plays a role in fixing and supporting each structure in the longitudinal cutting assembly 4000; After the copper-nickel-plated heat sink is flipped by the flip assembly 3000, it is transported into the longitudinal cutting main body 4010 by external transport equipment, and the longitudinal cutting pressing member 4020 enters the working state, thereby pressing the copper-nickel-plated heat sink. Then, the longitudinal cutting moving part 4030 approaches one side of the longitudinal cutting main body 4010 until the longitudinal cutting wheel 4100 abuts against one side of the copper-nickel-plated heat sink, and the longitudinal cutting motor 4090 enters the working state. Then, the output end of the longitudinal cutting motor 4090 drives the longitudinal cutting. The wheel 4100 rotates, and then the longitudinal cutting adjustment motor 4050 enters the working state, and the longitudinal cutting adjustment motor 4050 drives the longitudinal cutting adjustment screw 4060 to rotate, so that the longitudinal cutting adjustment screw 4060 drives the longitudinal cutting sliding seat 4070 to move, and then the longitudinal cutting sliding seat 4070 drives the longitudinal cutting connecting part 4080 to move, so that the longitudinal cutting connecting part 4080 drives the rotating longitudinal cutting wheel 4100 to extend into the copper-nickel-plated heat dissipation bottom plate, and then completes the longitudinal cutting action of the copper-nickel-plated heat dissipation bottom plate; Furthermore, the longitudinal cutting support rod 4110 is used to support the longitudinal cutting laser calibrator 4120, which faces the side of the longitudinal cutting wheel 4100. When the longitudinal cutting sliding seat 4070 moves, the laser emitted by the longitudinal cutting laser calibrator 4120 is always on the side of the longitudinal cutting wheel 4100, so that the longitudinal cutting wheel 4100 always cuts along the laser direction, thereby improving the cutting accuracy of the copper-nickel-plated heat dissipation base plate.

[0032] Furthermore, when the longitudinal cutting clamping member 4020 needs to fix the copper-nickel-plated heat sink on the longitudinal cutting main body 4010, the user adjusts the clamping adjustment part 4024 to rotate, so that the clamping adjustment part 4024 drives the clamping screw 4022 to rotate. Since the clamping screw 4022 is threadedly connected to the clamping support part 4021, when the clamping screw 4022 rotates, it drives the clamping abutting part 4023 to move toward the direction close to the copper-nickel-plated heat sink, until the clamping abutting part 4023 fixes the copper-nickel-plated heat sink, so as to improve the accuracy of the longitudinal cutting of the copper-nickel-plated heat sink; Specifically, the orientation of the copper-nickel-plated heat dissipation base plate that enters the longitudinally cut main body 4010 when transported by external transport equipment can be adjusted according to actual production.

[0033] In this embodiment, the calibration assembly 5000 includes a calibration base 5100, a plurality of calibration limit rods 5200, a plurality of transverse limit plates 5300, a plurality of transverse calibration parts and a longitudinal calibration part; the calibration base 5100 is installed on one side of the longitudinal cutting assembly 4000, a plurality of calibration limit rods 5200 and transverse limit plates 5300 are all installed on the calibration base 5100, and the transverse calibration parts and the longitudinal calibration parts are all installed on the calibration base 5100; the transverse calibration part includes a transverse calibration cylinder 5410 and The transverse calibration push plate 5420 and the transverse calibration cylinder 5410 are installed on the calibration base 5100, and the transverse calibration push plate 5420 is connected to the output end of the transverse calibration cylinder 5410; the longitudinal calibration component includes a longitudinal calibration cylinder 5510 and a longitudinal calibration push plate 5520, and the longitudinal calibration cylinder 5510 is installed on the calibration base 5100, and the longitudinal calibration push plate 5520 is connected to the output end of the longitudinal calibration cylinder 5510, and the longitudinal calibration push plate 5520 faces the calibration limit rod 5200.

[0034] The copper-nickel-plated heat sink bottom plate cut by the longitudinal cutting assembly 4000 is transported into the calibration base 5100 by an external transport device. At this time, the transverse calibration piece and the longitudinal calibration piece are still a certain distance away from the copper-nickel-plated heat sink bottom plate. Then, the transverse calibration piece and the longitudinal calibration piece enter the working state at the same time, thereby pressing the copper-nickel-plated heat sink bottom plate, so that the length and width of the copper-nickel-plated heat sink bottom plate are aligned, thereby completing the calibration action of the copper-nickel-plated heat sink bottom plate. Specifically, the calibration limit rod 5200 and the longitudinal calibration piece cooperate with each other to limit the copper-nickel-plated heat dissipation base plate longitudinally, and the transverse limit plate 5300 and the transverse calibration piece cooperate with each other to limit the copper-nickel-plated heat dissipation base plate transversely; More specifically, the transverse calibration cylinder 5410 drives the transverse calibration push plate 5420 to move toward the transverse limit plate 5300, and the longitudinal calibration cylinder 5510 drives the longitudinal calibration push plate 5520 to move toward the calibration limit rod 5200, so that the copper-plated nickel heat dissipation bottom plate after cutting can maintain the length and width alignment; It is worth noting that the number of the lateral calibration pieces is the same as the number of the lateral limit plates 5300, so as to achieve simultaneous calibration of both sides of the copper-nickel-plated heat dissipation base plate.

[0035] In this embodiment, the present invention also discloses a processing method of a copper-nickel-plated heat sink processing device, comprising the following steps: S1, material transfer, placing the copper-nickel-plated heat sink to be cut on the transfer component 1000, and the transfer component 1000 drives the copper-nickel-plated heat sink to be cut to transfer; S2, material transverse cutting, when the copper-nickel-plated heat sink to be cut on the transfer component 1000 passes through the transverse cutting component 2000, the transverse cutting component 2000 performs a transverse cutting action on the copper-nickel-plated heat sink; S3, material flipping, passing through the transverse cutting component 2000 transversely After the cutting action, the copper-nickel-plated heat sink base enters the flipping component 3000, and the flipping component 3000 flips the copper-nickel-plated heat sink base; S4, the material is cut longitudinally, and the copper-nickel-plated heat sink base after being flipped by the flipping component 3000 enters the longitudinal cutting component 4000, and the longitudinal cutting component 4000 performs a longitudinal cutting action on the copper-nickel-plated heat sink base; S5, material calibration, the copper-nickel-plated heat sink base after the longitudinal cutting action by the longitudinal cutting component 4000 enters the calibration component 5000, and the calibration component 5000 performs a calibration action on the copper-nickel-plated heat sink base.

[0036] The above description is only an implementation mode of the present invention, and does not limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made by using the contents of the present invention specification and drawings, or directly or indirectly applied in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A copper-nickel-plated heat dissipation base plate processing equipment, characterized in that: include A transfer assembly (1000) for transferring a copper-nickel-plated heat sink; A transverse cutting component (2000) for performing transverse cutting on the copper-nickel plated heat dissipation base plate, wherein the transverse cutting component (2000) is installed on one side of the transfer component (1000); The transverse cutting assembly (2000) comprises a transverse cutting main body (2010), a first transverse cutting support part (2020), a second transverse cutting support part (2030), at least one transverse cutting first lifting cylinder (2040), at least one transverse cutting second lifting cylinder (2050), at least one transverse cutting limit slide rail (2060), a transverse cutting adjustment seat (2070), a transverse cutting drive motor (2080), a transverse cutting limit part (2090), a transverse cutting drive shaft (2100), a transverse cutting linkage belt, a transverse cutting wheel (2110), a transverse cutting auxiliary drive member (2120) and an auxiliary cutting member (2130); The transverse cutting main body (2010) is installed on one side of the transfer assembly (1000); the first transverse cutting support part (2020) and the second transverse cutting support part (2030) are both installed in the transverse cutting main body (2010); the transverse cutting first lifting cylinder (2040) is installed on the first transverse cutting support part (2020); the transverse cutting second lifting cylinder (2050) is installed on the second transverse cutting support part (2030); one end of the transverse cutting limiting slide rail (2060) is connected to the output end of the first transverse cutting lifting cylinder (2040); and the other end of the transverse cutting limiting slide rail (2060) is connected to the output end of the second transverse cutting lifting cylinder (2050). The transverse cutting adjustment seat (2070) is connected to the output end of the transverse cutting limit slide rail (2060), the transverse cutting drive motor (2080) is installed on the lower side of the transverse cutting adjustment seat (2070), the transverse cutting limit part (2090) is installed on the upper side of the transverse cutting adjustment seat (2070), the transverse cutting drive shaft (2100) is rotatably connected in the transverse cutting limit part (2090), the transverse cutting linkage belt is rotatably connected between the output end of the transverse cutting drive motor (2080) and one end of the transverse cutting drive shaft (2100), and the transverse cutting wheel (2110) is installed on the other end of the transverse cutting drive shaft (2100); The transverse cutting main body (210) is provided with a cutting limit groove (2111) for limiting the position of the transverse cutting wheel (2110); The transverse cutting auxiliary driving member (2120) is installed at one end of the transverse cutting limiting slide rail (2060), and the output end of the transverse cutting auxiliary driving member (2120) is connected to the transverse cutting adjustment seat (2070); The auxiliary cutting member (2130) is installed on the upper side of the transverse cutting main body (2010); a flipping assembly (3000) for flipping the copper-nickel-plated heat dissipation base plate after being cut by the transverse cutting assembly (2000), the flipping assembly (3000) being mounted on one side of the transverse cutting assembly (2000); A longitudinal cutting component (4000) for longitudinally cutting the copper-plated nickel heat dissipation base plate after the flipping component (3000) has flipped, the longitudinal cutting component (4000) being installed on a side of the flipping component (3000) away from the transverse cutting component (2000); A calibration component (5000) is used to perform a calibration action on the copper-nickel-plated heat dissipation base plate cut by the longitudinal cutting component (4000), wherein the calibration component (5000) is installed on a side of the longitudinal cutting component (4000) away from the flipping component (3000).

2. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 1, characterized in that: The transfer assembly (1000) comprises a transfer base (1100), a plurality of transfer support parts (1200), a transfer workbench (1300), a transfer active rotating roller (1400), a transfer driven rotating roller (1500), a transfer belt (1600), and a transfer driving member; The plurality of transfer support parts (1200) are all mounted on the transfer base (1100); the transfer workbench (1300) is mounted on one end of the transfer support part (1200) away from the transfer base (1100); the transfer active rotating roller (1400) is rotatably connected to one end of the transfer workbench (1300); the transfer driven rotating roller (1500) is rotatably connected to the other end of the transfer workbench (1300); the transfer belt (1600) is rotatably connected between the transfer active rotating roller (1400) and the transfer driven rotating roller (1500); the transfer driving member is mounted on the transfer base (1100); and the output end of the transfer driving member is connected to one end of the transfer active rotating roller (1400); The transfer drive component comprises a transfer drive motor (1710) and a transfer drive belt (1720); the transfer drive motor (1710) is mounted on the transfer base (1100); and the transfer drive belt (1720) is connected between the output end of the transfer drive motor (1710) and one end of the transfer active rotating roller (1400).

3. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 1, characterized in that: The transverse cutting auxiliary driving member (2120) comprises a transverse cutting auxiliary seat (2121) and a transverse cutting driving cylinder (2122); the transverse cutting auxiliary seat (2121) is mounted on the transverse cutting limit slide rail (2060); the transverse cutting driving cylinder (2122) is mounted on one side of the transverse cutting auxiliary seat (2121); and the output end of the transverse cutting driving cylinder (2122) is connected to one side of the transverse cutting adjustment seat (2070).

4. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 1, characterized in that: The auxiliary cutting member (2130) comprises an auxiliary cutting pressing block (2131) and an auxiliary cutting regulating cylinder (2132); the auxiliary cutting pressing block (2131) is arranged on the transverse cutting main body (2010); the auxiliary cutting regulating cylinder (2132) is installed in the transverse cutting main body (2010); and the output end of the auxiliary cutting regulating cylinder (2132) is connected to the auxiliary cutting pressing block (2131).

5. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 1, characterized in that: The flip assembly (3000) comprises a flip bracket (3010), a flip feeder (3020), a flip rotation shaft (3040), a flip motor (3050), a flip reducer (3060), a first flip clamp (3070), and a second flip clamp (3080); The flip bracket (3010) is mounted on one side of the transverse cutting assembly (2000), the flip feeder (3020) is mounted on the flip bracket (3010), the flip rotation shaft (3040) is rotatably connected to the flip bracket (3010), the flip motor (3050) and the flip reducer (3060) are both mounted on one side of the flip bracket (3010), and the output end of the flip motor (3050) is connected to the flip reducer (3060), and the output end of the flip reducer (3060) is connected to one end of the flip rotation shaft (3040), and the first flip clamp (3070) and the second flip clamp (3080) are sequentially mounted on the flip rotation shaft (3040); The second flip clamp (3080) has the same structure as the first flip clamp (3070).

6. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 5, characterized in that: The first flip clamping member (3070) comprises a flip disk (3071), a flip first support rod (3072), a flip second support rod (3073), a flip first limit rod (3074), a flip first clamping rod (3075), a flip first driving cylinder (3076), a flip second limit rod (3077), a flip second clamping rod (3078) and a flip second driving cylinder (3079); The flip disc (3071) is mounted on the flip rotation shaft (3040); the flip first support rod (3072) and the flip second support rod (3073) are both fixedly connected to the side wall of the flip disc (3071); the flip first limit rod (3074) is connected to the side wall of the flip first support rod (3072); the flip first clamping rod (3075) is slidably connected to the side wall of the flip first support rod (3072); the flip first driving cylinder (3076) is mounted on the outside of the flip first support rod (3072); and the output end of the flip first driving cylinder (3076) is connected to the flip first clamping rod (3075); The flip second limit rod (3077) is connected to the side wall of the flip second support rod (3073), the flip second clamping rod (3078) is slidably connected to the side wall of the flip second support rod (3073), the flip second driving cylinder (3079) is installed on the outside of the flip second support rod (3073), and the output end of the flip second driving cylinder (3079) is connected to the flip second clamping rod (3078).

7. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 5, characterized in that: The overturning feeding member (3020) comprises a first feeding support portion (3021), a second feeding support portion (3022), a feeding driving shaft (3023), a feeding driving gear (3024), a feeding driving motor (3025), a feeding driving chain (3026), a first feeding driven gear (3027), a first feeding chain (3028), a second feeding driven gear (3029) and a second feeding chain (3030); The first feed support part (3021) and the second feed support part (3022) are both mounted on the flip bracket (3010), the feed driving shaft (3023) is rotatably connected between the first feed support part (3021) and the second feed support part (3022), the feed driving gear (3024) is mounted on the feed driving shaft (3023), the feed driving motor (3025) is mounted in the flip bracket (3010), and the feed driving chain (3026) is mounted between the output end of the feed driving motor (3025) and the feed driving gear (3024). The first feed driven gear (3027) is rotatably connected in the first feed support part (3021), the first feed chain (3028) is installed between one end of the feed driving shaft (3023) extending into the first feed support part (3021) and the first feed driven gear (3027), the second feed driven gear (3029) is rotatably connected in the second feed support part (3022), and the second feed chain (3030) is installed between one end of the feed driving shaft (3023) extending into the second feed support part (3022) and the second feed driven gear (3029).

8. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 1, characterized in that: The longitudinal cutting assembly (4000) comprises a longitudinal cutting main body (4010), a plurality of longitudinal cutting pressing members (4020), a longitudinal cutting moving part (4030), a longitudinal cutting workbench (4040), a longitudinal cutting adjustment motor (4050), a longitudinal cutting adjustment screw (4060), a longitudinal cutting sliding seat (4070), a longitudinal cutting connection part (4080), a longitudinal cutting motor (4090), a longitudinal cutting wheel (4100), a longitudinal cutting support rod (4110) and a longitudinal cutting laser calibrator (4120); The longitudinal cutting main body (4010) is installed on one side of the flip assembly (3000), the plurality of longitudinal cutting pressing members (4020) are all arranged on the upper side of the longitudinal cutting main body (4010), the longitudinal cutting moving part (4030) is arranged on one side of the longitudinal cutting main body (4010), the longitudinal cutting workbench (4040) is installed on the longitudinal cutting moving part (4030), the longitudinal cutting adjustment motor (4050) is installed on one side of the longitudinal cutting workbench (4040), the longitudinal cutting adjustment screw (4060) is rotatably connected to the longitudinal cutting workbench (4040), and one end of the longitudinal cutting adjustment screw (4060) is connected to the longitudinal cutting adjustment motor (4050). 050), the longitudinal cutting sliding seat (4070) is threadedly connected to the longitudinal cutting adjusting screw (4060), the longitudinal cutting connecting portion (4080) is installed on the longitudinal cutting sliding seat (4070), the longitudinal cutting motor (4090) is installed on one end of the longitudinal cutting connecting portion (4080) away from the longitudinal cutting sliding seat (4070), and the longitudinal cutting wheel (4100) is connected to the output end of the longitudinal cutting motor (4090), one end of the longitudinal cutting support rod (4110) is connected to the side wall of the longitudinal cutting connecting portion (4080), and the other end of the longitudinal cutting support rod (4110) is connected to the longitudinal cutting laser calibrator (4120); The longitudinal cutting clamping member (4020) comprises a clamping support portion (4021), a clamping screw (4022), a clamping abutment portion (4023) and a clamping adjustment portion (4024); the clamping support portion (4021) is mounted on the longitudinal cutting main body portion (4010); the clamping screw (4022) is threadedly connected to the end of the clamping support portion (4021); the clamping abutment portion (4023) is mounted on the lower end of the clamping screw (4022); and the clamping adjustment portion (4024) is mounted on the upper end of the clamping screw (4022).

9. The copper-nickel-plated heat dissipation base plate processing equipment according to claim 1, characterized in that: The calibration assembly (5000) comprises a calibration base (5100), a plurality of calibration limit rods (5200), a plurality of transverse limit plates (5300), a plurality of transverse calibration pieces and a longitudinal calibration piece; The calibration base (5100) is mounted on one side of the longitudinal cutting assembly (4000), a plurality of calibration limit rods (5200) and the transverse limit plates (5300) are mounted on the calibration base (5100), and the transverse calibration piece and the longitudinal calibration piece are mounted on the calibration base (5100); The transverse calibration component comprises a transverse calibration cylinder (5410) and a transverse calibration push plate (5420), wherein the transverse calibration cylinder (5410) is mounted on the calibration base (5100), and the transverse calibration push plate (5420) is connected to the output end of the transverse calibration cylinder (5410); The longitudinal calibration component comprises a longitudinal calibration cylinder (5510) and a longitudinal calibration push plate (5520), wherein the longitudinal calibration cylinder (5510) is mounted on the calibration base (5100), the longitudinal calibration push plate (5520) is connected to the output end of the longitudinal calibration cylinder (5510), and the longitudinal calibration push plate (5520) faces the calibration limit rod (5200).

10. A method for processing a copper-nickel-plated heat dissipation bottom plate processing device as claimed in any one of claims 1 to 9, characterized in that: The following steps are involved: S1, material transfer, placing the copper-plated nickel heat sink to be cut on the transfer component (1000), and the transfer component (1000) drives the copper-plated nickel heat sink to be cut to transfer; S2, cutting the material horizontally, when the copper-plated nickel heat sink to be cut on the transfer component (1000) passes through the horizontal cutting component (2000), the horizontal cutting component (2000) performs a horizontal cutting action on the copper-plated nickel heat sink; S3, turning over the material, the copper-nickel-plated heat dissipation bottom plate after being transversely cut by the transverse cutting component (2000) enters the turning component (3000), and the turning component (3000) turns over the copper-nickel-plated heat dissipation bottom plate; S4, cutting the material longitudinally, the copper-nickel-plated heat dissipation base plate after being turned over by the turning component (3000) enters the longitudinal cutting component (4000), and the longitudinal cutting component (4000) performs a longitudinal cutting action on the copper-nickel-plated heat dissipation base plate; S5, material calibration, the copper-nickel-plated heat sink base plate after the longitudinal cutting action by the longitudinal cutting component (4000) enters the calibration component (5000), and the calibration component (5000) performs a calibration action on the copper-nickel-plated heat sink base plate.

Images