A kind of electrolytic copper foil anode plate manufacturing and processing equipment and process

Abstract

The present invention belongs to the field of anode plate processing, and in particular, relates to an electrolytic copper foil anode plate manufacturing and processing equipment, including a processing table, a rectangular through hole is provided in the middle of the top of the processing table, a T-shaped first receiving platform is provided in the through hole, and a plurality of drilling grooves are provided on the upper part of the first receiving platform, a U-shaped cutting gap is formed between the inner wall of the through hole and the upper outer wall of the first receiving platform, and two front-to-back symmetrical first sliding mechanisms are provided on the top of the processing table, and two first electric push rods are provided on the first sliding mechanism. The present invention can facilitate the loading and unloading of anode plates and the positioning of stacked anode plates, and can realize the two processes of drilling and cutting of anode plates at the same station, which greatly reduces the difficulty of positioning anode plates during processing and shortens the positioning operation time, thereby improving the processing efficiency of anode plates.

Description

Technical Field

[0001] The invention belongs to the field of anode plate processing, and in particular relates to an electrolytic copper foil anode plate manufacturing and processing device and process. Background Art

[0002] The electrolytic copper foil anode plate is used to form a part of the electrolytic cell in the process of producing electrolytic copper foil. Its main function is to serve as the positive electrode (anode) in the electrolytic process. In the production process of electrolytic copper foil, the anode plate needs to have good conductivity, chemical stability and mechanical strength because they are in direct contact with the electrolyte and withstand oxidation reactions during the electrolysis process.

[0003] During the production of anode plates, the anode plate substrate needs to be cut and trimmed by a cutting device to ensure that the size of the anode plate meets the subsequent installation requirements. Similarly, in order to facilitate the subsequent assembly of the anode plate, a plurality of through holes need to be drilled on the anode plate by a drilling device.

[0004] At present, when cutting and drilling anode plates, they are usually done separately, and then transported to a suitable location for drilling. The two processes of cutting and drilling take a long time, especially for some anode plates with small thickness and need to be manufactured in large quantities. The efficiency of this conventional cutting and drilling equipment needs to be improved. In addition, each cutting or drilling requires positioning of the anode plate, which is cumbersome and time-consuming. Summary of the invention

[0005] In view of the above problems, an electrolytic copper foil anode plate manufacturing and processing equipment and process provided in an embodiment of the present application can facilitate the loading and unloading of the anode plates while facilitating the positioning of the stacked anode plates, and can realize the two processes of drilling and cutting of the anode plates at the same work station, which greatly reduces the difficulty of positioning the anode plates during processing and shortens the positioning operation time, thereby improving the processing efficiency of the anode plates.

[0006] In order to achieve the above-mentioned purpose, the embodiment of the present application provides the following technical solutions: The present invention provides an electrolytic copper foil anode plate manufacturing and processing equipment, including a processing table, a rectangular through hole is opened in the middle of the top of the processing table, a T-shaped first receiving platform is arranged in the through hole, and a plurality of drilling grooves are opened on the upper part of the first receiving platform, and a cutting gap in the shape of a circle is formed between the inner wall of the through hole and the upper outer wall of the first receiving platform, two front-to-back symmetrical first sliding mechanisms are arranged on the top of the processing table, two first electric push rods are arranged on the first sliding mechanism, and the telescopic ends of the four first electric push rods are commonly connected to a positioning mechanism for fixing the anode plate stacked on the first receiving platform, and a second sliding mechanism is arranged at the bottom of the processing table, and a cutting mechanism and a drilling mechanism are connected to the second sliding mechanism. The positioning mechanism includes a rectangular mounting frame fixedly connected to the telescopic ends of the four first electric push rods, and the bottom of the four corners of the mounting frame are all rotatably provided with a rotating shaft, and the lower end of the rotating shaft is fixedly provided with a connecting plate, and the end of the connecting plate away from the rotating shaft is fixedly connected with a positioning cylinder. A worm wheel is fixedly arranged on the rotating shaft, and bidirectional worms are rotatably arranged at the bottoms of the front and rear ends of the mounting frame. The bidirectional worms are meshingly connected with the corresponding two worm wheels, and a linkage assembly is arranged between the left ends of the two bidirectional worms. The right end of any bidirectional worm is connected to a first motor fixedly arranged on the right outer wall of the mounting frame.

[0007] According to a favorable embodiment, a first gear and a plurality of half gears meshing with the first gear are rotatably provided at the bottom of the positioning cylinder, an arc-shaped baffle is fixedly connected to the outer wall of the half gear, a second motor is fixedly provided at the top of the positioning cylinder, and the output shaft of the second motor is fixedly connected to the first gear.

[0008] According to a favorable embodiment, the linkage assembly includes a second gear and a third gear which are rotatably arranged at the front end of the right side of the mounting frame and mesh with each other, the second gear is fixedly connected to the bidirectional worm gear at the bottom of the front end of the mounting frame, and the end of the third gear is connected to the corresponding end of the bidirectional worm gear at the bottom of the rear end of the mounting frame through a sprocket set.

[0009] According to a favorable embodiment, a loading platform is fixedly connected to the left side wall of the processing table, and a second receiving platform is fixedly arranged at the middle position of the top of the loading platform; two extended support bars are fixedly arranged on the left and right sides of the processing table, and the first sliding mechanism includes two first slide rails that are symmetrical front and back and extend in the left and right directions, and the first slide rails are fixedly arranged on the processing table and the tops of the two extended support bars opposite to each other on the left and right. A first screw is rotatably arranged on the first slide rail, and two first slide seats are threadedly connected to the first screw, and the first electric push rod is fixedly arranged on the top of the first slide seat, and a third motor is fixedly arranged on the left end of any one of the first slide rails, and the output shaft of the third motor is fixedly connected to the corresponding first screw, and the right ends of the two first screws are connected through a second sprocket group.

[0010] According to a favorable embodiment, the second sliding mechanism includes two second slide rails fixedly arranged at the bottom of the processing table and symmetrically arranged front and back, a second screw is rotatably arranged on the two second slide rails, a second slide seat is threadedly connected to the second screw, a fourth motor is fixedly arranged on the left end of any second slide rail, an output shaft of the fourth motor is fixedly connected to the corresponding second screw, the right ends of the two second screws are connected through a sprocket group three transmission connection, a column is fixedly connected to the bottom of the second slide seat, the bottom ends of the two columns are commonly fixedly connected to the third slide rail, a third screw is rotatably arranged on the third slide rail, a third slide seat is threadedly connected to the third screw, and two guide rods that movably pass through the third slide seat are fixedly arranged on the third slide rail, a fifth motor is fixedly arranged on the front side wall of the third slide rail, and the output shaft of the fifth motor is fixedly connected to the third screw.

[0011] According to a favorable embodiment, the cutting mechanism includes a plurality of second electric push rods fixedly arranged on the top of the third slide seat, the telescopic ends of the plurality of second electric push rods are commonly fixedly connected to a circular plate, a sixth motor is fixedly arranged in the middle of the bottom of the circular plate, and the output shaft of the sixth motor is connected to a cutting machine body.

[0012] According to a favorable embodiment, a support seat is fixedly provided on both left and right sides of the bottom of the cutting machine body, a ball is movably provided on the bottom of the support seat, and the ball is rolled on the top of the circular plate.

[0013] According to a favorable embodiment, the drilling mechanism includes two L-shaped brackets, which are fixedly connected to corresponding columns. The upper ends of the two brackets are commonly fixedly connected to a cross beam, and a third electric push rod is fixedly provided on the cross beam. The telescopic end of the third electric push rod is fixedly connected to two drilling machine bodies.

[0014] According to a favorable embodiment, a spring is sleeved on the upper surface of the positioning cylinder, the upper end of the spring is fixedly connected to the positioning cylinder, and a pressure ring is movably sleeved on the surface of the positioning cylinder, the top of the pressure ring is fixedly connected to the lower end of the spring.

[0015] A manufacturing process for an electrolytic copper foil anode plate comprises the following steps:

[0016] S1. Stacking: Stack the anode plates one by one on the second receiving platform through the transportation device.

[0017] S2, taking and placing materials, moving the positioning mechanism to the top of the second receiving platform through the first sliding mechanism to take materials, and transporting the lifted multiple anode plates to the top of the first receiving platform and placing them down.

[0018] S3, aligning the anode plate: the anode plate stacked on the first receiving platform is aligned by the positioning mechanism in cooperation with the first electric push rod.

[0019] S4, drilling positioning, the positioning mechanism cooperates with the first electric push rod to move the four positioning cylinders to the front and rear sides of the anode plate respectively, and abut the anode plate.

[0020] S5, drilling, drilling holes in the anode plate through the drilling mechanism cooperating with the second sliding mechanism.

[0021] S6. Cutting and positioning: the positioning mechanism cooperates with the first electric push rod to move the four positioning cylinders and insert them into the holes drilled on the anode plate to reposition the anode plate.

[0022] S7, cutting, cutting the anode plate by the cutting mechanism in cooperation with the second sliding mechanism, and removing the redundant part of the side of the anode plate.

[0023] S8, discharging, lifting the anode plate after drilling and cutting through the positioning mechanism and the first electric push rod, and then transporting the anode plate to the right side of the processing table through the first sliding mechanism, placing it in the external transport device, and transporting it to the next process for processing.

[0024] Compared with the prior art, the electrolytic copper foil anode plate manufacturing and processing equipment and process provided by the embodiment of the present invention have the following beneficial effects:

[0025] 1. In the present invention, the positioning mechanism is not only capable of aligning the anode plates stacked on the first receiving platform, but also capable of limiting and fixing the anode plates in different ways according to the processing steps. Multiple anode plates can be fixed at the same time for cutting and drilling, which greatly reduces the difficulty of positioning the anode plates during processing and shortens the positioning operation time, thereby improving the processing efficiency of the anode plates.

[0026] 2. In the present invention, the first sliding mechanism can cooperate with the positioning mechanism to realize automatic loading of the anode plate before processing and unloading of the anode plate after processing, making loading and unloading simpler and more convenient.

[0027] 3. The second sliding mechanism of the present invention can cooperate with the cutting mechanism and the drilling mechanism to realize the two processes of drilling and cutting of the anode plate at the same station, thereby reducing the operating steps during processing and improving the drilling and cutting efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is the external overall three-dimensional structure diagram of the present invention.

[0029] Figure 2 This is a diagram of the external connection structure of the processing table, the first receiving table and the loading table in the present invention.

[0030] Figure 3 It is a side plan view of the structure of the present invention.

[0031] Figure 4 It is a top plan structural diagram of the present invention.

[0032] Figure 5 This is a diagram of the external connection structure of the second sliding mechanism, cutting mechanism and drilling mechanism in the present invention.

[0033] Figure 6 It is a diagram of the external connection structure of the first sliding mechanism and the positioning mechanism in the present invention.

[0034] Figure 7 It is an enlarged view of the local structure of the positioning mechanism in the present invention.

[0035] Figure 8 for Figure 7 A magnified structural diagram of part A.

[0036] Fig. 9 This is an enlarged view of the local structure of the positioning tube in the present invention.

[0037] Reference numerals in the figure: 1, processing table; 2, first receiving table; 201, drilling groove; 3, cutting gap; 4, first sliding mechanism; 401, first slide rail; 402, first screw; 403, first slide seat; 5, first electric push rod; 6, positioning mechanism; 601, mounting frame; 602, rotating shaft; 603, connecting plate; 604, positioning cylinder; 605, worm gear; 606, bidirectional worm; 607, linkage assembly; 6071, second gear; 6072, third gear; 7, second sliding mechanism; 701, second slide rail; 702, second screw; 703, second slide; 704, column; 705, third slide rail; 706, third screw; 707, third slide; 8, cutting mechanism; 801, second electric push rod; 802, circular plate; 803, cutting machine body; 804, support seat; 9, drilling mechanism; 901, bracket; 902, crossbeam; 903, third electric push rod; 904, drilling machine body; 10, first gear; 11, half gear; 12, stop bar; 13, loading platform; 14, second receiving platform; 15, extension support bar; 16, spring; 17, pressure ring; 18, anode plate. DETAILED DESCRIPTION

[0038] The following is combined with Figure 1-9 The present application is further described in detail.

[0039] Please refer to Figure 1 , Figure 2 , Figure 3 and Figure 4 , a manufacturing and processing equipment for electrolytic copper foil anode plates, comprising a processing table 1, a rectangular through hole is opened in the middle of the top of the processing table 1, a T-shaped first receiving table 2 is arranged in the through hole, and a plurality of drilling grooves 201 are opened on the upper part of the first receiving table 2, a U-shaped cutting gap 3 is formed between the inner wall of the through hole and the upper outer wall of the first receiving table 2, two front-to-back symmetrical first sliding mechanisms 4 are arranged on the top of the processing table 1, two first electric push rods 5 are arranged on the first sliding mechanism 4, and the telescopic ends of the four first electric push rods 5 are commonly connected with a positioning mechanism 6 for fixing the anode plate 18 stacked on the first receiving table 2, a second sliding mechanism 7 is arranged at the bottom of the processing table 1, and a cutting mechanism 8 and a drilling mechanism 9 are connected to the second sliding mechanism 7. When drilling, the side of the anode plate 18 stacked on the first receiving table 2 can be positioned by the positioning mechanism 6. Then, when cutting, the anode plate 18 can be re-positioned by the positioning mechanism 6 in conjunction with the holes drilled on the anode plate 18, so that the cutting mechanism 8 can cut and trim the side of the anode plate 18.

[0040] See also Figure 1 , Figure 2 , Figure 6A loading platform 13 is fixedly connected to the left side wall of the processing table 1, and a second receiving platform 14 is fixedly arranged at the middle position of the top of the loading platform 13. Two extension support bars 15 are fixedly arranged on the left and right sides of the processing table 1. The first sliding mechanism 4 includes two first slide rails 401 that are symmetrical in front and back and extend in the left and right directions. The first slide rails 401 are fixedly arranged on the processing table 1 and the tops of the two extension support bars 15 opposite to each other on the left and right. A first screw rod 402 is rotatably arranged on the first slide rail 401, and two first slide seats 403 are threadedly connected to the first screw 402. The first electric push rod 5 is fixedly arranged on the top of the first slide seat 403, and a third motor is fixedly arranged on the left end of any first slide rail 401. The output shaft of the third motor is fixedly connected to the corresponding first screw rod 402, and the right ends of the two first screw rods 402 are transmission connected through the second sprocket group.

[0041] In order to facilitate the loading and unloading of the anode plates 18, the anode plates 18 are transported one by one from the previous process to the second receiving platform 14 through an external loading device, and then the first screw 402 is driven to rotate by the third motor, so that the first slide 403 can drive the positioning mechanism 6 to approach the top of the second receiving platform 14, and then the first electric push rod 5 cooperates with the positioning mechanism 6 to lift all the anode plates 18 stacked on the second receiving platform 14 at the same time, and then moved and transported to the top of the first receiving platform 2 by the first slide 403 and put down.

[0042] See also Figure 1 , Figure 6 , Figure 7 and Figure 8The positioning mechanism 6 includes a rectangular mounting frame 601 which is fixedly connected to the telescopic ends of the four first electric push rods 5. The bottom of the four corners of the mounting frame 601 are rotatably provided with a rotating shaft 602. A connecting plate 603 is fixedly provided at the lower end of the rotating shaft 602. A positioning cylinder 604 is fixedly connected to the end of the connecting plate 603 away from the rotating shaft 602. A worm gear 605 is fixedly provided on the rotating shaft 602. A bidirectional worm 606 is rotatably provided at the bottom of the front and rear ends of the mounting frame 601. The bidirectional worm 606 is meshed with the corresponding two worm gears 605. A linkage assembly 607 is provided between the left ends of the two bidirectional worm gears 606. The linkage assembly 607 includes a second gear 6071 and a third gear 6072 which are rotatably provided at the front end of the right side of the mounting frame 601 and meshed with each other. The second gear 6071 is fixedly connected to the bidirectional worm 606 at the bottom of the front end of the mounting frame 601, and the third gear 6072 is connected to the bidirectional worm 606 at the bottom of the rear end of the mounting frame 601 through a sprocket group 1. The right end of any bidirectional worm 606 is connected to a first motor fixedly arranged on the right outer wall of the installation frame 601. A spring 16 is sleeved on the upper end surface of the positioning cylinder 604, and the upper end of the spring 16 is fixedly connected to the positioning cylinder 604. A pressure ring 17 is also movably sleeved on the surface of the positioning cylinder 604, and the top of the pressure ring 17 is fixedly connected to the lower end of the spring 16. The first motor drives the bidirectional worm 606 to rotate, and the third gear 6072 rotates through the second gear 6071. The third gear 6072 rotates through the sprocket set 1 to rotate the bidirectional worm 606 at the rear end of the installation frame 601, so that the two bidirectional worms 606 can rotate at the same time, driving the four worm wheels 605 to rotate. The four worm wheels 605 can drive the rotating shaft 602 to rotate, so that the connecting plate 603 swings to drive the corresponding positioning cylinder 604 to move.

[0043] In order to facilitate the limiting and fixing of the anode plate 18, the first motor can drive the bidirectional worm gear 606 to rotate, and then cooperate with the linkage assembly 607, so that each connecting plate 603 swings, so that the corresponding positioning cylinder 604 moves, and the corresponding left and right positioning cylinders 604 swing in opposite directions. Before drilling, the four positioning cylinders 604 cooperate with the first electric push rod 5 to move to the left and right sides of the anode plate 18 respectively to abut, and align the anode plate 18 left and right. Then, the four positioning cylinders 604 cooperate with the first electric push rod 5 to move to the front and back sides of the anode plate 18 to abut, and align the front and back of the anode plate 18, so that the anode plate 18 stacked on the first receiving platform 2 can be aligned during the abutment process, thereby eliminating the position deviation that may occur during the transportation of the anode plate 18 from the second receiving platform 14 to the first receiving platform 2. In addition, during the process of aligning the anode plate 18, the lower end of the positioning cylinder 604 can come into contact with the side of the anode plate 18 at the bottom of the first receiving platform 2, and at the same time, the pressure ring 17 at the upper end of the positioning cylinder 604 is suspended above the top anode plate 18 to ensure that the pressure ring 17 does not conflict with the anode plate 18. Later, when drilling, the four positioning cylinders 604 are rotated to the front and rear sides of the anode plate 18 respectively, and then the first electric push rod 5 is further contracted to move the positioning cylinder 604 downward, driving the pressure ring 17 downward, so that the pressure ring 17 can be pressed and fixed with the top anode plate 18, and then Then the second sliding mechanism 7 cooperates with the drilling mechanism 9 to drill multiple anode plates 18 at the same time. After the drilling is completed, the four positioning cylinders 604 cooperate with the first electric push rod 5 to rotate to the top of the holes opened on the anode plate 18, so that the four positioning cylinders 604 can be inserted into the holes on the surface of the anode plate 18 respectively (the diameter of the positioning cylinder 604 is slightly smaller than the diameter of the hole on the anode plate 18), and at the same time the pressure ring 17 abuts against the surface of the anode plate 18 again to fix the anode plate 18 again. At this time, the cutting mechanism 8 can cooperate with the second sliding mechanism 7 to cut and trim around the edge of the anode plate 18.

[0044] See also Figure 6 and Fig. 9 A first gear 10 and a plurality of half gears 11 meshing with the first gear 10 are rotatably provided at the bottom of the positioning cylinder 604, an arc-shaped baffle 12 is fixedly connected to the outer wall of the half gear 11, and a second motor is fixedly provided at the top of the positioning cylinder 604, and the output shaft of the second motor is fixedly connected to the first gear 10.

[0045] In order to facilitate the transportation of the stacked anode plates 18, the first gear 10 is driven to rotate by the second motor, so that all the half gears 11 can rotate, and the baffle 12 originally closed at the bottom of the positioning cylinder 604 is rotated and opened, so that the baffle 12 extends outward from the bottom of the positioning cylinder 604. When the anode plate 18 needs to be lifted from the second receiving platform 14, the four positioning cylinders 604 are moved to the front and rear sides of the anode plate 18, and the lower end of the positioning cylinder 604 is lower than the lowest anode plate 18, and then the baffle 12 at the bottom of the positioning cylinder 604 is opened, and then the positioning cylinder 604 rises under the drive of the first electric push rod 5, so that the baffle 12 can contact the bottom edge of the lowest anode plate 18, and under the action of the baffle 12, all the anode plates 18 can be lifted and transported to the first receiving platform 2. Similarly, when the processing of the anode plate 18 on the first receiving platform 2 is completed, at this time, the lower end of the positioning cylinder 604 is inserted into the drilling groove 201 on the surface of the first receiving platform 2, and the baffle 12 is opened, and then the first electric push rod 5 drives the positioning cylinder 604 to rise, so that all the anode plates 18 can be lifted and moved out from the right side of the processing table 1, and then transported to the next process for processing through an external transportation device.

[0046] See also Figure 1 , Figure 3 and Figure 5 The second sliding mechanism 7 includes two second slide rails 701 fixedly arranged at the bottom of the processing table 1 and symmetrically arranged front and back, the two second slide rails 701 are rotatably provided with second screws 702, and the second slide seat 703 is threadedly connected to the second screw 702. A fourth motor is fixedly arranged at the left end of any second slide rail 701, and the output shaft of the fourth motor is fixedly connected to the corresponding second screw 702. The right ends of the two second screws 702 are connected through a sprocket group three transmission connection, and a column 704 is fixedly connected to the bottom of the second slide seat 703, and the bottom ends of the two columns 704 are commonly fixedly connected to a third slide rail 705, a third screw 706 is rotatably arranged on the third slide rail 705, and a third slide seat 707 is threadedly connected to the third screw 706, and two guide rods that movably penetrate the third slide seat 707 are fixedly arranged on the third slide rail 705, and a fifth motor is fixedly arranged on the front side wall of the third slide rail 705, and the output shaft of the fifth motor is fixedly connected to the third screw 706. The second screw 702 is driven to rotate by the fourth motor, and in conjunction with the second sprocket group, the two second screws 702 can rotate simultaneously, driving the corresponding two second slides 703 to move left and right, so that the drilling mechanism 9 connected to the third slide 707 through the column 704 can move left and right for drilling. At the same time, the fifth motor can drive the third screw 706 to rotate, driving the third slide 707 to move forward and backward, so that the cutting mechanism 8 connected to the third slide 707 can move left and right and forward and backward for cutting processing.

[0047] See also Figure 3 and Figure 5 The cutting mechanism 8 includes a plurality of second electric push rods 801 fixedly arranged on the top of the third slide seat 707, and the telescopic ends of the plurality of second electric push rods 801 are fixedly connected to a circular plate 802. A sixth motor is fixedly arranged in the middle of the bottom of the circular plate 802, and the output shaft of the sixth motor is connected to a cutting machine body 803. A support seat 804 is fixedly arranged on both sides of the bottom of the cutting machine body 803, and a ball is movably arranged at the bottom of the support seat 804, and the ball is rolled on the top of the circular plate 802. The second electric push rod 801 can drive the cutting saw blade in the cutting machine body 803 to pass through the cutting gap 3 to cut and trim the edge of the anode plate 18, and at the same time, the sixth motor drives the cutting machine body 803 to change the direction to cooperate with the cutting. At the same time, the cutting machine body 803 cooperates with the ball through the support seat 804 to improve the stability of the cutting machine body 803 during operation.

[0048] See also Figure 1 and Figure 3 The drilling mechanism 9 includes two L-shaped brackets 901, the brackets 901 are fixedly connected to the corresponding columns 704, the upper ends of the two brackets 901 are fixedly connected to a crossbeam 902, a third electric push rod 903 is fixedly arranged on the crossbeam 902, and the telescopic end of the third electric push rod 903 is fixedly connected to two drilling machine bodies 904. The telescopic end of the third electric push rod 903 can drive the two drilling machine bodies 904 to move downward at the same time, and perform drilling processing on the preset position on the anode plate 18.

[0049] A manufacturing process of an electrolytic copper foil anode plate used in the above-mentioned processing equipment comprises the following steps:

[0050] S1, stacking, stacking the anode plates 18 one by one on the second receiving platform 14 by means of a transport device;

[0051] S2, picking up and placing down materials, the positioning mechanism 6 is moved to the top of the second receiving platform 14 through the first sliding mechanism 4 to pick up materials, and the lifted multiple anode plates 18 are transported to the top of the first receiving platform 2 and placed down.

[0052] S3, the anode plate 18 is aligned. The anode plate 18 stacked on the first receiving platform 2 is aligned by the positioning mechanism 6 in cooperation with the first electric push rod 5 .

[0053] S4, drilling positioning, the positioning mechanism 6 cooperates with the first electric push rod 5 to move the four positioning cylinders 604 to the front and rear sides of the anode plate 18 respectively, and abut the anode plate 18;

[0054] S5 , drilling, drilling holes in the anode plate 18 by means of the drilling mechanism 9 cooperating with the second sliding mechanism 7 .

[0055] S6, cutting and positioning, the positioning mechanism 6 cooperates with the first electric push rod 5 to move the four positioning cylinders 604 and insert them into the holes drilled on the anode plate 18 to re-position the anode plate 18.

[0056] S7, cutting, the anode plate 18 is cut by the cutting mechanism 8 in cooperation with the second sliding mechanism 7, and the redundant part of the side of the anode plate 18 is removed.

[0057] S8, discharging, lifting the anode plate 18 after drilling and cutting through the positioning mechanism 6 and the first electric push rod 5, and then transporting the anode plate 18 to the right side of the processing table 1 through the first sliding mechanism 4, placing it in an external transportation device, and transporting it to the next process for processing.

[0058] The above descriptions are merely embodiments of the present invention and are not intended to limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made 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 manufacturing and processing device for electrolytic copper foil anode plate, comprising a processing table (1), characterized in that: A rectangular through hole is provided in the middle of the top of the processing table (1), a first receiving table (2) in the shape of a T is arranged in the through hole, and a plurality of drilling grooves (201) are provided on the upper part of the first receiving table (2), a cutting gap (3) in the shape of a circle is formed between the inner wall of the through hole and the outer wall of the upper end of the first receiving table (2), two first sliding mechanisms (4) symmetrical in front and back are provided on the top of the processing table (1), two first electric push rods (5) are provided on the first sliding mechanism (4), and the telescopic ends of the four first electric push rods (5) are commonly connected to a positioning mechanism (6) for fixing the anode plate (18) stacked on the first receiving table (2), and a second sliding mechanism (7) is provided at the bottom of the processing table (1), and a cutting mechanism (8) and a drilling mechanism (9) are connected to the second sliding mechanism (7); The positioning mechanism (6) comprises a mounting frame (601) which is fixedly connected to the telescopic ends of the four first electric push rods (5) and has a rectangular structure, and the bottom of the four corners of the mounting frame (601) are rotatably provided with a rotating shaft (602), and a connecting plate (603) is fixedly provided at the lower end of the rotating shaft (602), and a positioning cylinder (604) is fixedly connected to one end of the connecting plate (603) away from the rotating shaft (602); A worm wheel (605) is fixedly arranged on the rotating shaft (602), and bidirectional worm gears (606) are rotatably arranged at the bottoms of both the front and rear ends of the installation frame (601), and the bidirectional worm gears (606) are meshedly connected with the two corresponding worm gears (605). A linkage assembly (607) is arranged between the left ends of the two bidirectional worm gears (606), and the right end of any bidirectional worm gear (606) is connected to a first motor fixedly arranged on the right outer wall of the installation frame (601).

2. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 1 is characterized in that: A first gear (10) and a plurality of half gears (11) meshing with the first gear (10) are rotatably arranged at the bottom of the positioning cylinder (604); an arc-shaped blocking bar (12) is fixedly connected to the outer wall of the half gear (11); a second motor is fixedly arranged at the top of the positioning cylinder (604); and an output shaft of the second motor is fixedly connected to the first gear (10).

3. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 1, characterized in that: The linkage assembly (607) comprises a second gear (6071) and a third gear (6072) which are rotatably arranged at the front end of the right side of the installation frame (601) and mesh with each other, the second gear (6071) being fixedly connected to a bidirectional worm gear (606) at the bottom of the front end of the installation frame (601), and an end of the third gear (6072) being transmission-connected to an end corresponding to the bidirectional worm gear (606) at the bottom of the rear end of the installation frame (601) via a sprocket assembly.

4. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 2, characterized in that: A loading platform (13) is fixedly connected to the left side wall of the processing table (1), and a second receiving platform (14) is fixedly arranged at the middle position of the top of the loading platform (13); two extension support bars (15) are fixedly arranged on the left and right sides of the processing table (1); the first sliding mechanism (4) comprises two first slide rails (401) that are symmetrical in front and back and extend in the left and right directions; the first slide rails (401) are fixedly arranged on the processing table (1) and the tops of the two extension support bars (15) opposite to each other on the left and right; a first screw rod (402) is rotatably arranged on the first slide rail (401); two first slide seats (403) are threadedly connected to the first screw rod (402); the first electric push rod (5) is fixedly arranged on the top of the first slide seat (403); and a third motor is fixedly arranged on the left end of any one of the first slide rails (401); the output shaft of the third motor is fixedly connected to the corresponding first screw rod (402); and the right ends of the two first screw rods (402) are transmission connected through a second sprocket group.

5. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 1, characterized in that: The second sliding mechanism (7) comprises two second slide rails (701) fixedly arranged at the bottom of the processing table (1) and symmetrical in front and back, the two second slide rails (701) are rotatably provided with second screw rods (702), the second screw rods (702) are threadedly connected with a second slide seat (703), a fourth motor is fixedly arranged at the left end of any second slide rail (701), the output shaft of the fourth motor is fixedly connected to the corresponding second screw rod (702), the right ends of the two second screw rods (702) are transmission connected via a sprocket group, and the second slide seat (703) is A column (704) is fixedly connected to the bottom, and the bottom ends of the two columns (704) are commonly fixedly connected to a third slide rail (705), a third screw rod (706) is rotatably arranged on the third slide rail (705), a third slide seat (707) is threadedly connected to the third screw rod (706), and two guide rods that movably penetrate the third slide seat (707) are also fixedly arranged on the third slide rail (705), a fifth motor is fixedly arranged on the front side wall of the third slide rail (705), and the output shaft of the fifth motor is fixedly connected to the third screw rod (706).

6. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 5, characterized in that: The cutting mechanism (8) comprises a plurality of second electric push rods (801) fixedly arranged on the top of the third slide seat (707), the telescopic ends of the plurality of second electric push rods (801) are commonly fixedly connected to a circular plate (802), a sixth motor is fixedly arranged in the middle of the bottom of the circular plate (802), and the output shaft of the sixth motor is connected to a cutting machine body (803).

7. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 6, characterized in that: A support seat (804) is fixedly provided on both left and right sides of the bottom of the cutting machine body (803), and a ball is movably provided at the bottom of the support seat (804), and the ball is rolled on the top of the circular plate (802).

8. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 5, characterized in that: The drilling mechanism (9) comprises two L-shaped brackets (901), the brackets (901) being fixedly connected to corresponding uprights (704), the upper ends of the two brackets (901) being fixedly connected to a crossbeam (902), a third electric push rod (903) being fixedly arranged on the crossbeam (902), and the telescopic end of the third electric push rod (903) being fixedly connected to two drilling machine bodies (904).

9. The electrolytic copper foil anode plate manufacturing and processing equipment according to claim 1, characterized in that: A spring (16) is sleeved on the upper surface of the positioning cylinder (604), and the upper end of the spring (16) is fixedly connected to the positioning cylinder (604). A pressure ring (17) is also movably sleeved on the surface of the positioning cylinder (604), and the top of the pressure ring (17) is fixedly connected to the lower end of the spring (16).

10. A process for manufacturing an electrolytic copper foil anode plate (18), characterized in that: The electrolytic copper foil anode plate manufacturing and processing equipment according to any one of claims 1 to 9 comprises the following steps: S1, stacking the anode plates (18) one by one on the second receiving platform (14) by means of a transport device; S2, taking and placing materials, moving the positioning mechanism (6) to the top of the second receiving platform (14) through the first sliding mechanism (4) to take materials, and transporting the lifted anode plates (18) to the top of the first receiving platform (2) and placing them down; S3, aligning the anode plate (18), using the positioning mechanism (6) in cooperation with the first electric push rod (5) to align the anode plate (18) stacked on the first receiving platform (2); S4, drilling and positioning, using the positioning mechanism (6) in cooperation with the first electric push rod (5) to move the four positioning cylinders (604) to the front and rear sides of the anode plate (18) respectively, so as to abut against the anode plate (18); S5, drilling, drilling holes in the anode plate (18) by means of the drilling mechanism (9) cooperating with the second sliding mechanism (7); S6, cutting and positioning, the positioning mechanism (6) cooperates with the first electric push rod (5) to move the four positioning cylinders (604) and insert them into the holes drilled on the anode plate (18), so as to re-position the anode plate (18); S7, cutting, cutting the anode plate (18) by means of the cutting mechanism (8) in cooperation with the second sliding mechanism (7), and removing the redundant part of the side edge of the anode plate (18); S8, discharging the material, lifting the anode plate (18) after drilling and cutting through the positioning mechanism (6) and the first electric push rod (5), and then transporting the anode plate (18) to the right side of the processing table (1) through the first sliding mechanism (4), placing it in an external transport device, and transporting it to the next process for processing.

Images