An efficient circulating anode tank for a copper foil production machine

Abstract

The present invention discloses an efficient circulating anode tank for a copper foil machine, which includes an efficient splicing tank body. An anode plate is movably installed on the inner wall of the efficient splicing tank body. A liquid supply device is movably connected to the bottom of the efficient splicing tank body. A secondary reinforcement device is movably connected to the outer wall of the efficient splicing tank body. The efficient splicing tank body includes a first anode tank body and a second anode tank body. In the present invention, the first anode tank body and the second anode tank body are connected and reinforced through a docking component. This docking component is located inside the accommodation groove and the limit card slot, and will not cause any influence or interference to the anode plate, thereby ensuring the normal operation of the copper foil machine. It can play a role of early separation when assembling the first anode tank body and the second anode tank body, avoiding collision between the first anode tank body and the second anode tank body, and thus avoiding the problem that the internal structure of the tank body is affected by the mutual collision of the two tank bodies.

Description

Technical Field

[0001] The present invention relates to the technical field of copper foil machines, and particularly to an efficient circulating anode tank for a copper foil machine. Background Art

[0002] A copper foil machine and a cathode roller form a copper foil production unit. The anode tank is connected to the positive pole of the power supply, and the cathode roller is connected to the negative pole of the power supply. When copper sulfate electrolyte enters the anode tank, an electric field is formed between the positive and negative poles. Under the action of the electric field, copper ions migrate to the surface of the cathode roller and deposit. The deposited copper is very thin, is peeled off from the cathode roller and wound on another roller. In this way, the electrolyte continuously circulates, and copper ions continuously deposit on the cathode roller under the action of the electric field, are continuously peeled off and collected on the take-up reel.

[0003] In the prior art, such as "An Efficient Circulating Anode Tank for a Copper Foil Machine" with Chinese Patent No. CN111020642A, it includes an anode tank body, a filter hopper lifting mechanism and an observation pushing and pulling mechanism. Symmetrically installed strip-shaped boxes are arranged on both edges of the mouth of the anode tank body, and observation ports are opened at the top of the strip-shaped boxes; the filter hopper lifting mechanism includes a hydraulic push rod; the observation pushing and pulling mechanism includes a cover plate, and a slider is installed at the bottom of one end of the cover plate. The slider is threadedly connected to a thin screw rod, and the thin screw rod is rotatably installed in a strip-shaped groove. One end of the thin screw rod is installed at the shaft end of a motor. This device is reasonably designed. By starting the hydraulic push rod to be in a contracted state, the arc-shaped filter hopper connected by a ceramic rod is lifted from the anode tank body to the top of the tank mouth, so as to realize the function of lifting the internal filtering structure of the anode tank, which is convenient for subsequent cleaning, and the lifting is convenient. At the same time, it is convenient for staff to observe the internal liquid, and it is convenient to open. The mechanical opening method is adopted to improve the stability of the covering.

[0004] However, in the prior art, the anode tank body mainly adopts two structures. One is an integral welded structure, and the other is a split structure. Among them, due to the split effect of the split structure, the anode tank body is very convenient to clean during cleaning. However, this structure may be disassembled multiple times during the whole use process. Inevitably, the two tank bodies will collide with each other during the disassembly process. When the collision force reaches a certain level, it will directly affect the internal structure of the tank body, resulting in a decrease in the overall stability. At the same time, the anode tank body will be in a high-temperature state for a long time during use. If the internal structure of the tank body also changes at this time, it will affect the sealing performance of the anode tank body, and ultimately the anode tank body cannot be used normally. Summary of the Invention

[0005] The object of the present invention is to provide an efficient circulating anode tank for a copper foil machine, so as to solve the problems proposed in the above background technology. The anode tank body mainly adopts two structures. One is an integral welded structure, and the other is a split structure. Among them, due to the split effect of the split structure, the anode tank body is very convenient to clean. However, this structure may be disassembled multiple times during the whole use process. Inevitably, the two tank bodies will collide with each other during the disassembly process. When the collision force reaches a certain level, it will directly affect the internal structure of the tank body, resulting in a decrease in overall stability. At the same time, the anode tank body will be in a high-temperature state for a long time during use. If the internal structure of the tank body also changes at this time, it will affect the sealing performance of the anode tank body, and ultimately the anode tank body cannot be used normally.

[0006] To achieve the above object, the present invention provides the following technical solution: An efficient circulating anode tank for a copper foil machine, including an efficiently spliced tank body, an anode plate is movably installed on the inner wall of the efficiently spliced tank body, a liquid supply device is movably connected to the bottom of the efficiently spliced tank body, and a secondary reinforcement device is movably connected to the outer wall of the efficiently spliced tank body;

[0007] The efficiently spliced tank body includes a first anode tank body and a second anode tank body. Accommodating grooves are provided at the bottoms of the first anode tank body and the second anode tank body. A limiting card slot is opened on one side of the accommodating groove, and a docking component is fixedly installed inside the accommodating groove;

[0008] The docking component includes a rotating rod. A rotating component is provided in the middle of the rotating rod. The rotating component includes a rotating ring. The rotating ring is located in the middle of the rotating rod and penetrates the rotating rod. An electromagnetic plug is provided inside the rotating ring, and the electromagnetic plug is used to control the rotation and locking of the rotating ring and the rotating rod;

[0009] A limiting groove is provided on each of the first anode tank body and the second anode tank body. A sealing plate is provided on the limiting groove located inside the second anode tank body. The bottom of the limiting groove communicates with the accommodating groove through a through groove. A telescopic rod is provided at the bottom of the sealing plate. The telescopic end of the telescopic rod penetrates the through groove and is provided with a limiting groove adapted to the rotating shaft.

[0010] Preferably, the docking component further includes a docking block. One end of the docking block is movably connected to an electric push rod. The other end of the electric push rod is fixedly installed with a fixed block. A chute is opened at the junction of the electric push rod and the docking block. The fixed block is fixedly installed in the accommodating groove inside the first anode tank body, and the docking block is movably connected in the accommodating groove of the second anode tank body.

[0011] Preferably, a first extended end is fixedly installed on one side of the docking block. Rotating rods are rotatably connected to both the upper and lower ends of the first extended end.

[0012] Preferably, one side of the fixing block is fixedly connected with a reinforcing support rod, one end of the reinforcing support rod is fixedly installed with a limiting block, and a moving slider is sleeved on the outer wall of the reinforcing support rod.

[0013] Preferably, one side of the moving slider is fixedly connected with a second extension end, one end of the moving slider is fixedly connected with a partition frame, and a guiding rib is fixedly installed at the junction of the reinforcing support rod and the moving slider.

[0014] Preferably, one end of the partition frame is lapped on the outer wall of the fixing block, and one end of the guiding rib is fixedly connected to one side of the limiting block.

[0015] Preferably, the other end of the rotating rod is rotatably connected to the outer wall of the second extension end, and an 85-degree angle is provided between the rotating rod and the second extension end.

[0016] Preferably, the thickness of the rotating rod is the same as the width of the limiting slot, and the thickness of the docking block is the same as the width of the accommodating groove.

[0017] Preferably, for the secondary reinforcement device, the secondary reinforcement device includes a side limiting plate, fixed plates are fixedly connected to both ends of the side limiting plate, and a positioning pipe is fixedly installed inside the side limiting plate.

[0018] Preferably, one end of the first anode tank body is spliced with one end of the second anode tank body, a trapezoidal groove is formed at the junction of the first anode tank body and the second anode tank body, limiting strips are fixedly installed at the bottoms of the first anode tank body and the second anode tank body, and positioning grooves are formed at the other ends of the first anode tank body and the second anode tank body.

[0019] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0020] 1. In the present invention, the first anode tank body and the second anode tank body are connected and reinforced through a docking assembly, which can effectively improve the connection tightness between the first anode tank body and the second anode tank body. Moreover, this docking assembly is located inside the accommodating groove and the limiting slot, and will not cause any influence or interference to the anode plate, thus ensuring the normal operation of the copper foil machine. At the same time, the combined use of the docking block, the electric push rod and the fixing block can play a role in pre-separating when assembling the first anode tank body and the second anode tank body, avoiding collision between the first anode tank body and the second anode tank body, and thus avoiding the problem that the internal structure of the tank body is affected by the mutual collision of the two tank bodies, and can greatly improve the structural stability of the split anode tank body.

[0021] 2. In the present invention, the receiving groove is used to determine the positions of the docking block and the fixing block, which can play an auxiliary positioning role during assembly, helping to speed up the assembly process. At the same time, during the assembly process, the rotating rod will directly rotate into the limit card slot, and the friction between the limit card slot and the rotating rod is used to enhance the connection tightness between the first anode tank body and the second anode tank body. Finally, an additional secondary reinforcement device is provided at the top of the first anode tank body and the second anode tank body to limit and fix the top of the tank body, further enhancing the structural stability of the first anode tank body and the second anode tank body. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 is a schematic diagram of the overall structure of the present invention;

[0023] Figure 2 is a schematic diagram of the bottom structure of the present invention;

[0024] Figure 3 is a schematic diagram of the connection structure between the high-efficiency splicing type tank body and the anode plate of the present invention;

[0025] Figure 4 is a schematic diagram of the structure of the docking component of the present invention;

[0026] Figure 5 of the present invention Figure 4 is an enlarged schematic diagram of the structure of part A;

[0027] Figure 6 is a schematic diagram of the connection structure between the docking component and the second anode tank body of the present invention;

[0028] Figure 7 is a schematic diagram of the structure of the second anode tank body of the present invention;

[0029] Figure 8 is a schematic diagram of the connection structure between the secondary reinforcement device and the high-efficiency splicing type tank body of the present invention;

[0030] Figure 9 of the present invention Figure 7 is an enlarged schematic diagram of the structure of part B.

[0031] In the figure: 1. High-efficiency splicing tank body; 11. First anode tank body; 12. Second anode tank body; 13. Trapezoidal tank; 14. Accommodating groove; 15. Limit card slot; 16. Docking component; 161. Docking block; 162. Electric push rod; 163. Fixed block; 164. Slide groove; 165. First extension end; 166. Rotating rod; 167. Reinforcing support rod; 168. Limit block; 169. Moving slider; 170. Second extension end; 171. Partition frame; 172. Guide rib; 17. Limit strip; 18. Positioning groove; 2. Anode plate; 3. Liquid supply device; 4. Secondary reinforcement device; 41. Side limit plate; 42. Fixed connecting plate; 43. Positioning pipe; 5. Rotating component; 6. Limit groove; 601. Sealing plate; 602. Telescopic rod; 603. Limit groove. Detailed implementation mode

[0032] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0033] Combined with Figure 1-8 As shown in the figure, a high-efficiency circulating anode tank of a copper foil machine includes a high-efficiency splicing tank body 1. An anode plate 2 is movably installed on the inner wall of the high-efficiency splicing tank body 1. A liquid supply device 3 is movably connected to the bottom of the high-efficiency splicing tank body 1. A secondary reinforcement device 4 is movably connected to the outer wall of the high-efficiency splicing tank body 1. The high-efficiency splicing tank body 1 includes a first anode tank body 11 and a second anode tank body 12. One end of the first anode tank body 11 is spliced with one end of the second anode tank body 12. A trapezoidal tank 13 is opened at the junction of the first anode tank body 11 and the second anode tank body 12. A receiving groove 14 is opened at the bottom of the first anode tank body 11. A limit card slot 15 is opened on one side of the receiving groove 14. A docking component 16 is fixedly installed inside the receiving groove 14. Limit strips 17 are fixedly installed at the bottoms of both the first anode tank body 11 and the second anode tank body 12. Positioning grooves 18 are opened at the other ends of both the first anode tank body 11 and the second anode tank body 12.

[0034] The cathode roller is installed on the secondary reinforcement device 4. When the copper foil generator is operating, the liquid supply device 3 injects electroplating solution into the high-efficiency splicing tank body 1. When in use, the anode plate 2 is electrified, and the copper in the electrolyte deposits on the surface of the roller to form copper foil. This high-efficiency splicing tank body 1 is mainly composed of the butt joint of the first anode tank body 11 and the second anode tank body 12. The liquid supply device 3 is installed at the junction of the first anode tank body 11 and the second anode tank body 12. When assembling the first anode tank body 11 and the second anode tank body 12, first, the positions of the first anode tank body 11 and the second anode tank body 12 are visually determined through the positioning grooves 18 on the outer wall of the tank body and the limit strips 17 at the bottom. Subsequently, the first anode tank body 11 and the second anode tank body 12 are pushed inward so that the first anode tank body 11 and the second anode tank body 12 are spliced together. During this process, a part of the docking component 16 in the accommodating groove 14 in the first anode tank body 11 will enter the accommodating groove 14 in the second anode tank body 12. The resistance of the second anode tank body 12 is used to cause the structural shape of the docking component 16 to change. A part of the changed docking component 16 will be connected to the limit card slot 15, so that the docking component 16 is in full contact with the second anode tank body 12, achieving the purpose of fixing the first anode tank body 11 and the second anode tank body 12. Finally, the secondary reinforcement device 4 is installed on the top of the first anode tank body 11 and the second anode tank body 12 to complete the assembly of this high-efficiency splicing tank body 1.

[0035] According to Figure 2 、 Figure 3 、 Figure 4 、 Figure 5 、 Figure 6 、 Figure 7As shown, the docking component 16 includes a docking block 161. One end of the docking block 161 is movably connected to an electric push rod 162. The other end of the electric push rod 162 is fixedly installed with a fixed block 163. A chute 164 is provided at the junction of the electric push rod 162 and the docking block 161. The fixed block 163 is fixedly installed in the receiving groove 14 in the first anode tank body 11. The docking block 161 is movably connected in the receiving groove 14 of the second anode tank body 12. One side of the docking block 161 is fixedly installed with a first extension end 165. Rotating shafts connected to the rotating rod 166 are provided at both the upper and lower ends of the first extension end 165. One side of the fixed block 163 is fixedly connected with a reinforcing support rod 167. A limiting block 168 is fixedly installed at one end of the reinforcing support rod 167. A moving slider 169 is sleeved on the outer wall of the reinforcing support rod 167. One side of the moving slider 169 is fixedly connected with a second extension end 170. One end of the moving slider 169 is fixedly connected with a partition frame 171. A guiding rib 172 is fixedly installed at the junction of the reinforcing support rod 167 and the moving slider 169. One end of the partition frame 171 overlaps on the outer wall of the fixed block 163. One end of the guiding rib 172 is fixedly connected to one side of the limiting block 168. The other end of the rotating rod 166 is rotatably connected to the outer wall of the second extension end 170. An eighty-five-degree angle is provided between the rotating rod 166 and the second extension end 170. The thickness of the rotating rod 166 is the same as the width of the limiting card slot 15. The thickness of the docking block 161 is the same as the width of the receiving groove 14.

[0036] The fixed block 163 is fixedly installed in the receiving groove 14 inside the first anode tank 11. During splicing and assembly, the docking block 161 will enter the receiving groove 14 of the second anode tank 12. At this time, the second anode tank 12 will push the docking block 161 to move along the direction of the electric push rod 162. The existence of the sliding groove 164 can limit the movement route and position of the docking block 161. During the movement of the docking block 161, the rotating rod 166 will be driven to rotate through the first extension end 165. When this rotating rod 166 is not pushed in the normal state, due to the existence of the partition frame 171, there is a certain distance between the moving slider 169 and the fixed block 163. And the docking block 161 and the fixed block 163 are on the same straight line under the connection of the electric push rod 162. Therefore, the rotating rod 166 and the moving slider 169 are in an acute angle state of 85 degrees. Finally, when the rotating rod 166 rotates, since one end of it is rotating while cooperating with the movement of the docking block 161, the angle between the rotating rod 166 and the moving slider 169 can only continue to become smaller and cannot become larger. When the angle between the rotating rod 166 and the moving slider 169 becomes smaller, since the length of the rotating rod 166 cannot change, the other end of the rotating rod 166 will push the moving slider 169 to move along the direction of the reinforcing strut 167 through the second extension end 170. The specific movement route and movement range are respectively limited by the guiding rib 172 and the limiting block 168 to avoid dislocation and falling off. During this process, the rotating rod 166 will directly rotate into the limiting card slot 15, and the friction between the limiting card slot 15 and the rotating rod 166 is used to improve the connection tightness between the first anode tank 11 and the second anode tank 12, thus completing the connection of the high-efficiency spliced tank body 1. This docking component 16 can play a role of pre-separation when assembling the first anode tank 11 and the second anode tank 12, avoiding collision between the first anode tank 11 and the second anode tank 12, and thus avoiding the problem that the internal structure of the tank body is affected by the mutual collision of the two tank bodies, and can greatly improve the structural stability of the split anode tank body.

[0037] According to Figure 1 、 Figure 2 、 Figure 8As shown, there is a secondary reinforcement device 4. The secondary reinforcement device 4 includes side limit plates 41. Fixed connection plates 42 are fixedly connected to both ends of the side limit plates 41. A positioning pipe 43 is fixedly installed inside the side limit plates 41. This secondary reinforcement device 4 mainly uses the side limit plates 41 to enclose the sides of the highly spliced tank body 1, and the top of the side limit plates 41 is installed on the top of the highly spliced tank body 1 through the fixed connection plates 42 to ensure the sealing of the entire anode tank, and can limit and fix the tops of the first anode tank body 11 and the second anode tank body 12, further improving the structural stability of the highly spliced tank body 1. The positioning pipe 43 located on the side limit plates 41 is used for installing the cathode roller.

[0038] The cathode roller is installed on the secondary reinforcement device 4. When the copper foil making machine is operating, the liquid supply device 3 injects electroplating solution into the high-efficiency splicing groove body 1. During use, the anode plate 2 is electrified, and the copper in the electrolyte deposits on the surface of the roller to form copper foil. When assembling this anode tank, first, the positions of the first anode tank body 11 and the second anode tank body 12 are visually determined through the positioning groove 18 on the outer wall of the tank body and the limiting strip 17 at the bottom. Subsequently, the first anode tank body 11 and the second anode tank body 12 are pushed inward so that the first anode tank body 11 and the second anode tank body 12 are spliced together. During this process, a part of the docking component 16 in the accommodating groove 14 in the first anode tank body 11 will enter the accommodating groove 14 in the second anode tank body 12. At this time, the second anode tank body 12 will push the docking block 161 to move along the direction of the electric push rod 162. The existence of the sliding groove 164 can limit the movement route and position of the docking block 161. During the movement of the docking block 161, the rotating rod 166 will be driven to rotate through the first extension end 165. When this rotating rod 166 is not pushed in the normal state, due to the existence of the partition frame 171, there is a certain distance between the moving slider 169 and the fixed block 163. And the docking block 161 and the fixed block 163 are on the same straight line under the connection of the electric push rod 162. Therefore, the rotating rod 166 and the moving slider 169 are in an acute angle state of 85 degrees. Finally, when the rotating rod 166 rotates, since one end of it is rotating while cooperating with the movement of the docking block 161, the angle between the rotating rod 166 and the moving slider 169 can only continue to become smaller and cannot become larger. When the included angle between the rotating rod 166 and the moving slider 169 becomes smaller, since the length of the rotating rod 166 cannot change, the other end of the rotating rod 166 will push the moving slider 169 to move along the direction of the reinforcement strut 167 through the second extension end 170. The specific movement route and movement range are determined by the guiding rib 172 and the limiting block 168 respectively. During this process, the rotating rod 166 will directly rotate into the limiting card slot 15, and the friction force between the limiting card slot 15 and the rotating rod 166 is used to improve the connection tightness between the first anode tank body 11 and the second anode tank body 12, thus completing the connection of the high-efficiency splicing groove body 1. Finally, the side limiting plate 41 and the fixed connecting plate 42 are directly installed on the top of the first anode tank body 11 and the second anode tank body 12 to ensure the sealing of the entire anode tank. The positioning pipe 43 on the side limiting plate 41 is used to install the cathode roller.

[0039] Embodiment 2

[0040] During actual use, the operator found that since no fixing component was provided on the docking block 161, after the docking block 161 contacted the receiving groove 14 in the second anode cell 12, the receiving groove 14 could not push the docking block 161 to move towards the fixing block 163, causing the docking assembly 16 to fail to play a role in limiting and fixing. At the same time, since no sealing component was provided at the docking joint where the first anode cell 11 and the second anode cell 12 were docked, leakage would occur at the connection during the use of the device. Therefore, to solve the above technical problems, the device was improved according to the method described in this embodiment.

[0041] Combined with Figure 9 As shown, a rotating component 5 is provided in the middle of the rotating rod 166. The rotating component 5 includes a rotating ring. The rotating ring is located in the middle of the rotating rod 166 and penetrates the rotating rod 166. An electromagnetic plug is provided in the rotating ring, and the electromagnetic plug is used to control the rotation and locking of the rotating ring and the rotating rod 166.

[0042] A limiting groove 6 is provided on each of the first anode cell and the second anode cell 12. A sealing plate 601 is provided on the limiting groove 6 in the second anode cell 12. The bottom of the limiting groove 6 is communicated with the receiving groove 14 through a through groove. A telescopic rod 602 is provided at the bottom of the sealing plate 601. The telescopic end of the telescopic rod 602 penetrates the through groove and is provided with a limiting groove 603 adapted to the rotating shaft.

[0043] First, when the first anode tank 11 and the second anode tank 12 need to be docked, first determine the positions of the first anode tank 11 and the second anode tank 12 through the positioning grooves 18 on the outer wall of the tank and the limiting strips 17 at the bottom. Subsequently, push the first anode tank 11 and the second anode tank 12 inward so that the first anode tank 11 and the second anode tank 12 are spliced together. During this process, since the fixing block 163 is fixedly connected to the receiving groove 14 in the first anode tank 11, when the first anode tank 11 moves towards the second anode tank 12, the docking block 161 will extend into the receiving groove 14 in the second anode tank 12 and slide towards the telescopic rod 602. When the axis of the first extension end 165 coincides with the limiting groove 603, control the telescopic rod 602 to extend towards the axis so that the limiting groove 603 is sleeved on the axis to limit the docking block 161, making the docking block 161 unable to continue moving in the receiving groove 14. At this time, as the first anode tank 11 and the second anode tank 12 approach each other, the docking block 161 will slide on the electric push rod 162 and drive the rotating rod 166 to rotate, causing the moving slider 169 to move towards the limiting block 168. Through the limitation of the moving slider 169 by the limiting block 168, the problem that the first anode tank 11 and the second anode tank 12 collide with each other during splicing and cause damage to the first anode tank 11 and the second anode tank 12 can be avoided.

[0044] It should be noted that when the moving sliders 169 on both sides are in contact with the limiting blocks 168, the first anode tank 11 and the second anode tank 12 are in a mutually contacting state.

[0045] Secondly, when the docking part between the first anode tank 11 and the second anode tank 12 leaks under acidic corrosion during the working state, control the electromagnetic plug to unlock, so that the connection between the rotating ring and the rotating rod 166 is converted from a fixed connection to a rotating connection. At the same time, control the electric push rod 162 to contract. The electric push rod 162 will drive the docking block 161 to move towards the fixing block 163. During this process, the docking block 161 will drive the telescopic rod 602 to move synchronously, so that the sealing plate 601 connected to the telescopic rod 602 slides from the limiting groove 6 in the second anode tank 12 towards the limiting groove 6 in the first anode tank 11. The docking part between the first anode tank 11 and the second anode tank 12 is secondarily sealed by the sealing plate 601 to prevent the penetration of acidic solution. By changing the connection relationship between the rotating ring and the rotating rod 166 through the electromagnetic plug, the rotating rod 166 can still move in cooperation with the movement of the electric push rod 162 after the first anode tank 11 and the second anode tank 12 are docked, improving the sealing performance and stability of the device.

[0046] Again, after the first anode tank 11 and the second anode tank 12 are docked, there is no limiting mechanism between the first anode tank 11 and the second anode tank 12. The docking assembly 16 can only achieve the splicing between the first anode tank 11 and the second anode tank 12 and cannot fix the first anode tank 11 and the second anode tank 12. When the device works, the bottoms of the first anode tank 11 and the second anode tank 12 will be separated. When it is necessary to fix the first anode tank 11 and the second anode tank 12 during the working process, first control the electromagnetic plug to unlock so that the rotating rod 166 changes from a fixed connection to a rotating connection with the rotating ring. At this time, control the electric push rod 162 to contract so that the telescopic rod 602 moves to one end close to the docking part of the first anode tank 11 and the second anode tank 12. Then control the electromagnetic plug to lock so that the rotating rod 166 changes from a rotating connection to a fixed connection with the rotating ring. At this time, control the electric push rod 162 to contract, so that the docking block 161 generates a force moving towards the fixed block 163, thereby offsetting the force that the large amount of heat energy generated by the solution during the working process pushes the first anode tank 11 and the second anode tank 12 to separate from each other, and improving the stability of the device.

[0047] Finally, when it is necessary to clean the impurities in the first anode tank 11 and the second anode tank 12, the secondary reinforcement device 4 is removed from the first anode tank 11 and the second anode tank 12, and the electric push rod 162 is controlled to extend and shorten so that the first anode tank 11 and the second anode tank 12 collide with each other and generate vibrations, shaking off the impurities adhering to the first anode tank 11 and the second anode tank 12 and discharging the impurities through the connection part of the first anode tank 11 and the second anode tank 12, thus completing the cleaning of the device.

[0048] Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An efficient circulating anode tank for a copper foil machine, Characterized in that: It includes an efficient splicing tank body, on the inner wall of the efficient splicing tank body, an anode plate is movably installed, at the bottom of the efficient splicing tank body, a liquid supply device is movably connected, and on the outer wall of the efficient splicing tank body, a secondary reinforcement device is movably connected; The efficient splicing tank body includes a first anode tank body and a second anode tank body. At the bottom of both the first anode tank body and the second anode tank body, there are accommodation grooves. On one side of the accommodation groove, a limit card slot is opened, and a docking component is fixedly installed inside the accommodation groove; The docking component includes a rotating rod. In the middle of the rotating rod, there is a rotating component. The rotating component includes a rotating ring. The rotating ring is located in the middle of the rotating rod and penetrates the rotating rod. Inside the rotating ring, there is an electromagnetic plug, and the electromagnetic plug is used to control the rotation and locking of the rotating ring and the rotating rod; On the first anode tank body and the second anode tank body, there is respectively a limit groove. On the limit groove located inside the second anode tank body, there is a sealing plate. The bottom of the limit groove is communicated with the accommodation groove through a through groove. At the bottom of the sealing plate, there is a telescopic rod. The telescopic end of the telescopic rod penetrates the through groove and is provided with a limit groove adapted to the rotating shaft; The docking component further includes a docking block. One end of the docking block is movably connected with an electric push rod. The other end of the electric push rod is fixedly installed with a fixed block. At the junction of the electric push rod and the docking block, a sliding groove is opened. The fixed block is fixedly installed in the accommodation groove inside the first anode tank body, and the docking block is movably connected in the accommodation groove of the second anode tank body; On one side of the docking block, a first extended end is fixedly installed. At the upper and lower ends of the first extended end, rotating rods are respectively rotationally connected; On one side of the fixed block, a reinforcement support rod is fixedly connected. At one end of the reinforcement support rod, a limit block is fixedly installed. On the outer wall of the reinforcement support rod, a moving slider is sleeved; On one side of the moving slider, a second extended end is fixedly connected. At one end of the moving slider, a partition frame is fixedly connected. At the junction of the reinforcement support rod and the moving slider, a guiding convex strip is fixedly installed; One end of the partition frame is lapped on the outer wall of the fixed block, and one end of the guiding convex strip is fixedly connected to one side of the limit block.

2. An efficient circulating anode tank for a copper foil machine according to claim 1, Characterized in that: The other end of the rotating rod is rotationally connected to the outer wall of the second extended end, and an 85-degree angle is provided between the rotating rod and the second extended end.

3. An efficient circulating anode tank for a copper foil machine according to claim 1, Characterized in that: The thickness of the rotating rod is the same as the width of the limit card slot, and the thickness of the docking block is the same as the width of the accommodation groove.

4. An efficient circulating anode tank for a copper foil machine according to claim 1, Characterized in that: The secondary reinforcement device. The secondary reinforcement device includes a side limit plate. At both ends of the side limit plate, fixed lap plates are fixedly connected. Inside the side limit plate, a positioning pipe is fixedly installed.

5. An efficient circulating anode tank for a copper foil machine according to claim 1, Characterized in that: One end of the first anode cell body is spliced with one end of the second anode cell body. A trapezoidal groove is provided at the junction of the first anode cell body and the second anode cell body. Limiting strips are fixedly installed at the bottoms of the first anode cell body and the second anode cell body. Positioning grooves are provided at the other ends of the first anode cell body and the second anode cell body.

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