Formation tank aluminum foil belt cooling equipment
By setting cooling components between the troughs, the step-by-step cooling of the aluminum foil belt is achieved, and the problem of breaking the aluminum foil belt caused by excessive heat is solved, and the transmission stability and service life are improved.
Patent Information
- Application Number
- CN202411734388.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-29
- Publication Date
- 2025-02-11
AI Technical Summary
During the process of decomposing the electrode foil, the aluminum foil tape is broken during the transmission process due to excessive heat.
A cooling device for cooling the aluminum foil belt of a melting tank is designed, including a plurality of cooling parts connected in sequence and a cooling part of aluminium foil belt. The equipment realizes step by step cooling of the aluminum foil belt by providing the first and second cooling components between adjacent trenches, and using components such as transmission rollers and cooling tank liquid pipes to prevent breakage.
By gradually cooling down, the surface of the aluminum foil belt is wet, avoiding fracture problems caused by excessive heat, and improving the transmission stability and service life of the aluminum foil belt.
Smart Images

Figure CN119412866A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of electrode foil forming equipment, and in particular relates to a cooling device for an aluminum foil strip in a forming tank. Background Art
[0002] The preparation process of electrode foil is divided into pre-forming stage, forming stage and heat treatment stage. In the forming tank of the pre-forming and forming stages, the aluminum foil is prepared by adding forming liquid of different concentrations. The aluminum foil needs to move from one forming tank to another. Since the aluminum foil is charged and carries a lot of heat, the aluminum foil strip is easy to dry when it moves from one forming tank to another, and the aluminum foil strip is easy to break during the transmission process. Summary of the invention
[0003] In view of this, the present invention provides a forming tank aluminum foil strip cooling device which prevents the aluminum foil strip from breaking during the transmission process due to excessive heat.
[0004] A forming tank aluminum foil strip cooling device comprises a plurality of sequentially connected forming tanks and an aluminum foil strip cooling component, wherein the aluminum foil strip cooling component comprises a first cooling component and a second cooling component located between two adjacent forming tanks, wherein the first cooling component is two, and the two first cooling components are symmetrically arranged above the two adjacent forming tanks, and the two first cooling components are both close to the connection between the two adjacent forming tanks, the second cooling component is located above the connection between the two adjacent forming tanks, and the second cooling component is located between the two first cooling components, and the aluminum foil strip sequentially passes through the top of the first cooling component, the bottom of the second cooling component, and the top of the first cooling component; The first cooling component includes a first transmission roller and a first cooling tank liquid pipe. The first liquid outlet is arranged at the bottom of the first cooling tank liquid pipe. The first transmission roller is located above the chemical formation tank and is close to the connection between two adjacent chemical formation tanks. The first cooling tank liquid pipe is located above the first transmission roller. The first transmission roller and the first cooling tank liquid pipe are parallel to each other. The second cooling component is connected to the side wall of the connection between two adjacent chemical formation tanks. The two ends of the first transmission roller are respectively rotatably connected to the side wall of the chemical formation tank located below it. The first cooling tank liquid pipe is connected to the chemical formation tank below it to connect the first cooling tank liquid pipe with the tank liquid in the corresponding chemical formation tank.
[0005] Preferably, the first cooling component also includes a first cooling water pipe and a first collecting tank. A first water outlet is arranged at the bottom of the first cooling water pipe. The first cooling tank liquid pipe and the first cooling water pipe are symmetrically arranged above the first drive roller, and the first cooling water pipe is located near the connection between two adjacent formation tanks. The first collecting tank is located below the first drive roller. Both ends of the first cooling water pipe are connected to the formation tank, the first collecting tank is connected to the upper edge of the formation tank, and pure water is passed into the second cooling pipe.
[0006] Preferably, the first cooling component also includes a first circulation pump, a first cooling cavity is arranged inside the first transmission roller, a first cleaning through hole is arranged outside the first transmission roller, the first cleaning through hole is communicated with the first cooling cavity, the first circulation pump is fixedly connected to the formation tank, the inlet of the first circulation pump is connected to the first collecting tank, and the outlet of the first circulation pump is connected to the first transmission roller to communicate with the first cooling cavity.
[0007] Preferably, the second cooling component includes a cooling tank, a cooling roller, and a support part. There are two support parts. The cooling tank is located above the connection between two adjacent formation tanks. The cooling roller is located in the cooling tank. The support parts are respectively located at both ends of the cooling roller. The bottom of the cooling tank is connected to the top wall of the connection between two adjacent formation tanks. The cooling roller is rotatably connected to the support part. The support part is connected to the top wall of the connection between two adjacent formation tanks. The cooling tank contains pure water. The cooling roller presses the aluminum foil strip into the cooling tank to contact with the pure water.
[0008] Preferably, a second cooling cavity is arranged inside the cooling roller along the length direction, a second cleaning through hole is arranged outside the cooling roller, and the second cleaning through hole is communicated with the second cooling cavity.
[0009] Preferably, the second cooling component also includes a second circulating pump and a second cooling water pipe, there is at least one second cooling water pipe, a nozzle is arranged on the second cooling water pipe, the second cooling water pipe is located in the cooling tank, the second cooling water pipe is located on the side of the cooling roller, the second cooling water pipe and the aluminum foil are parallel to each other, the nozzle faces the aluminum foil, the second circulating pump is connected to the support part, the inlet of the second circulating pump is connected to the cooling tank, the outlet of the circulating pump is connected to the second cooling water pipe, and the second cooling water pipe is connected to the support part.
[0010] Preferably, there are two second cooling water pipes located on the same side, the two second cooling water pipes are arranged opposite to each other, and the aluminum foil strip is located between the two second cooling water pipes.
[0011] Preferably, the aluminum foil strip cooling component also includes a third cooling component, the third cooling component is located between the first two adjacent formation tanks, the first cooling component and the second cooling component are located between the subsequent two adjacent formation tanks, the third cooling component is located in front of the first cooling component, the third cooling component includes a second drive roller, a third drive roller, and a quartz tube, the second drive roller and the third drive roller are located on the same horizontal plane, the quartz tube is located between the second drive roller and the third drive roller, the second drive roller, the third drive roller, and the quartz tube are parallel to each other, the second drive roller, the third drive roller, and the quartz tube have two ends connected to the two side walls of the formation tank, respectively, and the aluminum foil passes through the top of the second drive roller, the bottom of the quartz tube, and the top of the third drive roller in sequence.
[0012] Preferably, the third cooling component also includes a third cooling water pipe, a third water outlet is arranged at the bottom of the third cooling water pipe, the quartz tube is located below the first drive roller, the third cooling water pipe is located above the quartz tube, the third cooling water pipe is parallel to the quartz tube, and the third cooling water pipe is connected to the two side walls of the formation tank.
[0013] Preferably, the third cooling component also includes a third cooling tank liquid pipe, which is located obliquely above the third transmission roller, and the third cooling tank liquid pipe is inclined away from the quartz tube, and both ends of the third cooling tank liquid pipe are connected to both sides of the formation tank.
[0014] Compared with the prior art, the present invention has the following beneficial effects: The aluminum foil strip cooling device for a chemical formation tank of the present invention comprises a plurality of chemical formation tanks and an aluminum foil strip cooling component connected in sequence, wherein the aluminum foil strip cooling component comprises a first cooling component and a second cooling component located between two adjacent chemical formation tanks, wherein the first cooling component is two, and the two first cooling components are symmetrically arranged above the two adjacent chemical formation tanks, and the two first cooling components are both close to the connection between the two adjacent chemical formation tanks, the second cooling component is located above the connection between the two adjacent chemical formation tanks, and the second cooling component is located between the two first cooling components, and the aluminum foil strip passes through the top of the first cooling component, the bottom of the second cooling component, and the top of the first cooling component in sequence; the first cooling component comprises a first transmission roller and a first cooling tank liquid pipe, wherein a first liquid outlet is arranged at the bottom of the first cooling tank liquid pipe, and the first transmission roller is located above the chemical formation tank. , and the first transmission roller is close to the connection between two adjacent chemical formation tanks, the first cooling tank liquid pipe is located above the first transmission roller, the first transmission roller and the first cooling tank liquid pipe are parallel to each other, the third cooling component is connected to the side wall of the connection between two adjacent chemical formation tanks, the two ends of the first transmission roller are respectively rotatably connected to the side walls of the chemical formation tank located below it, and the first cooling tank liquid pipe is connected to the chemical formation tank below it to connect the first cooling tank liquid pipe with the tank liquid in the corresponding chemical formation tank; when the aluminum foil enters from one chemical formation tank to another chemical formation tank, it is first cooled by the first cooling tank liquid pipe of the first cooling component, then cooled by the second cooling component, and then cooled by the first cooling tank liquid pipe, so as to perform step-by-step cooling, so that the surface of the aluminum foil strip is moistened, and the aluminum foil strip will not dry out or even break due to excessive heat. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] Figure 1 This is the axonometric view of the cooling equipment for the aluminum foil strip in the formation tank.
[0016] Figure 2 It is a schematic diagram of the coordination structure of the formation tank and the third cooling component.
[0017] Figure 3 It is a schematic diagram of the structure of the formation tank and the third cooling component from another angle.
[0018] Figure 4 This is a structural schematic diagram of the formation tank and the third cooling component from another angle.
[0019] Figure 5 It is a structural schematic diagram of the lifting part.
[0020] Figure 6 It is a schematic diagram of the coordination structure of the formation tank and the first cooling component.
[0021] Figure 7 It is a schematic diagram of the structure of the formation tank and the first cooling component from another angle.
[0022] Figure 8 It is a top view of the formation tank and the first cooling component.
[0023] Fig. 9 It is a cross-sectional view of the first transmission roller.
[0024] Fig.10 It is a schematic diagram of the coordination structure of the formation tank and the second cooling component.
[0025] Fig.11 It is a schematic diagram of the structure of the formation tank and the second cooling component from another angle.
[0026] Fig.12 for Fig.10 A partial enlarged view of middle A.
[0027] Fig.13 This is another structural diagram of the formation tank and the second cooling component at another angle.
[0028] Fig.14 It is a schematic diagram of the structure of the cooling roller.
[0029] In the figure: the cooling device 10 of the aluminum foil strip of the formation tank, the formation tank 100, the lifting assembly 110, the fixing frame 111, the third slide 1111, the lifting part 112, the lifting frame 1121, the slider 1122, the driving screw 1123, the hand wheel 1124, the first cooling assembly 200, the first transmission roller 210, the first cooling cavity 211, the first cleaning through hole 212, the first arc groove 213, the first cooling tank liquid pipe 220, the first cooling water pipe 230, the first collecting tank 240, the first circulating pump 250, the second cooling assembly 300, the cooling tank 310, impeller 311, cooling roller 320, second cooling cavity 321, second arc-shaped groove 322, second cleaning through hole 323, support part 330, door frame 331, first connecting vertical plate 332, first slide groove 3321, second connecting vertical plate 333, second slide groove 3331, second circulating pump 340, second cooling water pipe 350, nozzle 351, third cooling component 400, second transmission roller 410, third transmission roller 420, quartz tube 430, third cooling water pipe 440, third cooling tank liquid pipe 450, heat dissipation tank 451. DETAILED DESCRIPTION
[0030] The technical solutions and technical effects of the embodiments of the present invention are further described in detail below in conjunction with the accompanying drawings of the present invention.
[0031] Please see Figure 1A formation tank aluminum foil strip cooling device 10, comprising a plurality of formation tanks 100 connected in sequence, and an aluminum foil strip cooling component, wherein the aluminum foil strip cooling component comprises a first cooling component 200, a second cooling component 300, and a third cooling component 400, wherein the third cooling component 400 is located between the first two adjacent formation tanks 100, the first cooling component 200 and the second cooling component 300 are located between the subsequent two adjacent formation tanks 100, the third cooling component 400 is located in front of the first cooling component 200, and the first cooling component 200 is located between the first two adjacent formation tanks 100. 00 is two, the two first cooling components 200 are symmetrically arranged above the two adjacent formation tanks 100, and the two first cooling components 200 are close to the connection between the two adjacent formation tanks 100, the second cooling component 300 is located above the connection between the two adjacent formation tanks 100, and the second cooling component 300 is located between the two first cooling components 200, and the aluminum foil tape passes through the third cooling component 400, the top of the first cooling component 200, the bottom of the second cooling component 300, and the top of the first cooling component 200 in sequence for cooling.
[0032] Specifically, for example, if there are four formation tanks 100, the third cooling component 400 is located between the first formation tank 100 and the second formation tank 100, above the first cooling component 200, and the second cooling component 300 is located between the second formation tank 100 and the third formation tank 100, and between the third formation tank 100 and the fourth formation tank 100.
[0033] Please see Figures 2 to 5 Further, the third cooling component 400 includes a second transmission roller 410, a third transmission roller 420, and a quartz tube 430. The second transmission roller 410 and the third transmission roller 420 are located in the same horizontal plane, and the quartz tube 430 is located between the second transmission roller 410 and the third transmission roller 420. The second transmission roller 410, the third transmission roller 420, and the quartz tube 430 are parallel to each other. The two ends of the second transmission roller 410, the third transmission roller 420, and the quartz tube 430 are respectively connected to the two side walls of the formation tank 100. When the aluminum foil passes through the top of the second transmission roller 410, the bottom of the quartz tube 430, and the top of the third transmission roller 420 in sequence, on the one hand, the quartz tube 430 is used to cool the aluminum foil strip; on the other hand, the high temperature resistance of the quartz tube 430 is used to reduce the stress on the surface of the aluminum foil strip, increase the ductility of the aluminum foil strip, and make it not easy to break, so that the number of bending times is increased, and the frequency of being fixed during use is reduced, thereby reducing the wear of the aluminum foil.
[0034] Furthermore, there are two quartz tubes 430 , and the two quartz tubes 430 are symmetrically arranged on both sides of the second transmission roller 410 .
[0035] Furthermore, the third cooling component 400 also includes a third cooling water pipe 440, the bottom of the third cooling water pipe 440 is evenly provided with third water outlets along the length direction, the quartz tube 430 is located below the first transmission roller 210, the third cooling water pipe 440 is located above the quartz tube 430, the third cooling water pipe 440 is parallel to the quartz tube 430, the third cooling water pipe 440 is connected to the two side walls of the formation tank 100, and the third cooling water pipe 440 is connected to the pure water storage tank. Then, pure water is delivered to the third cooling water pipe 440 through a pump to cool the aluminum foil strip through the pure water. Since the aluminum foil strip is charged, the temperature in the formation tank 100 is high, resulting in a high surface temperature of the aluminum foil strip and the surface of the aluminum foil is easy to dry. By arranging the third cooling water pipe 440 on the quartz tube 430, on the one hand, the surface of the aluminum foil strip is prevented from drying out and reacting on the surface of the aluminum foil; on the other hand, when the aluminum foil strip passes through the second transmission roller 410, the quartz tube 430 and the third transmission roller 420, the surface of the aluminum foil is prevented from drying out and the aluminum foil is pulled apart during operation.
[0036] Furthermore, the third cooling water pipe 440 is located between the second driving roller 410 and the quartz tube 430 . There are two third cooling water pipes 440 , and the two third cooling water pipes 440 are symmetrically arranged on both sides of the second driving roller 410 .
[0037] Furthermore, the third cooling component 400 also includes a third cooling tank liquid pipe 450, and there are two third cooling tank liquid pipes 450. The two third cooling tank liquid pipes 450 are symmetrically arranged on both sides of the second drive roller 410, and the third cooling tank liquid pipe 450 is located obliquely above the third drive roller 420, and the inclination direction of the third cooling tank liquid pipe 450 is away from the quartz tube 430. The two ends of the third cooling tank liquid pipe 450 are connected to the two sides of the formation tank 100 directly below it, and the third cooling tank liquid pipe 450 is connected to the liquid in the formation tank 100, so that the liquid in the formation tank 100 is transported to the third cooling tank liquid pipe 450 through a pump, and the aluminum foil strip is cooled by the liquid in the third cooling tank liquid pipe 450 to prevent the aluminum foil strip from drying out, being broken, and reacting.
[0038] Furthermore, a plurality of third liquid outlet holes are evenly arranged at the bottom of the third cooling tank liquid tube 450 along the length direction, and a heat dissipation groove 451 is opened above the third cooling tank liquid tube 450. The liquid in the third cooling tank liquid tube 450 can flow to the aluminum foil belt located on the third transmission roller 420 through the third liquid outlet hole of the third cooling tank liquid tube 450 arranged at the bottom, and will not flow to the quartz tube 430. Since the temperature of the liquid in the formation tank 100 is high, the temperature of the liquid in the cooling tank 310 liquid tube is reduced by opening the heat dissipation groove 451 above the third cooling tank liquid tube 450.
[0039] Furthermore, a lifting assembly 110 is arranged above between the two adjacent formation tanks 100, and the lifting assembly 110 includes a fixed frame 111 and a lifting portion 112. The fixed frame 111 is U-shaped, and is located above the formation tank 100. The lifting portion 112 is located below the fixed frame 111. The lifting portion 112 is located directly above the second transmission roller 410. The open end of the fixed frame 111 is connected to the formation tank 100, and the lifting portion 112 is slidably connected to the fixed frame 111. The lifting portion 112 is connected to the second transmission roller 410 to drive the first transmission roller 210 to rise and fall. By setting the lifting portion 112, the distance between the second transmission roller 410 and the quartz tube 430 can be adjusted to prevent uneven force on the aluminum foil strip due to too wide or too narrow a distance.
[0040] Furthermore, the lifting part 112 includes a lifting frame 1121, a driving screw rod 1123, and a hand wheel 1124. The lifting frame 1121 is U-shaped, and the opening of the lifting frame 1121 is downward. The lifting frame 1121 is rotatably connected to the second transmission roller 410, one end of the driving screw rod 1123 is rotatably connected to the top of the lifting frame 1121, and the other end of the driving screw rod 1123 passes through the fixed frame 111 and is fixedly connected to the hand wheel 1124. When the second transmission roller 410 needs to rise, the hand wheel 1124 is rotated. 124, the driving screw rod 1123 is threadedly connected with the fixed frame 111, the driving screw rod 1123 rises, drives the lifting frame 1121 to rise, and the lifting frame 1121 drives the second transmission roller 410 to rise; when the second transmission roller 410 needs to be lowered, the hand wheel 1124 is turned, the driving screw rod 1123 is threadedly connected with the fixed frame 111, the driving screw rod 1123 rises, drives the lifting frame 1121 to descend, and the lifting frame 1121 drives the second transmission roller 410 to descend, so as to adjust the position of the second transmission roller 410.
[0041] Furthermore, sliders 1122 are disposed outside of both sides of the lifting frame 1121 , and third slide grooves 1111 are disposed inside of both sides of the fixing frame 111 . The sliders 1122 of the lifting frame 1121 can slide in the third slide grooves 1111 of the fixing frame 111 .
[0042] Please see Figures 6 to 9Further, the first cooling component 200 includes a first transmission roller 210 and a first cooling tank liquid pipe 220. The bottom of the first cooling tank liquid pipe 220 is provided with a first liquid outlet along the length direction. The first transmission roller 210 is located above the chemical formation tank 100, and the first transmission roller 210 is close to the connection between two adjacent chemical formation tanks 100. The first cooling tank liquid pipe 220 is located above the first transmission roller 210. The first transmission roller 210 and the first cooling tank liquid pipe 220 are parallel to each other. The third cooling component 400 is connected to the side wall of the connection between two adjacent chemical formation tanks 100. Both ends of the first transmission roller 210 are respectively The first cooling tank liquid pipe 220 is rotatably connected to the side wall of the formation tank 100 located therebelow, and the first cooling tank liquid pipe 220 is connected to the formation tank 100 therebelow to communicate the first cooling tank liquid pipe 220 with the tank liquid in the corresponding formation tank 100. The tank liquid in the first cooling tank liquid pipe 220 drips onto the aluminum foil strip through the first liquid outlet hole of the first cooling tank liquid pipe 220. By cooling the aluminum foil strip, when the temperature of the aluminum foil strip is reduced, the surface of the aluminum foil strip is moistened and will not dry out, and will not generate a large amount of heat, so that the surface temperature of the first transmission roller 210 used for transportation is also reduced, thereby reducing the heating of the first transmission roller 210 and delaying the aging of the first transmission roller 210.
[0043] Furthermore, the first cooling component 200 also includes a first cooling water pipe 230 and a first collecting tank 240. The first cooling water pipe 230 is provided with a first water outlet at the bottom. The first cooling tank liquid pipe 220 and the first cooling water pipe 230 are symmetrically arranged above the first driving roller 210, and the first cooling water pipe 230 is located near the connection between two adjacent formation tanks 100. The first collecting tank 240 is located below the first driving roller 210. Both ends of the first cooling water pipe 230 are connected to the formation tank 100. The first collecting tank 240 is connected to the upper edge of the formation tank 100. Pure water is introduced into the second cooling pipe; the liquid in the first cooling tank liquid pipe 220 can drip onto the first driving roller 210 through the first liquid outlet of the first cooling tank liquid pipe 220, and the liquid in the first cooling water pipe 230 can also drip onto the first driving roller 210 through the first water outlet of the first cooling water pipe 230. The water in the pure water tank is transported to the first driving roller 210 by a pump. In the first cooling water pipe 230, the tank liquid in the formation tank 100 is transported to the first cooling tank liquid pipe 220 by a pump. When the aluminum foil strip passes through the first transmission roller 210 and is about to enter the next tank from the formation tank 100, the aluminum foil strip is first dripped with the tank liquid of the formation tank 100 in the first cooling tank liquid pipe 220, and then the aluminum foil strip is cleaned with the pure water in the first cooling water pipe 230. The cleaned aluminum foil strip enters the next tank for reaction; and the tank liquid and pure water on the surface of the first transmission roller 210 enter the first receiving roller 210. In the collecting tank 240; on the one hand, the mixed liquid of the tank liquid and the pure water is prevented from affecting the tank liquid concentration in the formation tank 100; on the other hand, the first cooling tank liquid pipe 220 and the first cooling water pipe 230 are used to cool the aluminum foil strip while cleaning the surface of the aluminum foil strip, which not only prevents the aluminum foil strip from drying out and breaking, but also prevents the liquid carried by the aluminum foil strip from polluting the formation tank 100 that is about to enter; on the other hand, the liquid temperature in the first collecting tank 240 is low, and the first transmission roller 210 can be radiated and cooled.
[0044] Furthermore, the first cooling component 200 further includes a first circulation pump 250, a first cooling cavity 211 is arranged inside the first driving roller 210, a first cleaning through hole 212 is arranged outside the first driving roller 210, the first cleaning through hole 212 is communicated with the first cooling cavity 211, the first circulation pump 250 is fixedly connected to the formation tank 100, the inlet of the first circulation pump 250 is connected to the first collecting tank 240, and the outlet of the first circulation pump 250 is connected to the first driving roller 210 to communicate with the first cooling cavity 211; the liquid flowing to the surface of the first driving roller 210 enters the first cooling cavity 211 through the first cleaning through hole 212, and the liquid stored in the first cooling cavity 211, a On the one hand, the first drive roller 210 is cooled down, and the first drive roller 210 cools down the aluminum foil strip; on the other hand, during the process of conveying the aluminum foil strip forward, as the aluminum foil strip moves forward, the first drive roller 210 rotates, and liquid comes out of the first cooling cavity 211 and flows to the surface of the first drive roller 210, so as to wet and cool down the bottom of the aluminum foil strip conveyed by the first drive roller 210, and reduce the heat of the first drive roller 210, so as to delay the aging of the first drive roller 210; and the liquid in the first collecting tank 240 is conveyed to the first cooling cavity 211 of the first drive roller 210 through the first circulating pump 250, and as the first drive roller 210 rotates, the liquid comes out of the first cooling cavity 211 of the first drive roller 210, so as to circulate, clean and cool down the aluminum foil strip.
[0045] Furthermore, the first arc-shaped grooves 213 are evenly arranged on the surface of the first driving roller 210 along the length direction, and the first cleaning hole 212 is located in the first arc-shaped groove 213 to prevent the liquid from being blocked when flowing out of the first cleaning hole 212 of the first driving roller 210, thereby increasing the flushing force of the fluid on the aluminum foil strip, so that the bottom of the aluminum foil strip is cleaned.
[0046] Please see Figures 10 to 14Further, the second cooling component 300 includes a cooling tank 310, a cooling roller 320, and a support part 330. There are two support parts 330. The cooling tank 310 is located above the connection between two adjacent chemical formation tanks 100. The cooling roller 320 is located in the cooling tank 310. The support parts 330 are respectively located at both ends of the cooling roller 320. The bottom of the cooling tank 310 is connected to the top wall of the connection between the two adjacent chemical formation tanks 100. The cooling roller 320 It is rotatably connected to the support part 330, and the support part 330 is connected to the top wall of the connection between two adjacent formation tanks 100. The cooling tank 310 contains pure water. The cooling roller 320 presses the aluminum foil strip into the cooling tank 310 to contact with the pure water. When the aluminum foil strip passes under the cooling roller 320, pure water is injected into the cooling tank 310. The cooling roller 320 presses the aluminum foil into the cooling tank 310, and the aluminum foil strip is cooled and cleaned with pure water during its forward movement.
[0047] Furthermore, a second cooling cavity 321 is arranged in the cooling roller 320 along the length direction, and a second cleaning through hole 323 is arranged outside the cooling roller 320, and the second cleaning through hole 323 is connected with the second cooling cavity 321; pure water enters the cooling roller 320 through the second cooling cavity 321, and as the cooling roller 320 rotates, water comes out from the second cleaning through hole 323 to repeatedly clean the surface of the aluminum foil strip, so that the surface of the aluminum foil strip is cleaned and it is not easy to pollute the tank liquid in the chemical formation tank 100; and the aluminum foil passes through the top of the first transmission roller 210, the bottom of the cooling roller 320, and the top of the first transmission roller 210 in sequence, and the cooling roller 320 is located below the first transmission roller 210, so that the cleaned water flows back to the cooling tank 310 along the inclination angle of the aluminum foil strip, thereby reducing the influence of pure water on the concentration of the chemical formation liquid, and the water flowing back to the cooling tank 310 can be recycled to reduce waste.
[0048] Further, the second cooling component 300 further includes a second circulation pump 340 and a second cooling water pipe 350. There is at least one second cooling water pipe 350. A nozzle 351 is provided on the second cooling water pipe 350. The second cooling water pipe 350 is located in the cooling tank 310. The second cooling water pipe 350 is located on the side of the cooling roller 320. The second cooling water pipe 350 is parallel to the aluminum foil. The nozzle 351 faces the aluminum foil. The second circulation pump 340 is connected to the support portion 330. The second circulation pump 340 is fixedly connected to the support portion 330. The inlet of the second circulation pump 340 is connected to the cooling tank 310. The outlet of the circulation pump is connected to the second cooling water pipe 350. The second cooling water pipe 350 is connected to the support portion 330. When the second circulation pump 340 is turned on, the second circulation pump 340 pumps the water in the cooling tank 310 into the second cooling water pipe 350. The water sprays out from the nozzle 351 of the second cooling water pipe 350 and sprays onto the upper surface and the bottom surface of the aluminum foil to perform re-cleaning and remove the residual forming liquid particles on the surface of the aluminum foil.
[0049] Further, there are two second cooling water pipes 350 on the same side. The two second cooling water pipes 350 are arranged oppositely. The aluminum foil strip is located between the two second cooling water pipes 350 to wash the upper surface and the bottom surface of the aluminum foil strip, so that the surface of the aluminum foil strip is cleaned.
[0050] Further, the nozzle 351 is flat-shaped to increase the flushing area and the flushing pressure.
[0051] Further, the included angle a formed by the cooling roller 320 and the two first driving rollers 210 satisfies: 60° < a < 120°, so that the cleaned water can flow back into the cooling tank 310, reducing the influence on the concentration of the solution in the forming tank 100, and the water can be recycled to avoid waste.
[0052] Further, a wave wheel 311 is provided in the cooling tank 310. The wave wheel 311 can be driven to rotate by a motor or can rotate with the vibration of the water flowing back in the cooling tank 310. Through the rotation of the wave wheel 311, the water in the cooling tank 310 flows, making the aluminum foil immersed in the cooling tank 310 cleaner.
[0053] Further, second arc-shaped grooves 322 are uniformly arranged along the length direction of the cooling roller 320. The second cleaning through holes 323 are located in the second arc-shaped grooves 322. Through the included angle a formed by the cooling roller 320 and the two first driving rollers 210 and the second arc-shaped grooves 322, the water coming out of the second cleaning through holes 323 rotates with the cooling roller 320. The cooling roller 320 and the aluminum foil strip squeeze the pure water, increasing the pure water pressure, so that the stubborn forming liquid particles on the aluminum foil are also washed away, making the surface of the aluminum foil clean.
[0054] Furthermore, the support portion 330 includes a door frame 331, a first connecting vertical plate 332, and a second connecting vertical plate 333. The first connecting vertical plate 332 and the second connecting vertical plate 333 are both two, and the two first connecting vertical plates 332 and the second connecting vertical plates 333 are both located at the two ends of the cooling roller 320. The second circulating pump 340 is connected to the door frame 331. The two ends of the door frame 331 are connected to the upper edges of the connection between the two adjacent chemical formation tanks 100. One end of the two first connecting vertical plates 332 They are respectively connected to the lower end of the door frame 331, and the other ends of the two first connecting vertical plates 332 are respectively slidably connected to one end of the two second connecting vertical plates 333, and the other ends of the two second connecting vertical plates 333 are rotatably connected to the two ends of the cooling roller 320, so as to control the position of the cooling roller 320 through the sliding connection of the first connecting vertical plates 332 and the second connecting vertical plates 333, so as to adjust the angle formed by the cooling roller 320 and the two first transmission rollers 210, so as to prevent the aluminum foil from being pulled too tight and causing the aluminum foil belt to break.
[0055] Furthermore, the first connecting vertical plate 332 is provided with a first slide groove 3321 along the length direction, the interior of the first connecting vertical plate 332 is hollow, and the second connecting vertical plate 333 is provided with a second slide groove 3331 along the length direction, and the second connecting vertical plate 333 slides in the first connecting vertical plate 332, and the first connecting vertical plate 332 and the second connecting vertical plate 333 are plugged through the first slide groove 3321 and the second slide groove 3331. By inserting the second connecting vertical plate 333 into the first connecting vertical plate 332 and installing it to the corresponding position, an insert block is used to pass through the first slide groove 3321 and the second slide groove 3331, so that the second connecting vertical plate 333 is fixed, which can adjust the position of the cooling roller 320 on the one hand, and facilitate the installation of the cooling roller 320 on the other hand.
[0056] What is disclosed above is only a preferred embodiment of the present invention, which certainly cannot be used to limit the scope of rights of the present invention. A person skilled in the art can understand that all or part of the processes of the above embodiments and equivalent changes made according to the claims of the present invention still fall within the scope of the invention.
Claims
1. A cooling device for aluminum foil strip in a forming tank, characterized in that: The invention comprises a plurality of sequentially connected chemical formation tanks and an aluminum foil strip cooling component, wherein the aluminum foil strip cooling component comprises a first cooling component and a second cooling component located between two adjacent chemical formation tanks, wherein the first cooling component is two, and the two first cooling components are symmetrically arranged above the two adjacent chemical formation tanks, and the two first cooling components are both close to the connection between the two adjacent chemical formation tanks, and the second cooling component is located above the connection between the two adjacent chemical formation tanks, and the second cooling component is located between the two first cooling components, and the aluminum foil strip passes through the top of the first cooling component, the bottom of the second cooling component, and the top of the first cooling component in sequence; The first cooling component includes a first transmission roller and a first cooling tank liquid pipe. The first liquid outlet is arranged at the bottom of the first cooling tank liquid pipe. The first transmission roller is located above the chemical formation tank and is close to the connection between two adjacent chemical formation tanks. The first cooling tank liquid pipe is located above the first transmission roller. The first transmission roller and the first cooling tank liquid pipe are parallel to each other. The third cooling component is connected to the side wall of the connection between two adjacent chemical formation tanks. The two ends of the first transmission roller are respectively rotatably connected to the side wall of the chemical formation tank located below it. The first cooling tank liquid pipe is connected to the chemical formation tank below it to connect the first cooling tank liquid pipe with the tank liquid in the corresponding chemical formation tank.
2. The cooling device for the aluminum foil strip of the chemical formation tank according to claim 1, characterized in that: The first cooling component also includes a first cooling water pipe and a first collecting tank. A first water outlet is arranged at the bottom of the first cooling water pipe. The first cooling tank liquid pipe and the first cooling water pipe are symmetrically arranged above the first driving roller, and the first cooling water pipe is located near the connection between two adjacent formation tanks. The first collecting tank is located below the first driving roller. Both ends of the first cooling water pipe are connected to the formation tank, and the first collecting tank is connected to the upper edge of the formation tank. Pure water is introduced into the second cooling pipe.
3. The cooling device for the aluminum foil strip of the chemical formation tank according to claim 2, characterized in that: The first cooling component also includes a first circulation pump, a first cooling cavity is arranged inside the first driving roller, a first cleaning through hole is arranged outside the first driving roller, the first cleaning through hole is communicated with the first cooling cavity, the first circulation pump is fixedly connected to the formation tank, the inlet of the first circulation pump is connected to the first collecting tank, and the outlet of the first circulation pump is connected to the first driving roller to communicate with the first cooling cavity.
4. The cooling device for the aluminum foil strip of the chemical formation tank according to claim 1, characterized in that: The second cooling component includes a cooling tank, a cooling roller, and a support part. There are two support parts. The cooling tank is located above the connection between two adjacent chemical formation tanks. The cooling roller is located in the cooling tank. The support parts are respectively located at both ends of the cooling roller. The bottom of the cooling tank is connected to the top wall of the connection between two adjacent chemical formation tanks. The cooling roller is rotatably connected to the support part. The support part is connected to the top wall of the connection between two adjacent chemical formation tanks. There is pure water in the cooling tank. The cooling roller presses the aluminum foil strip into the cooling tank to contact with the pure water.
5. The cooling device for aluminum foil strip in a chemical formation tank as claimed in claim 4, characterized in that: A second cooling cavity is arranged inside the cooling roller along the length direction, and a second cleaning through hole is arranged outside the cooling roller, and the second cleaning through hole is communicated with the second cooling cavity.
6. The cooling device for aluminum foil strip in a chemical formation tank as claimed in claim 4, characterized in that: The second cooling component also includes a second circulation pump and a second cooling water pipe. There is at least one second cooling water pipe. A nozzle is arranged on the second cooling water pipe. The second cooling water pipe is located in a cooling tank. The second cooling water pipe is located on the side of the cooling roller. The second cooling water pipe and the aluminum foil are parallel to each other. The nozzle faces the aluminum foil. The second circulation pump is connected to the support part. The inlet of the second circulation pump is connected to the cooling tank. The outlet of the circulation pump is connected to the second cooling water pipe. The second cooling water pipe is connected to the support part.
7. The cooling device for aluminum foil strip in a chemical formation tank according to claim 6, characterized in that: There are two second cooling water pipes located on the same side. The two second cooling water pipes are arranged opposite to each other, and the aluminum foil strip is located between the two second cooling water pipes.
8. The cooling device for aluminum foil strip in a chemical formation tank as claimed in claim 3, characterized in that: The aluminum foil strip cooling component also includes a third cooling component, which is located between the first two adjacent formation tanks, the first cooling component and the second cooling component are located between the subsequent two adjacent formation tanks, and the third cooling component is located in front of the first cooling component. The third cooling component includes a second drive roller, a third drive roller, and a quartz tube. The second drive roller and the third drive roller are located on the same horizontal plane, and the quartz tube is located between the second drive roller and the third drive roller. The second drive roller, the third drive roller, and the quartz tube are parallel to each other, and the two ends of the second drive roller, the third drive roller, and the quartz tube are respectively connected to the two side groove walls of the formation tank, and the aluminum foil passes through the top of the second drive roller, the bottom of the quartz tube, and the top of the third drive roller in sequence.
9. The cooling device for aluminum foil strip in a chemical formation tank according to claim 8, characterized in that: The third cooling component also includes a third cooling water pipe, a third water outlet is arranged at the bottom of the third cooling water pipe, the quartz tube is located below the first transmission roller, the third cooling water pipe is located above the quartz tube, the third cooling water pipe is parallel to the quartz tube, and the third cooling water pipe is connected to the two side walls of the formation tank.
10. The aluminum foil strip cooling device for forming tank according to claim 9, characterized in that: The third cooling assembly also includes a third cooling tank liquid pipe, which is located obliquely above the third driving roller, and the third cooling tank liquid pipe is inclined away from the quartz tube. Both ends of the third cooling tank liquid pipe are connected to both sides of the formation tank.