Anode plate treatment system

Abstract

The utility model discloses an anode plate treatment system. The anode plate treatment system comprises a plate receiving and separating device, a stepping lifting table, a plate receiving robot arranged between the plate receiving and separating device and the stepping lifting table, a plate arranging robot arranged at the tail end of the stepping lifting table, a hydraulic station and an electric control station. A plurality of stations are sequentially arranged on the stepping lifting table in the moving direction at equal intervals, the moving direction is arranged in the linear direction, the stations comprise the feeding station, the plate arranging station and the multiple processing stations, the feeding station is arranged at the head end of the stepping lifting table, and the plate arranging station is arranged at the tail end of the stepping lifting table. The device is convenient for increasing the yield of the anode plate by increasing the number of devices, and has the advantages of low cost, high production efficiency, low fault rate, easiness in fault treatment and the like.

Description

Technical Field

[0001] The utility model relates to the technical field of smelting technology, in particular to an anode plate processing system. Background Art

[0002] Under existing technical conditions, copper is produced by electrolysis. Copper anode plates for electrolysis are usually cast, which can cause problems such as inconsistent weight, burrs, rough ears, and uneven thickness. Therefore, before the cast copper anode plates are loaded into the electrolytic cell, the anode unit system is required to press, weigh, mill ears, and arrange the copper anode plates, so that the anode plates have good conductivity, verticality, and uniform thickness after being loaded into the cell. The anode unit can remove burrs, shape the surface, mill ears, and arrange the spacing between the plates for the cast anode plates.

[0003] The existing anode units have problems such as high failure rate, low production efficiency, and difficulty in post-fault handling. Since the existing anode units are densely arranged and multiple functions are concentrated in one device, the space for personnel maintenance operations is very limited. In addition, the existing anode units use chain transmission, and the anode plates are in a vertical state throughout the operation process. During operation, faults such as plate drop, deformation, and plate jamming may occur. When faults such as plate drop, deformation, and plate jamming occur, it is necessary to rely on lifting equipment and the cooperation of multiple people to move the faulty anode plate away to solve the fault. The single fault handling takes more than 30 minutes, which seriously affects production efficiency and equipment operation. At the same time, due to the use of chain transmission, functional stations such as pressing plates, milling ears, and weighing can only be processed individually, resulting in the processing efficiency of a single functional station determining the production efficiency of the entire production unit. Utility Model Content

[0004] The utility model aims to solve the problems of failure rate, difficulty in fault handling, low production efficiency, etc. in the prior art, and for this purpose, the utility model proposes an anode plate processing system.

[0005] The technical solution adopted by the utility model is as follows:

[0006] The anode plate processing system comprises:

[0007] A receiving plate splitting device, used for increasing the distance between the anode plates by splitting;

[0008] A plate receiving robot is arranged between the plate receiving and slicing device and the stepping and lifting platform, and the end of the plate receiving and slicing device is located within the working radius of the plate receiving robot; it is used to carry anode plates from the plate receiving and slicing device piece by piece and place the anode plates in parallel on the stepping and lifting platform;

[0009] A step-by-step lifting platform is arranged downstream of the plate receiving and slicing device. A plurality of workstations are arranged sequentially and evenly spaced along the moving direction on the step-by-step lifting platform. The moving direction of the step-by-step lifting platform is arranged along a straight line. The workstations include a loading station, a plate arranging station and a plurality of processing stations. The loading station is arranged at the head end of the step-by-step lifting platform and is located within the working radius of the plate receiving robot, and is used to transport the anode plates piece by piece to each workstation. The plate receiving robot places the anode plates piece by piece in parallel on the loading station. The plate arranging station is arranged at the end of the step-by-step lifting platform. The step-by-step lifting platform adopts a lifting-forward-descending action to realize the forward transportation of the anode plates.

[0010] A plate arrangement robot, wherein the plate arrangement station of the stepping lift table is arranged within the working radius of the plate arrangement robot, and the plate arrangement robot is used to move the anode plate on the plate arrangement station away from the stepping lift table;

[0011] A hydraulic station for providing power to the anode plate processing system;

[0012] The electric control station is used to control the anode plate processing system and supply power to the anode plate processing system.

[0013] The distance between two adjacent processing stations, the distance between the first processing station and the loading station, and the distance between the last processing station and the panel arrangement station are all equal to the step distance of the stepping lifting platform.

[0014] The processing station is used to install functional modules. Functional modules are arranged on the outer side of the stepping lift in the moving direction, and the functional modules are detachably installed on the stepping lift or on the ground; the position of each functional module corresponds to the position of at least one processing station, and the number of the functional modules is less than or equal to the number of the processing stations.

[0015] The functional module comprises a press, an ear milling device and a weighing and thickness measuring device which are arranged in sequence along the moving direction.

[0016] The positions of the press 31, the ear milling device 32, and the weighing and thickness measuring device 33 correspond to the position of at least one workbench. The press is used to press the anode plate placed horizontally; the ear milling device is used to mill the anode plate placed horizontally; and the weighing and thickness measuring device is used to weigh and measure the thickness of the anode plate placed horizontally.

[0017] Furthermore, in the present invention, the press machine 31, the ear milling device 32, and the weighing and thickness measuring device 33 are all modular structures, and other functional devices can be added or the above functional devices can be reduced or the arrangement order of the functional devices can be adjusted according to needs.

[0018] The anode plate processing system also includes a plate arrangement chain conveyor, a plate arrangement trolley and a waste plate rack; the plate arrangement chain conveyor and the waste plate rack are both arranged downstream of the stepping lifting platform, and the plate arrangement trolley is arranged downstream of the plate arrangement chain conveyor; the head end of the plate arrangement chain conveyor and the waste plate rack are both arranged within the working radius of the plate arrangement robot; the plate arrangement robot can transport the anode plate from the plate arrangement station to the head end of the plate arrangement chain conveyor or the waste plate rack, and the plate arrangement robot places the anode plate vertically on the plate arrangement chain conveyor.

[0019] The plate arrangement robot can carry the anode plates judged as qualified by the weighing and thickness measuring device from the plate arrangement station to the plate arrangement chain conveyor, and carry the anode plates judged as unqualified by the weighing and thickness measuring device from the plate arrangement station to the waste plate rack. The plate arrangement trolley is used to transfer the anode plates from the end of the plate arrangement chain conveyor to the plate arrangement rack.

[0020] Furthermore, in the utility model, if the output of the anode unit needs to be increased, a set of plate receiving and splitting devices, a set of plate receiving robots, a set of plate arranging robots, a set of stepping devices, a set of plate pressing devices, a set of ear milling devices, a set of weighing devices, and a set of thickness measuring devices can be added to the original unit accessories to achieve this.

[0021] The plate receiving and slicing device, the plate receiving robot, the stepping lift, the plate arranging robot and the waste plate rack constitute a first production line. The system also includes a second production line consisting of a second plate receiving and slicing device, a second plate receiving robot, a second stepping lift, a second plate arranging robot and a second waste plate rack. The second production line is connected to the plate arranging chain conveyor. The second waste plate rack and the head end of the plate arranging chain conveyor are both located within the working radius of the second plate arranging robot.

[0022] The stepping lifting platform includes a platform, a support seat, a horizontal driving mechanism, a lifting rod and a lifting driving mechanism; the platform is arranged on the ground along a straight line direction, and a support seat extending along the straight line direction is arranged in the center of the top of the platform, and the support seat is parallel to the ground; the top of the support seat can extend out of the platform and contact the anode plate, one end of the support seat is arranged with a horizontal driving mechanism, and a lifting driving mechanism is arranged below the support seat, and a lifting rod is arranged between the support seat and the lifting driving mechanism, and the lifting rod is arranged obliquely relative to the ground; one end of the support seat is connected to the output end of the horizontal driving mechanism, and both ends of the lifting rod are hingedly connected to the support seat and the output end of the lifting driving mechanism, and the horizontal driving mechanism and the lifting driving mechanism are both fixedly connected to the platform or the ground.

[0023] A lug group is arranged on each station of the stepping lifting platform. The lug group is installed on the top surface of the platform and contacts with the anode plate, and is used to provide support force for the anode plate when the anode plate descends to the workbench.

[0024] Each bump group is composed of four bumps, and the four bumps are arranged corresponding to the four corners of the anode plate respectively.

[0025] The horizontal drive mechanism and the lifting drive mechanism are both hydraulically driven; the hydraulic cylinders of the horizontal drive mechanism and the hydraulic cylinders of the lifting drive mechanism are respectively connected to the hydraulic station and powered by the hydraulic station.

[0026] The beneficial effects of the utility model are as follows:

[0027] (1) The utility model adopts a linear stepping method to replace the chain drive in the prior art, and integrates the milling ear, pressing plate, weighing, thickness measurement, and anode plate conveying into the stepping device, and various functional devices can be installed or removed at will.

[0028] (2) The utility model adopts a handling robot and a stepping mechanism, and the anode plate is transported on the stepping device in a flat-lying manner. Due to the increase in the contact area, the plate falling, the plate jamming and other faults are eliminated, and the functions of ear milling, plate pressing, weighing, thickness measurement and the like are realized easily.

[0029] (3) The utility model facilitates increasing the output of anode plates by increasing the number of devices, and has the advantages of low cost, high production efficiency, low failure rate, and easy failure handling.

[0030] (4) In the utility model, the entire press plate, milling ear, weighing and other functional stations are in a fully open state. When a plate failure occurs, maintenance personnel can easily move the plate away, and the fault handling time is greatly shortened. The fault handling can be completed within 5 minutes, thereby improving the equipment production efficiency and operation efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 A schematic diagram of the layout of the anode plate processing system provided by the utility model;

[0032] Figure 2 A schematic diagram of the working of the stepping lifting platform of the anode plate processing system provided by the utility model;

[0033] Figure 3 A schematic diagram of the functional modules of the anode plate processing system provided by the utility model;

[0034] Figure 4 This is a schematic layout diagram of two production lines of the anode plate processing system provided by the utility model.

[0035] In the figure: 1. Plate receiving and slicing device, 2. Plate receiving robot, 3. Stepping lifting platform, 31. Press, 32. Ear milling device, 33. Weighing and thickness measuring device, 4. Plate arranging robot, 5. Plate arranging chain conveyor, 6. Plate arranging rack, 7. Plate arranging trolley, 8. Waste plate rack, 9. Anode plate, 10. Second production line. DETAILED DESCRIPTION

[0036] The utility model is further described in detail below with reference to the accompanying drawings and specific embodiments.

[0037] like Figure 1 As shown, the anode plate processing system provided by the utility model includes:

[0038] The receiving plate segmenting device 1 is used for increasing the distance between the anode plates 9 by segmenting.

[0039] The plate receiving robot 2 is arranged between the plate receiving and slicing device 1 and the stepping lift 3. The end of the plate receiving and slicing device 1 is located within the working radius of the plate receiving robot 2. It is used to transport the anode plates 9 from the plate receiving and slicing device 1 to the stepping lift 3 piece by piece and place the anode plates 9 parallel to the stepping lift 3.

[0040] The stepping lift 3 is arranged downstream of the receiving plate slicing device 1. The head end of the stepping lift 3 is located within the working radius of the receiving plate robot 2, and is used to transport the anode plates 9 piece by piece to each station in a step-by-step manner. A plurality of stations are arranged in sequence and at equal intervals along the moving direction on the stepping lift 3. The moving direction of the stepping lift 3 is arranged along a straight line. The stations include a loading station, a plate arrangement station, and a number of processing stations. The loading station is arranged at the head end of the stepping lift 3. The receiving plate robot 2 places the anode plates 9 piece by piece in parallel on the loading station. The plate arrangement station is arranged at the end of the stepping lift 3. Figure 2 As shown, the stepping lifting platform 3 adopts a lifting-advancing-descending action to realize the forward transportation of the anode plate 9.

[0041] The panel arrangement robot 4 , the end of the stepping lift platform 3 , namely the panel arrangement station, is arranged within the working radius of the panel arrangement robot 4 , and is used to move the anode plate 9 on the panel arrangement station away from the stepping lift platform 3 .

[0042] Hydraulic station to provide power to the anode plate handling system.

[0043] The electric control station is used to control the anode plate handling system and supply power to the anode plate handling system.

[0044] Specifically, the distance between two adjacent processing stations, the distance between the first processing station and the loading station, and the distance between the last processing station and the plate arrangement station are all equal to the step distance of the stepping lift 3. The processing stations are used to install functional modules. The functional modules are arranged on the outer side of the stepping lift 3 in the moving direction. The functional modules are detachably installed on the stepping lift 3 or on the ground. The position of each functional module is arranged corresponding to the position of at least one processing station, and the number of functional modules is less than or equal to the number of processing stations.

[0045] As an optional implementation scheme of the present invention, Figure 3 As shown, the functional module includes a press 31, a milling ear device 32, and a weighing and thickness measuring device 33, which are arranged in sequence from front to back along the moving direction of the stepping lifting platform 3. The positions of the press 31, the milling ear device 32, and the weighing and thickness measuring device 33 correspond to the positions of a workbench. The press 31 is used to press the anode plate 9 placed horizontally; the milling ear device 32 is used to mill the anode plate 9 placed horizontally; and the weighing and thickness measuring device 33 is used to weigh and measure the thickness of the anode plate 9 placed horizontally.

[0046] Furthermore, the stepping device, the pressing plate device, the ear milling device, the weighing and thickness measuring device in the utility model are modular structures, and other functional devices can be added or the above-mentioned functional devices can be reduced or the arrangement order of the functional devices can be adjusted according to needs.

[0047] In a specific implementation, the anode plate processing system further includes a plate arrangement chain conveyor 5, a plate arrangement trolley 7 and a waste plate rack 8. The plate arrangement chain conveyor 5 and the waste plate rack 8 are both arranged downstream of the stepping lifting platform 3, and the plate arrangement trolley 7 is arranged downstream of the plate arrangement chain conveyor 5; the head end of the plate arrangement chain conveyor 5 and the waste plate rack 8 are both arranged within the working radius of the plate arrangement robot 4; the plate arrangement robot 4 can transport the anode plate 9 from the plate arrangement station to the head end of the plate arrangement chain conveyor 5 or the waste plate rack 8. And the plate arrangement robot 4 places the anode plate 9 vertically on the plate arrangement chain conveyor 5. The plate arrangement robot 4 can transport the anode plate 9 determined to be qualified by the weighing and thickness measuring device 33 from the plate arrangement station to the plate arrangement chain conveyor 5, and transport the anode plate 9 determined to be unqualified by the weighing and thickness measuring device 33 from the plate arrangement station to the waste plate rack 8. The plate arrangement trolley 7 is used to transfer the anode plate 9 from the end of the plate arrangement chain conveyor 5 to the plate arrangement rack 6.

[0048] Furthermore, the stepping device in the present invention may also be a mechanism or device such as a trolley, a push rod, a roller, etc. that can realize linear motion.

[0049] Furthermore, in the present invention, if the output of the anode unit needs to be increased, a set of receiving plate slicing device, a set of receiving plate robot, a set of plate arrangement robot, a set of stepping device, a set of plate pressing device, a set of ear milling device, a set of weighing device, a set of thickness measuring device, and a waste plate rack can be added to the original unit accessories. Figure 4 As shown, a plate receiving and slicing device 1, a plate receiving robot 2, a stepping lift 3, a plate arranging robot 4 and a waste plate rack 8 constitute a first production line. The system also includes a second production line 10 composed of a second plate receiving and slicing device, a second plate receiving robot, a second stepping lift, a second plate arranging robot and a second waste plate rack. The second production line 10 is connected to the plate arranging chain conveyor 5. The head ends of the second waste plate rack and the plate arranging chain conveyor 5 are both located within the working radius of the second plate arranging robot.

[0050] As an optional implementation scheme of the utility model, the stepping lifting platform 3 includes a platform, a support seat, a horizontal driving mechanism, a lifting rod and a lifting driving mechanism; the platform is arranged on the ground along a straight line, and a support seat extending along the straight line is arranged in the center of the top of the platform, and the support seat is parallel to the ground. The top of the support seat can extend out of the platform and contact with the anode plate 9 horizontally placed on the workstation, one end of the support seat is arranged with a horizontal driving mechanism, and a lifting driving mechanism is arranged below the support seat, and a lifting rod is arranged between the support seat and the lifting driving mechanism, and the lifting rod is arranged obliquely relative to the ground; the support seat is connected to the output end of the horizontal driving mechanism, and the two ends of the lifting rod are respectively hingedly connected to the output ends of the support seat and the lifting driving mechanism, and the horizontal driving mechanism and the lifting driving mechanism are both fixedly connected to the platform or the ground.

[0051] Furthermore, a lug group is arranged on each workstation of the stepping lifting platform 3, and the lug group is installed on the top surface of the platform and contacts with the anode plate 9, so as to provide support force for the anode plate 9 when the anode plate 9 descends to the workbench.

[0052] Optionally, each bump group is composed of at least four bumps, and positions of all the bumps are arranged corresponding to four corners of the anode plate 9 .

[0053] Specifically, the horizontal drive mechanism and the lifting drive mechanism are both hydraulically driven, and the hydraulic cylinder of the horizontal drive mechanism and the hydraulic cylinder of the lifting drive mechanism are respectively connected to the hydraulic station and powered by the hydraulic station.

[0054] The working process of the utility model is specifically as follows:

[0055] 1) The anode plate 9 is placed on the receiving plate slicing device 1 by a forklift or other tools, and the receiving plate slicing device 1 performs slicing to separate the distances between the anode plates 9;

[0056] 2) The receiving plate robot 2 moves the anode plate 9 away from the end of the receiving plate slicing device 1 and places the anode plate 9 horizontally on the loading station at the head end of the stepping lifting platform 3. At this time, the anode plate 9 is converted from a vertical state to a lying state; the stepping lifting platform 3 steps forward to transport the anode plate 9 to the next station. The stepping process of the stepping lifting platform 3 is specifically as follows:

[0057] The support seat rises and lifts up the anode plate 9 to separate the anode plate 9 from the bump, and at the same time, the support seat drives the anode plate 9 to move synchronously toward the end of the stepping lift 3. After the support seat rises to the highest point, it drives the anode plate 9 to move toward the end of the stepping lift 3 and starts to descend. As the support seat descends, the anode plate 9 separates from the support seat and falls on the workbench; after the support seat descends to the lowest point, the support seat moves horizontally toward the head end of the stepping lift 3 to the starting point;

[0058] 3) The stepping lifting platform 3 transfers the anode plate 9 to the press machine 31 for plate pressing. After the plate pressing is completed, the stepping lifting platform 3 transfers the anode plate 9 to the ear milling device 32 for ear milling. After the ear milling is completed, the stepping lifting platform 3 transfers the anode plate 9 to the weighing and thickness measuring device 33 for weighing and thickness measuring. The weighing and thickness measuring device 33 determines whether the anode plate 9 is qualified. After the weighing and thickness measuring are completed, the stepping lifting platform 3 transfers the anode plate 9 to the plate arrangement station;

[0059] 4) The anode plates 9 that are qualified by the weighing and thickness measuring device 33 are transported by the plate arrangement robot 4 to the plate arrangement chain conveyor 5. At this time, the anode plates 9 are converted from a lying state to a vertical state, and the anode plates 9 that are unqualified by the weighing and thickness measuring device 33 are transported by the plate arrangement robot 4 to the waste plate rack 8. The plate arrangement chain conveyor 5 arranges the anode plates 9 according to the specified pole pitch. After the arrangement of the entire tank of anode plates 9 is completed, the plate arrangement trolley 7 transfers the anode plates 9 from the plate arrangement chain conveyor 5 to the arrangement rack, waiting for the hoist to load the entire tank of anode plates 9 into the electrolytic cell.

[0060] The entire anode unit system is powered and controlled by an electronic control system and powered by power components such as a hydraulic station.

[0061] The existing unit can process less than 500 anode plates per hour (under no fault conditions). The anode unit in the utility model can process ≥550 plates per hour for a single functional station module (including only the first production line), and ≥1000 plates per hour for two functional station modules (including the first production line and the second production line).

[0062] In the utility model, the entire pressing plate, ear milling, weighing and other functional stations are in a fully open state. When a plate failure occurs, maintenance personnel can easily move the plate away, and the fault handling time is greatly shortened. The fault handling can be completed within 5 minutes, thereby improving the production efficiency and operation efficiency of the equipment.

[0063] The utility model is introduced in detail above. The utility model is described in detail in this article by applying specific examples. The above content is used to explain the utility model instead of limiting the utility model. Any modifications and changes made to the utility model within the spirit of the utility model and the protection scope of the claims shall fall within the protection scope of the utility model.

Claims

1. An anode plate processing system, characterized in that: The anode plate processing system comprises: Receiving plate segmentation device (1); A plate receiving robot (2) is arranged between the plate receiving and slicing device (1) and the stepping and lifting platform (3), the end of the plate receiving and slicing device (1) being located within the working radius of the plate receiving robot (2); and is used for carrying anode plates piece by piece from the plate receiving and slicing device (1) and placing the anode plates in parallel on the stepping and lifting platform (3); A stepping lifting platform (3) is arranged downstream of the plate receiving and slicing device (1), and a plurality of workstations are arranged in sequence and at equal intervals along a moving direction on the stepping lifting platform (3), and the moving direction is arranged along a straight line. The workstations include a loading station, a plate arranging station, and a plurality of processing stations. The loading station is arranged at the head end of the stepping lifting platform (3) and is located within the working radius of the plate receiving robot (2), and the plate arranging station is arranged at the end of the stepping lifting platform (3); A panel arrangement robot (4), wherein the panel arrangement station of the stepping lifting platform (3) is arranged within the working radius of the panel arrangement robot (4); A hydraulic station for providing power to the anode plate processing system; The electric control station is used to control the anode plate processing system and supply power to the anode plate processing system.

2. An anode plate processing system according to claim 1, characterized in that: The distance between two adjacent processing stations, the distance between the first processing station and the loading station, and the distance between the last processing station and the panel arrangement station are all equal to the step distance of the stepping lifting platform (3).

3. The anode plate processing system according to claim 1, characterized in that: Functional modules are arranged on the outside of the stepping lift (3), and the functional modules are detachably mounted on the stepping lift (3) or on the ground; the position of each functional module corresponds to the position of at least one processing station, and the number of the functional modules is less than or equal to the number of the processing stations.

4. The anode plate processing system according to claim 3, characterized in that: The functional module comprises a press (31), an ear milling device (32), and a weighing and thickness measuring device (33) which are arranged in sequence along the moving direction.

5. The anode plate processing system according to claim 4, characterized in that: The anode plate processing system further comprises a plate arrangement chain conveyor (5), a plate arrangement trolley (7) and a waste plate rack (8); the plate arrangement chain conveyor (5) and the waste plate rack (8) are both arranged downstream of the stepping lifting platform (3), and the plate arrangement trolley (7) is arranged downstream of the plate arrangement chain conveyor (5); the head end of the plate arrangement chain conveyor (5) and the waste plate rack (8) are both arranged within the working radius of the plate arrangement robot (4); the plate arrangement robot (4) is capable of transporting the anode plate from the plate arrangement station to the head end of the plate arrangement chain conveyor (5) or the waste plate rack (8), and the plate arrangement robot (4) places the anode plate vertically on the plate arrangement chain conveyor (5).

6. The anode plate processing system according to claim 5, characterized in that: The plate receiving and separating device (1), the plate receiving robot (2), the stepping lifting platform (3), the plate arranging robot (4) and the waste plate rack (8) constitute a first production line. The system also comprises a second production line (10) constituted by a second plate receiving and separating device, a second plate receiving robot, a second stepping lifting platform, a second plate arranging robot and a second waste plate rack. The second production line (10) is connected to the plate arranging chain conveyor (5). The second waste plate rack and the head end of the plate arranging chain conveyor (5) are both located within the working radius of the second plate arranging robot.

7. The anode plate processing system according to claim 1, characterized in that: The stepping lifting platform (3) comprises a platform, a support seat, a horizontal driving mechanism, a lifting rod and a lifting driving mechanism; the platform is arranged on the ground along a straight line direction, and a support seat extending along the straight line direction is arranged in the center of the top of the platform, and the support seat is parallel to the ground; the top of the support seat can extend out of the platform and contact the anode plate, one end of the support seat is arranged with a horizontal driving mechanism, and a lifting driving mechanism is arranged below the support seat, and a lifting rod is arranged between the support seat and the lifting driving mechanism, and the lifting rod is arranged obliquely relative to the ground; the support seat is connected to the output end of the horizontal driving mechanism, and the two ends of the lifting rod are respectively hingedly connected to the support seat and the output end of the lifting driving mechanism.

8. An anode plate processing system according to claim 7, characterized in that: A convex block group is arranged on each workstation of the stepping lifting platform (3); the convex block group is mounted on the top surface of the platform and is in contact with the anode plate.

9. An anode plate processing system according to claim 8, characterized in that: Each bump group is composed of four bumps, and the four bumps are arranged corresponding to the four corners of the anode plate respectively.

10. The anode plate processing system according to claim 7, characterized in that: The horizontal drive mechanism and the lifting drive mechanism are both hydraulically driven; the hydraulic cylinder of the horizontal drive mechanism and the hydraulic cylinder of the lifting drive mechanism are respectively connected to the hydraulic station.

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