Aluminum foil formation machine

Abstract

The invention provides an aluminum foil formation machine, and belongs to the technical field of formation machines, the aluminum foil formation machine comprises a pretreatment section, a formation section and a water vapor diffusion stop component, the water vapor diffusion stop component comprises a plurality of cooling assemblies and a diffusion stop assembly, the pretreatment section is connected with the cooling assemblies, the pretreatment section is further connected with the diffusion stop assembly, and the water vapor diffusion stop assembly is connected with the formation section. The formation section is connected with the cooling assembly, and the formation section and the diffusion stop assembly are both connected with the pretreatment section, so that the pretreatment section and the formation section are cooled through the cooling assembly and the diffusion stop assembly, heat diffusion of water vapor is prevented, and the working environment temperature of workers is reduced; and a worker does not feel fatigue due to heat, so that the working safety coefficient of the worker is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of electrode foil forming equipment, and in particular relates to an aluminum foil forming machine. Background Art

[0002] The preparation process of electrode foil is divided into pre-forming stage, forming stage and heat treatment stage. The liquid in the forming tank in the pre-forming stage and the forming stage will be heated to produce a large amount of water vapor. When the aluminum foil strip enters another forming tank from one forming tank, the aluminum foil itself will carry a large amount of heat, and the aluminum foil is charged, which accelerates the evaporation of water vapor on the surface of the aluminum foil, resulting in a very hot working environment for the staff, causing fatigue of the staff and prone to safety accidents. Summary of the invention

[0003] In view of this, the present invention provides an aluminum foil forming machine to reduce the temperature of the working environment of the staff and make production safer.

[0004] An aluminum foil forming machine comprises a pretreatment section, a forming section, and a water vapor diffusion stop component, wherein the water vapor diffusion stop component comprises a plurality of cooling components and a diffusion stop component, wherein the pretreatment section is connected to the cooling component, and the pretreatment section is also connected to the diffusion stop component, and the forming section is connected to the cooling component, and the forming section is also connected to the diffusion stop component, so that the pretreatment section and the forming section are cooled by the cooling component and the diffusion stop component to prevent heat diffusion.

[0005] Preferably, the pretreatment section and the formation section each include several formation tanks, each cooling component is located at the connection between two adjacent formation tanks, each diffusion stop component is located at each formation tank, the cooling component is connected to the connection between two adjacent formation tanks, and the diffusion stop component is connected to the formation tank.

[0006] Preferably, the cooling component includes a first cooling part, a second cooling part, and a third cooling part. The first cooling part is located between the first two adjacent forming tanks in the pretreatment section, and the second cooling part and the third cooling part are located between the subsequent two adjacent forming tanks. The first cooling part, the second cooling part, and the third cooling part are respectively connected to the connection between the forming tanks to cool the aluminum foil entering and exiting the forming tank.

[0007] Preferably, there are two second cooling parts, which are symmetrically arranged on both sides of the third cooling part, the two second cooling parts are close to the connection between the formation tanks, the third cooling part is located directly above the connection between the formation tanks, the two second cooling parts are respectively connected to the upper edges of two adjacent formation tanks, and the third cooling part is connected to the connection between the formation tanks.

[0008] Preferably, the two second cooling parts located in the same formation tank are respectively located on both sides of the formation tank.

[0009] Preferably, the first cooling part includes a first transmission roller, a second transmission roller, a quartz tube, a first water tube, and a first tank liquid tube. The bottom of the first water tube is provided with a first water outlet along the length direction, and the bottom of the first tank liquid tube is provided with a second liquid outlet along the length direction. The first transmission roller is located at the connection of the first two adjacent chemical formation tanks in the pretreatment section. The first transmission roller and the second transmission roller are located in the same horizontal plane. The quartz tube is located between the first transmission roller and the second transmission roller. The first transmission roller, the second transmission roller, and the quartz tube are parallel to each other. The quartz tube is located below the first transmission roller. The first water tube is located above the quartz tube. The first water tube is parallel to the quartz tube. The first tank liquid tube is located obliquely above the second transmission roller, and the third cooling tank liquid tube is inclined away from the quartz tube. The first transmission roller, the second transmission roller, the quartz tube, the first water tube, and the first tank liquid tube are respectively connected to the two side walls of the chemical formation tank at both ends. The aluminum foil passes through the top of the first transmission roller, the bottom of the quartz tube, and the top of the second transmission roller in sequence.

[0010] Preferably, the second cooling part includes a third transmission roller, a second tank liquid pipe, a second water pipe, and a first cooling tank. The bottom of the second tank liquid pipe is provided with a second liquid outlet along the length direction. The bottom of the second water pipe is provided with a second water outlet along the length direction. The third transmission roller is located above the formation tank, and the third transmission roller is close to the connection between two adjacent formation tanks. The second tank liquid pipe and the second water pipe are symmetrically arranged above the third transmission roller, and the second water pipe is located close to the connection between two adjacent formation tanks. The first cooling tank is located below the third transmission roller. The third transmission roller, the second tank liquid pipe, and the second water pipe are parallel to each other. The two ends of the third transmission roller are respectively rotatably connected to the side walls of the formation tank located below it. The second tank liquid pipe is connected to the formation tank below it to connect the second tank liquid pipe with the tank liquid in the corresponding formation tank. The two ends of the second water pipe are connected to the formation tank. The first cooling tank is connected to the upper edge of the formation tank. Pure water is introduced into the second cooling pipe.

[0011] Preferably, the third cooling part includes a second cooling tank, a cooling roller, and a supporting part. There are two supporting parts. The second cooling tank is located above the connection between two adjacent formation tanks. The cooling roller is located in the second cooling tank. The supporting parts are respectively located at both ends of the cooling roller. The bottom of the second cooling tank is connected to the top wall of the connection between two adjacent formation tanks. The cooling roller is rotatably connected to the supporting part. The supporting part is connected to the top wall of the connection between two adjacent formation tanks. The second cooling tank contains pure water. The cooling roller presses the aluminum foil strip into the second cooling tank to contact with the pure water.

[0012] Preferably, the diffusion stop assembly includes a water vapor stop part and a shielding cover, and there are several shielding covers. The water vapor stop part is arranged on one side of the formation tank, and the shielding covers are arranged in sequence above the formation tank. The water vapor stop part is connected to one side of the formation tank, and the shielding cover is covered on the formation tank, the cooling assembly, and the water vapor stop part. The shielding cover and the water vapor stop part enclose a closed space above the formation tank to prevent water vapor from diffusing.

[0013] Preferably, the water vapor stopping portion includes a cooling air hood, a cooling water pipe, a cooling conveying channel, a fan, and a storage tank. The cooling air hood is located at the upper edge of one side of the formation tank, the gas phase inlet of the cooling air hood faces the open end of the formation tank, the cooling water pipe is located in the circumference of the cooling air hood, the bottom of the cooling air hood is connected to the upper edge of the formation tank, the outlet of the cooling air hood is connected to the inlet of the cooling conveying channel, the side outlet of the cooling conveying channel is connected to the inlet of the fan, the bottom outlet of the cooling conveying channel is connected to the storage tank, and the outlet of the storage tank is connected to the water inlet of the formation tank.

[0014] Compared with the prior art, the present invention has the following beneficial effects: The aluminum foil forming machine of the present invention comprises a pretreatment section, a forming section, and a water vapor diffusion stop component, wherein the water vapor diffusion stop component comprises a plurality of cooling components and a diffusion stop component, wherein the pretreatment section is connected to the cooling component, the pretreatment section is also connected to the diffusion stop component, the forming section is connected to the cooling component, the forming section is also connected to the diffusion stop component, and both are connected to the pretreatment section, so that the pretreatment section and the forming section are cooled by the cooling component and the diffusion stop component to prevent the heat diffusion of water vapor, so that the working environment temperature of the staff is reduced, the staff will not feel tired due to heat, and the safety factor of the staff's work is improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is an axonometric view of an aluminum foil forming machine.

[0016] Figure 2 This is an axonometric view of the cooling component.

[0017] Figure 3 It is a schematic diagram of the structure of the first cooling part of the pretreatment section.

[0018] Figure 4 This is a schematic structural diagram of the first cooling part of the pretreatment section from another angle.

[0019] Figure 5 It is a schematic diagram of the structure of the formation tank and the second cooling part.

[0020] Figure 6 It is a schematic structural diagram of the formation tank and the second cooling part from another angle.

[0021] Figure 7 It is a top view of the formation tank and the second cooling part.

[0022] Figure 8 It is a cross-sectional view of the third transmission roller.

[0023] Fig. 9 It is a schematic diagram of the structure of the formation tank and the third cooling part.

[0024] Fig.10 It is a schematic structural diagram of the formation tank and the third cooling part from another angle.

[0025] Fig.11 It is a schematic diagram of the structure of the cooling roller.

[0026] Fig.12 It is a schematic diagram of the structure of the formation tank and the diffusion stop assembly.

[0027] Fig.13 Rear view of the diffusion stop assembly.

[0028] Fig.14 for Fig.13 Sectional view along AA direction.

[0029] Fig.15 This is the assembly diagram of the aluminum foil forming machine.

[0030] Fig.16 for Fig.15 A partial enlarged view of B.

[0031] In the figure: aluminum foil forming machine 01, water vapor diffusion stopper 10, cooling assembly 100, first cooling part 110, first transmission roller 111, second transmission roller 112, quartz tube 113, first water pipe 114, first tank liquid pipe 115, heat dissipation groove 1151, second cooling part 120, third transmission roller 121, first cooling cavity 1211, first cleaning through hole 1212, first arc groove 1213, second tank liquid pipe 122, second water pipe 123, first cooling tank 124, first circulation pump 125, third cooling part 130, second cooling tank 13 1. Impeller 1311, cooling roller 132, cooling cavity 1321, second arc-shaped groove 1322, second cleaning through hole 1323, support portion 133, second circulation pump 134, cleaning water pipe 135, nozzle 1351, diffusion stop assembly 200, water vapor stop portion 210, cooling air hood 211, fan blades 2111, cooling water pipe 212, cooling conveying channel 213, cooling plate 2131, fan 214, storage tank 215, circulating water pool 216, shielding cover 220, pretreatment section 20, formation section 30, formation tank 31, heat treatment section 40. DETAILED DESCRIPTION

[0032] 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.

[0033] Please see Figure 1 to Figure 2 , an aluminum foil forming machine 01, comprising a pretreatment section 20, a forming section 30, a water vapor diffusion stop component 10, and a heat treatment section 40, wherein the water vapor diffusion stop component 10 comprises a plurality of cooling components 100 and a diffusion stop component 200, wherein the pretreatment section 20 is connected to the forming section 30, wherein the forming section 30 is connected to the heat treatment section 40, wherein the pretreatment section 20 is connected to the cooling component 100, wherein the pretreatment section 20 is also connected to the diffusion stop component 200, wherein the forming section 30 is also connected to the cooling component 100, wherein the forming section 30 is also connected to the diffusion stop component 200, so as to cool the pretreatment section 20 and the forming section 30 through the cooling component 100 and the diffusion stop component 200 to prevent heat diffusion.

[0034] Compared with the prior art, the present invention has the following beneficial effects: The aluminum foil forming machine 01 of the present invention comprises a pretreatment section 20, a forming section 30, and a water vapor diffusion stop component 10. The water vapor diffusion stop component 10 comprises a plurality of cooling components 100 and a diffusion stop component 200. The pretreatment section 20 is connected to the cooling component 100, and the pretreatment section 20 is also connected to the diffusion stop component 200. The forming section 30 is connected to the cooling component 100, and the forming section 30 is also connected to the diffusion stop component 200. The pretreatment section 20 and the forming section 30 are cooled by the cooling component 100 and the diffusion stop component 200 to prevent the heat diffusion of water vapor, so that the working environment temperature of the staff is reduced, the staff will not feel tired due to heat, and the safety factor of the staff's work is improved.

[0035] Furthermore, the pretreatment section 20 and the formation section 30 each include a plurality of formation tanks 31, each of the cooling components 100 is located at the connection between two adjacent formation tanks 31, each of the diffusion stop components 200 is located at each formation tank 31, the cooling component 100 is connected to the connection between two adjacent formation tanks 31, the diffusion stop component 200 is connected to the formation tank 31, each cooling component 100 cools the aluminum foil entering and exiting the formation tank 31, and each diffusion stop component 200 stops the water vapor evaporating in the formation tank 31, thereby reducing the heat loss in the formation tank 31.

[0036] Please see Figures 1 to 11 Furthermore, the cooling component 100 includes a first cooling part 110, a second cooling part 120, and a third cooling part 130. The first cooling part 110 is located between the first two adjacent forming tanks 31 of the pretreatment section 20, and the second cooling part 120 and the third cooling part 130 are located between the subsequent two adjacent forming tanks 31. The first cooling part 110, the second cooling part 120, and the third cooling part 130 are respectively connected to the connection between the forming tanks 31 and the forming tanks 31 to cool the aluminum foil entering and exiting the forming tanks 31, so that the surface of the aluminum foil is moistened and the aluminum foil will not dry out or even break due to excessive heat.

[0037] Furthermore, there are two second cooling parts 120, and the second cooling parts 120 are symmetrically arranged on both sides of the third cooling part 130. The two second cooling parts 120 are close to the connection between the formation tanks 31 and the formation tanks 31, and the third cooling part 130 is located directly above the connection between the formation tanks 31 and the formation tanks 31. The two second cooling parts 120 are respectively connected to the upper edges of two adjacent formation tanks 31, and the third cooling part 130 is connected to the connection between the formation tanks 31 and the formation tanks 31, so that the aluminum foil is cleaned and cooled by the second cooling part 120, and then further cooled by the third cooling part 130, and then cleaned and cooled by the second cooling part 120, so that the heat of the aluminum foil is reduced, and the liquid carried on the surface of the aluminum foil will not affect the concentration of the formation tank 31 that is about to enter.

[0038] Furthermore, the two second cooling parts 120 located in the same formation tank 31 are respectively located on two sides of the formation tank 31 .

[0039] Further, the first cooling unit 110 includes a first transmission roller 111, a second transmission roller 112, a quartz tube 113, a first water pipe 114, and a first tank liquid pipe 115. The bottom of the first water pipe 114 is provided with a first water outlet along the length direction, and the bottom of the first tank liquid pipe 115 is provided with a second liquid outlet along the length direction. The first transmission roller 111 is located at the connection between the first two adjacent formation tanks 31 of the pretreatment section 20. The first transmission roller 111 and the second transmission roller 112 are located in the same horizontal plane. The quartz tube 113 is located between the first transmission roller 111 and the second transmission roller 112. The first driving roller 112 and the quartz tube 113 are parallel to each other, the quartz tube 113 is located below the first driving roller 111, the first water tube 114 is located between the first driving roller 111 and the quartz tube 113, the first water tube 114 is located above the quartz tube 113, the first water tube 114 is parallel to the quartz tube 113, the first tank liquid tube 115 is located obliquely above the second driving roller 112, and the third cooling tank liquid tube is inclined away from the quartz tube 113, the first driving roller 111, the second driving roller 112, the quartz tube 113, the first water tube 114, and the first tank liquid tube 115 are respectively connected to the chemical forming The two side walls of the groove 31 are connected, and the aluminum foil passes through the top of the first transmission roller 111, the bottom of the quartz tube 113, and the top of the second transmission roller 112 in sequence. In the pretreatment section 20, the quartz tube 113 is first used to cool the aluminum foil strip, and the high temperature resistance of the quartz tube 113 can reduce the stress on the surface of the aluminum foil strip, increase the ductility of the aluminum foil strip, and make it less likely 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. While increasing the ductility of the aluminum foil, pure water is pumped into the first water pipe 114 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 31 is high, resulting in the aluminum foil strip The surface temperature of the aluminum foil is high, and the surface of the aluminum foil is easy to dry. By arranging the first water pipe 114 on the quartz tube 113, on the one hand, the surface of the aluminum foil is prevented from drying and reacting; on the other hand, when the aluminum foil passes through the first transmission roller 111, the quartz tube 113, and the second transmission roller 112, the surface of the aluminum foil is prevented from drying and the aluminum foil is broken during operation. When the aluminum foil passes through the second transmission roller 112 and enters the next formation tank 31, the liquid in the next formation tank 31 is transported to the first tank liquid pipe 115 by a pump, and the aluminum foil is cleaned and cooled by the liquid in the first tank liquid pipe 115 to prevent the aluminum foil from drying, and the water on the surface of the aluminum foil will not affect the formation tank 31 that is about to enter.

[0040] Furthermore, there are two quartz tubes 113 , two first water tubes 114 , and two first tank liquid tubes 115 . The two quartz tubes 113 , the first water tubes 114 , and the first tank liquid tubes 115 are symmetrically arranged on both sides of the first transmission roller 111 .

[0041] Furthermore, a heat dissipation groove 1151 is opened above the first tank liquid pipe 115. By opening the heat dissipation groove 1151 above the first tank liquid pipe 115, the temperature of the liquid in the cooling tank liquid pipe is lowered, and the dissipated heat is recycled through the diffusion stop assembly 200 to reduce waste.

[0042] Further, the second cooling part 120 includes a third drive roller 121, a second tank liquid pipe 122, a second water pipe 123, and a first cooling tank 124. The bottom of the second tank liquid pipe 122 is provided with a second liquid outlet along the length direction, and the bottom of the second water pipe 123 is provided with a second water outlet along the length direction. The third drive roller 121 is located above the formation tank 31, and the third drive roller 121 is close to the connection between two adjacent formation tanks 31. The second tank liquid pipe 122 and the second water pipe 123 are symmetrically arranged above the third drive roller 121, and the second water pipe 123 is located Near the connection of two adjacent chemical formation tanks 31, the first cooling tank 124 is located below the third transmission roller 121, the third transmission roller 121, the second tank liquid pipe 122, and the second water pipe 123 are parallel to each other, the two ends of the third transmission roller 121 are respectively rotatably connected to the side wall of the chemical formation tank 31 located below it, the second tank liquid pipe 122 is connected to the chemical formation tank 31 below it, so that the second tank liquid pipe 122 is connected to the tank liquid in the corresponding chemical formation tank 31, the two ends of the second water pipe 123 are connected to the chemical formation tank 31, and the first cooling tank 124 is connected to the chemical formation tank 31, pure water is introduced into the second cooling pipe; the water in the pure water tank is transported to the second water pipe 123 by a pump, and the tank liquid in the corresponding formation tank 31 below the second tank liquid pipe 122 is transported to the second tank liquid pipe 122 by a pump. When the aluminum foil strip passes through the third transmission roller 121 and is about to come out of the formation tank 31 and enter the next tank, the aluminum foil strip is first dripped with the tank liquid of the formation tank 31 in the second tank liquid pipe 122, and then the aluminum foil strip is cleaned with the pure water in the second water pipe 123, and the cleaned aluminum foil strip enters the next tank for reaction; and the tank liquid on the surface of the third transmission roller 121, Pure water enters the first cooling tank 124; on the one hand, it prevents the mixed liquid of the tank liquid and the pure water from affecting the tank liquid concentration in the formation tank 31; on the other hand, the second tank liquid pipe 122 and the second water pipe 123 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 contaminating the formation tank 31 that is about to enter; on the other hand, the liquid temperature in the first cooling tank 124 is low, which can radiate and cool the third drive roller 121, reduce the heat of the third drive roller 121, and delay the aging of the third drive roller 121.

[0043] Further, the second cooling unit 120 also includes a first circulation pump 125, a first cooling cavity 1211 is arranged inside the third transmission roller 121, a first cleaning through hole 1212 is arranged outside the third transmission roller 121, the first cleaning through hole 1212 is communicated with the first cooling cavity 1211, the first circulation pump 125 is fixedly connected to the formation tank 31, the inlet of the first circulation pump 125 is connected to the first cooling tank 124, and the outlet of the first circulation pump 125 is connected to the third transmission roller 121 to communicate with the first cooling cavity 1211; the liquid flowing to the surface of the third transmission roller 121 enters the first cooling cavity 1211 through the first cleaning through hole 1212, and the liquid stored in the first cooling cavity 1211 On the one hand, the third transmission roller 121 is cooled down, and the third transmission roller 121 cools down the aluminum foil strip; on the other hand, in the process of conveying the aluminum foil strip forward, as the aluminum foil strip moves forward, the third transmission roller 121 rotates, and the liquid comes out of the first cooling cavity 1211 and flows to the surface of the third transmission roller 121, so as to wet and cool down the bottom of the aluminum foil strip conveyed by the third transmission roller 121, and reduce the heat of the third transmission roller 121, so as to delay the aging of the third transmission roller 121; and the liquid in the first cooling tank 124 is conveyed to the first cooling cavity 1211 of the third transmission roller 121 through the first circulation pump 125, and as the third transmission roller 121 rotates, the liquid comes out of the first cooling cavity 1211 of the third transmission roller 121, so as to circulate, clean and cool down the aluminum foil strip.

[0044] Furthermore, the surface of the third transmission roller 121 is evenly provided with a first arc-shaped groove 1213 along the length direction, and the first cleaning hole 1212 is located in the first arc-shaped groove 1213 to prevent the liquid from being blocked when flowing out of the first cleaning hole 1212 of the third transmission roller 121, thereby increasing the flushing force of the fluid on the aluminum foil strip and cleaning the bottom of the aluminum foil strip.

[0045] Further, the third cooling part 130 includes a second cooling tank 131, a cooling roller 132, and a support part 133. There are two support parts 133. The second cooling tank 131 is located above the connection between two adjacent chemical formation tanks 31. The cooling roller 132 is located in the second cooling tank 131. The support parts 133 are respectively located at both ends of the cooling roller 132. The bottom of the second cooling tank 131 is connected to the top wall of the connection between the two adjacent chemical formation tanks 31. The cooling roller 132 is connected to the second cooling tank 131. The support part 133 is rotatably connected, and the support part 133 is connected to the top wall of the connection between two adjacent formation tanks 31. The second cooling tank 131 contains pure water. The cooling roller 132 presses the aluminum foil strip into the second cooling tank 131 to contact with the pure water. When the aluminum foil strip passes under the cooling roller 132, pure water is injected into the second cooling tank 131. The cooling roller 132 presses the aluminum foil into the second cooling tank 131. In the process of the aluminum foil strip moving forward, the aluminum foil strip is cooled and cleaned with pure water.

[0046] Specifically, the support portion 133 is two support vertical plates or two L-shaped members.

[0047] Furthermore, a second cooling cavity 1321 is arranged in the cooling roller 132 along the length direction, and a second cleaning through hole 1323 is arranged outside the cooling roller 132, and the second cleaning through hole 1323 is connected with the second cooling cavity 1321; pure water enters the cooling roller 132 through the second cooling cavity 1321, and as the cooling roller 132 rotates, water comes out of the second cleaning through hole 1323 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 formation tank 31; and the aluminum foil passes through the top of the third transmission roller 121, the bottom of the cooling roller 132, and the top of the third transmission roller 121 in sequence, and the cooling roller 132 is located below the third transmission roller 121, so that the cleaned water flows back to the second cooling tank 131 along the inclination angle of the aluminum foil strip, thereby reducing the influence of pure water on the concentration of the formation liquid, and the water flowing back to the second cooling tank 131 can be recycled to reduce waste.

[0048] Further, the third cooling part 130 further includes a second circulation pump 134 and a cleaning water pipe 135. There is at least one cleaning water pipe 135. A spray head 1351 is provided on the cleaning water pipe 135. The cleaning water pipe 135 is located in the second cooling tank 131. The cleaning water pipe 135 is located on the side of the cooling roller 132. The cleaning water pipe 135 is parallel to the aluminum foil. The spray head 1351 faces the aluminum foil. The second circulation pump 134 is connected to the support part 133. The second circulation pump 134 is fixedly connected to the support part 133. The inlet of the second circulation pump 134 is connected to the second cooling tank 131. The outlet of the circulation pump is connected to the cleaning water pipe 135. The cleaning water pipe 135 is connected to the support part 133. When the second circulation pump 134 is turned on, the second circulation pump 134 pumps the water in the second cooling tank 131 into the cleaning water pipe 135. The water sprays out from the spray head 1351 of the cleaning water pipe 135 and sprays onto the upper surface and the bottom surface of the aluminum foil to perform re-cleaning and remove the residual forming solution particles on the surface of the aluminum foil.

[0049] Further, there are two cleaning water pipes 135 on the same side. The two cleaning water pipes 135 are arranged oppositely. The aluminum foil strip is located between the two cleaning water pipes 135 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 spray head 1351 is flat-shaped to increase the flushing area and the flushing pressure.

[0051] Further, the included angle a formed by the cooling roller 132 and the two third driving rollers 121 satisfies: 60° < a < 120°, so that the washed water can flow back into the second cooling tank 131, reducing the influence on the concentration of the solution in the forming tank 31, and the water can be recycled to avoid waste.

[0052] Further, a wave wheel 1311 is arranged in the second cooling tank 131. The wave wheel 1311 can be driven to rotate by a motor or can rotate with the vibration of the water flowing back in the second cooling tank 131. Through the rotation of the wave wheel 1311, the water in the second cooling tank 131 flows, making the aluminum foil immersed in the second cooling tank 131 cleaner.

[0053] Further, second arc-shaped grooves 1322 are uniformly arranged along the length direction of the cooling roller 132. The second cleaning through holes 1323 are located in the second arc-shaped grooves 1322. Through the included angle a formed by the cooling roller 132 and the two third driving rollers 121 and the second arc-shaped grooves 1322, the water coming out of the second cleaning through holes 1323 rotates with the cooling roller 132. The cooling roller 132 and the aluminum foil strip squeeze the pure water, increasing the pure water pressure, so that the stubborn forming solution particles on the aluminum foil are also washed away, making the surface of the aluminum foil clean.

[0054] Please see Figures 12 to 16 Further, the diffusion stop assembly 200 includes a water vapor stopper 210 and a shielding cover 220, wherein the shielding cover 220 is in a plurality of pieces, the water vapor stopper 210 is disposed on one side of the formation tank 31, the shielding covers 220 are sequentially arranged above the formation tank 31, the water vapor stopper 210 is connected to one side of the formation tank 31, the shielding cover is covered on the formation tank 31, the cooling assembly 100, and the water vapor stopper 210, the shielding cover 220 and the water vapor stopper 210 enclose a closed space above the formation tank 31 to prevent water vapor from diffusing, so that a large amount of water vapor in the formation tank 31 is enclosed in the closed space above the formation tank 31 enclosed by the shielding cover 220 and the water vapor stopper 210, which, on the one hand, reduces heat loss and reduces energy consumption of the formation tank 31; on the other hand, prevents heat from diffusing to the outside, causing the working environment of the staff to become hot.

[0055] Further, the water vapor stopper 210 includes a cooling hood 211, a cooling water pipe 212, a cooling conveying channel 213, a fan 214, and a storage tank 215. The cooling hood 211 is located at the upper edge of one side of the formation tank 31, the gas phase inlet of the cooling hood 211 faces the open end of the formation tank 31, the cooling water pipe 212 is located in the circumference of the cooling hood 211, the bottom of the cooling hood 211 is connected to the upper edge of the formation tank 31, and the outlet of the cooling hood 211 is connected to the cooling conveying channel 213. The inlet of the cooling conveying channel 213 is connected, the side outlet of the cooling conveying channel 213 is connected to the inlet of the fan 214, the bottom outlet of the cooling conveying channel 213 is connected to the storage tank 215, and the outlet of the storage tank 215 is connected to the water inlet of the formation tank 31; to prevent excessive air pressure and scalding when the staff checks, the negative pressure of the water vapor is guided into the cooling air hood 211 through the guidance of the fan 214, and the water vapor is condensed into liquid for reuse through the cooling air hood 211 and the cooling conveying channel 213, thereby reducing the waste of water resources.

[0056] Furthermore, a fan blade 2111 is provided at the gas phase inlet of the cooling air hood 211, and there are several fan blades 2111. A channel is formed between the fan blades 2111 and the fan blades 2111. The two ends of the fan blade 2111 are respectively connected to the upper edge and the lower edge of the cooling air hood 211 to increase the contact area with the water vapor so that the water vapor can be cooled into liquid as quickly as possible.

[0057] Furthermore, a cooling plate 2131 is disposed in the cooling conveying channel 213 , and there are several cooling plates 2131 . One end of each cooling plate 2131 is connected to the inner wall of the cooling conveying channel 213 .

[0058] Furthermore, the cooling plates 2131 are arranged obliquely downward in the cooling conveying channel 213, and the cooling plates 2131 are relatively staggered, cooperating with the cooling air hood 211 to form a step-by-step interception of water vapor to increase the contact area with the water vapor, so that the water vapor can be cooled into liquid as quickly as possible.

[0059] Furthermore, the physical state transformation component also includes a circulating water pool 216, the outlet of the circulating water pool 216 is connected to the inlet of the cooling water pipe 212, and the outlet of the cooling water pipe 212 is connected to the inlet of the circulating water pool 216, and cooling water is transported by a pump to circulate and cool the water vapor.

[0060] Furthermore, the outlet of each storage tank 215 is connected to the first water pipe 114 or the second water pipe 123 or the cleaning water pipe 135 provided on the corresponding formation tank 31 to spray the aluminum foil, so that the water vapor recovered in each formation tank 31 is condensed and reused through the diffusion stop assembly 200 connected next to each formation tank 31, thereby reducing waste.

[0061] Furthermore, the outlet of the storage tank 215 is also connected to the inlet of the circulating water pool 216, and the water converted into liquid phase can also be used for cooling the water vapor.

[0062] 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. An aluminum foil forming machine, characterized in that: It includes a pretreatment section, a formation section, and a water vapor diffusion stop component, wherein the water vapor diffusion stop component includes several cooling components and a diffusion stop component, the pretreatment section is connected to the cooling component, the pretreatment section is also connected to the diffusion stop component, the formation section is connected to the cooling component, and the formation section is also connected to the diffusion stop component, so that the pretreatment section and the formation section are cooled by the cooling component and the diffusion stop component to prevent heat diffusion.

2. The aluminum foil forming machine according to claim 1, characterized in that: The pretreatment section and the formation section both include several formation tanks, each cooling component is located at the connection between two adjacent formation tanks, each diffusion stop component is located at each formation tank, the cooling component is connected to the connection between two adjacent formation tanks, and the diffusion stop component is connected to the formation tank.

3. The aluminum foil forming machine according to claim 2, characterized in that: The cooling component includes a first cooling part, a second cooling part, and a third cooling part. The first cooling part is located between the first two adjacent forming tanks in the pretreatment section, and the second cooling part and the third cooling part are located between the subsequent two adjacent forming tanks. The first cooling part, the second cooling part, and the third cooling part are respectively connected to the connection between the forming tanks to cool the aluminum foil entering and exiting the forming tank.

4. The aluminum foil forming machine according to claim 3, characterized in that: There are two second cooling parts, which are symmetrically arranged on both sides of the third cooling part. The two second cooling parts are close to the connection between the formation tanks, and the third cooling part is located directly above the connection between the formation tanks. The two second cooling parts are respectively connected to the upper edges of two adjacent formation tanks, and the third cooling part is connected to the connection between the formation tanks.

5. The aluminum foil forming machine according to claim 4, characterized in that: The two second cooling parts located in the same chemical formation tank are respectively located on both sides of the chemical formation tank.

6. The aluminum foil forming machine according to claim 4, characterized in that: The first cooling part comprises a first transmission roller, a second transmission roller, a quartz tube, a first water tube, and a first tank liquid tube. A first water outlet is arranged at the bottom of the first water tube along the length direction. A first liquid outlet is arranged at the bottom of the first tank liquid tube along the length direction. The first transmission roller is located at the connection of the first two adjacent chemical formation tanks in the pretreatment section. The first transmission roller and the second transmission roller are located in the same horizontal plane. The quartz tube is located between the first transmission roller and the second transmission roller. The first transmission roller, the second transmission roller, and the quartz tube are parallel to each other. The quartz tube is located below the first transmission roller. The first water tube is located above the quartz tube. The first water tube is parallel to the quartz tube. The first tank liquid tube is located obliquely above the second transmission roller, and the third cooling tank liquid tube is inclined away from the quartz tube. The first transmission roller, the second transmission roller, the quartz tube, the first water tube, and the first tank liquid tube are respectively connected to the two side tank walls of the chemical formation tank at both ends. The aluminum foil passes through the top of the first transmission roller, the bottom of the quartz tube, and the top of the second transmission roller in sequence.

7. The aluminum foil forming machine according to claim 4, characterized in that: The second cooling part comprises a third transmission roller, a second tank liquid pipe, a second water pipe, and a first cooling tank. The bottom of the second tank liquid pipe is provided with a second liquid outlet along the length direction. The bottom of the second water pipe is provided with a second water outlet along the length direction. The third transmission roller is located above the formation tank, and the third transmission roller is close to the connection between two adjacent formation tanks. The second tank liquid pipe and the second water pipe are symmetrically arranged above the third transmission roller, and the second water pipe is located close to the connection between two adjacent formation tanks. The first cooling tank is located below the third transmission roller. The third transmission roller, the second tank liquid pipe, and the second water pipe are parallel to each other. The two ends of the third transmission roller are respectively rotatably connected to the side walls of the formation tank located below it. The second tank liquid pipe is connected to the formation tank below it to connect the second tank liquid pipe with the tank liquid in the corresponding formation tank. The two ends of the second water pipe are connected to the formation tank. The first cooling tank is connected to the upper edge of the formation tank. Pure water is introduced into the second cooling pipe.

8. The aluminum foil forming machine according to claim 4, characterized in that: The third cooling part includes a second cooling tank, a cooling roller, and a supporting part. There are two supporting parts. The second cooling tank is located above the connection between two adjacent formation tanks. The cooling roller is located in the second cooling tank. The supporting parts are respectively located at both ends of the cooling roller. The bottom of the second cooling tank is connected to the top wall of the connection between two adjacent formation tanks. The cooling roller is rotatably connected to the supporting part. The supporting part is connected to the top wall of the connection between two adjacent formation tanks. The second cooling tank contains pure water. The cooling roller presses the aluminum foil strip into the second cooling tank to contact with the pure water.

9. The aluminum foil forming machine according to claim 2, characterized in that: The diffusion stop assembly includes a water vapor stop part and a shielding cover. There are several shielding covers. The water vapor stop part is arranged on one side of the formation tank. The shielding covers are arranged in sequence above the formation tank. The water vapor stop part is connected to one side of the formation tank. The shielding cover is covered on the formation tank, the cooling assembly and the water vapor stop part. The shielding cover and the water vapor stop part enclose a closed space above the formation tank to prevent water vapor from diffusing.

10. The aluminum foil forming machine according to claim 9, characterized in that: The water vapor stopping portion includes a cooling air hood, a cooling water pipe, a cooling conveying channel, a fan, and a storage tank. The cooling air hood is located at the upper edge of one side of the formation tank, the gas phase inlet of the cooling air hood faces the open end of the formation tank, the cooling water pipe is located in the circumference of the cooling air hood, the bottom of the cooling air hood is connected to the upper edge of the formation tank, the outlet of the cooling air hood is connected to the inlet of the cooling conveying channel, the side outlet of the cooling conveying channel is connected to the inlet of the fan, the bottom outlet of the cooling conveying channel is connected to the storage tank, and the outlet of the storage tank is connected to the water inlet of the formation tank.

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