Solid-state cell-free energy storage power supply production system and processing technology

Abstract

The invention relates to the technical field of energy storage units, and provides a solid-state cell-free energy storage power supply production system and a processing technology. The at least two feeding pieces are arranged on the rack and are used for providing two kinds of electrode raw materials; the at least two extrusion roller sets I are rotationally arranged on the rack and used for extruding the two electrode raw materials provided by the feeding piece and outputting two corresponding electrode belts, and the two electrode belts are located on the two sides of the battery diaphragm respectively; the extrusion roller group II is rotationally arranged on the rack and is used for extruding the two electrode bands and the battery diaphragm and outputting the diaphragm; according to the technical scheme, the problems of more production equipment, wide occupied area and high cost in the prior art are solved.

Description

Technical Field

[0001] This invention relates to the field of energy storage unit technology, specifically to a solid-state cellless energy storage power supply production system and processing technology. Background Technology

[0002] The main components of solid-state energy storage power supplies include positive electrode materials, intermediate separators, and negative electrode materials. These three are primarily laminated. In existing production processes, they are typically produced separately as long strips, yielding three corresponding intermediate products (product 1). These strips are then cut to the required dimensions to obtain three corresponding intermediate products (product 2). These three intermediate products (product 2) are then stacked sequentially and extruded together using equipment. The entire production process involves numerous steps, each requiring a certain level of precision and quality to ensure the final product's accuracy and quality. Furthermore, the separate production of the three materials necessitates dedicated production lines and storage areas. The large number of intermediate products increases product defects and waste. Extensive production equipment also results in a large footprint, low space utilization, and high production costs, hindering the industry's widespread development. Therefore, existing technologies need improvement and upgrading to enhance overall production efficiency and reduce costs. Summary of the Invention

[0003] This invention proposes a solid-state cellless energy storage power supply production system and processing technology, which solves the problems of numerous production equipment, large footprint, and high cost in related technologies.

[0004] The technical solution of the present invention is as follows: A solid-state cellless energy storage power supply production system includes: stand; At least two feeders are provided on the frame to provide two electrode materials; At least two extrusion rollers are rotatably mounted on the frame to extrude the two electrode materials provided by the feeder and output two corresponding electrode strips, which are located on both sides of the battery separator. The second extrusion roller assembly is rotatably mounted on the platform and is used to extrude the two types of electrode strips and the battery separator, and output the film.

[0005] As a further technical solution, it also includes: Several extrusion roller groups three, more numerous than the number of extrusion roller groups one, are located between the feed member and the extrusion roller groups one, and are used to extrude the electrode raw material provided by the feed member and output electrode sheets. Each extrusion roller group one extrudes at least two electrode sheets and outputs the electrode strip.

[0006] As a further technical solution, it also includes: At least two extrusion rollers are arranged on the frame and symmetrically distributed on both sides of the diaphragm for extruding the diaphragm.

[0007] As a further technical solution, the fourth extrusion roller group includes: Roller four is rotatably mounted on the frame; The fourth transmission roller is rotatably mounted on the frame; A roller pressing belt is sleeved on the fourth roller shaft and the fourth drive roller, and the roller pressing belt is in extrusion contact with the diaphragm.

[0008] As a further technical solution, the fourth extrusion roller group also includes: A transmission gear is disposed on the transmission roller four, and two corresponding transmission gears on both sides of the diaphragm are meshed together. The adjusting element is slidably mounted on the platform; The tensioning shaft is rotatably mounted on the adjusting member, and the roller belt is wound around the tensioning shaft.

[0009] As a further technical solution, along the advancing direction of the diaphragm, a cutting assembly, a trimming assembly, at least two sets of extrusion rollers, a packaging assembly, and a baking assembly are sequentially arranged on one side of the stand; wherein... The cutting component is used to cut the membrane; The cutting component is used to cut the diaphragm; The extrusion rollers are symmetrically distributed on both sides of the diaphragm and are used to roll-press the diaphragm after it has been cut. The packaging assembly is used to sort and pack the films; The baking assembly is used to bake the film after it has been packed.

[0010] As a further technical solution, the feeder has a feed chamber and further includes: The auger shaft is rotatably mounted in the feed chamber; A feed pipe is disposed on one side of the feed member and communicates with the feed chamber, for providing the electrode raw material.

[0011] A solid-state cellless energy storage power supply manufacturing process, used in the production system described in any one of items 1 to 7 above, characterized by comprising the following steps: Step S1: Loading battery separator and electrode raw materials; Step S2: Roll the two electrode materials separately to obtain two electrode strips, namely the positive electrode strip and the negative electrode strip; Step S3: Stack the positive electrode strip and the negative electrode strip on both sides of the battery separator, perform composite rolling, and output a strip-shaped film; Step S4: According to the product size requirements, cut the two sides of the diaphragm to output a diaphragm with a certain number of notches on the sides; Step S5: Cut the membrane according to the product size requirements to obtain segmented membranes of a certain size; Step S6: Roll the segmented membrane sheet; Step S7: Sorting and packing the segmented membrane sheets; Step S8: Bake the packaged film.

[0012] As a further technical solution, step S2 includes: Step S21: Perform the first rolling process on each of the two electrode materials separately, with each electrode material corresponding to at least two feeders, and each electrode material yielding at least two electrode sheets; Step S22: Stack at least two identical electrode sheets together for a second rolling process to obtain an electrode strip, ultimately resulting in a positive electrode strip and a negative electrode strip.

[0013] As a further technical solution, step S3 includes: Step S31: The positive electrode strip and the negative electrode strip are stacked on both sides of the battery separator, and the first composite rolling is performed to obtain the first-generation membrane. Step S32: Heat the component for extruding the first-generation diaphragm and perform a second composite rolling process on the first-generation diaphragm.

[0014] The working principle and beneficial effects of this invention are as follows: In this invention, the production system specifically includes a frame, at least two feeding components, at least two extrusion roller groups one and extrusion roller groups two. In this embodiment, the number of feeding components is preferably two, which are used to hold two different electrode materials. The number of extrusion roller groups one is preferably two. Each extrusion roller group one corresponds to one feeding component. Extrusion roller group one includes two corresponding and rotatably arranged rotating rollers one. Extrusion roller group two includes two corresponding and rotatably arranged rotating rollers two.

[0015] In operation, a separator roll wound with the battery separator is installed on a frame; two electrode materials are fed into two feeders respectively; then the feeders output the electrode materials to the middle of two rotating rollers. The rotating rollers are heated by a built-in heat exchange oil pipe (as in existing technology) or, alternatively, by an electric heating wire (as in existing technology). The electrode materials are then thermally extruded using a set of extrusion rollers to obtain two electrode strips: a positive electrode strip and a negative electrode strip. The positive and negative electrode strips are located on opposite sides of the battery separator. The positive electrode strip, battery separator, and negative electrode strip are then conveyed in a stacked state to the middle of two rotating rollers. The extrusion rollers then perform a preliminary composite extrusion of the positive electrode strip, battery separator, and negative electrode strip to form a thin strip-shaped film. This thin strip-shaped film is then conveyed to subsequent processing steps. Thin strip films are obtained directly through continuous rolling, reducing the need for separate processing lines for positive electrode strips, battery separators, and negative electrode strips, thus integrating the film processing line. At the same time, it reduces processing equipment and processing steps, reduces the generation of intermediate products, and lowers the defect rate of intermediate products, thereby improving and ensuring the processing accuracy and pass rate of the final product. Attached Figure Description

[0016] The preferred embodiments will now be described in a clear and easy-to-understand manner, in conjunction with the accompanying drawings, to further explain the above-mentioned characteristics, technical features, advantages, and implementation methods of the present invention.

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the structure of the stand of the present invention; Figure 3 This is a schematic diagram of the internal structure of the test bench of the present invention; Figure 4 for Figure 3 A magnified view of a section at point A in the middle; Figure 5 This is a schematic diagram of the structure at the joint between the stand and the four extrusion rollers of the present invention; Figure 6 for Figure 5 A magnified view of a section at point B in the middle; Figure 7 This is a schematic diagram of the structure of the feed part of the present invention; Figure 8 This is a schematic diagram of the structure of the cutting component of the present invention; In the diagram: 1. Stand, 2. Diaphragm roll, 3. Feeding component, 4. Extrusion roller group one, 5. Extrusion roller group two, 6. Extrusion roller group three, 7. Extrusion roller group four, 8. Roller shaft four, 9. Drive roller four, 10. Roller belt, 11. Drive gear, 12. Adjusting component, 13. Tensioning shaft, 14. Cutting assembly, 15. Cutting component, 16. Packaging assembly, 17. Baking assembly, 18. Feeding chamber, 19. Screw shaft, 20. Feeding pipe, 21. Cutting frame, 22. Eccentric wheel, 23. Lower cutter, 24. Conveyor chain, 25. Outer film guide roller, 26. Heating roller. Detailed Implementation

[0018] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the specific implementation methods of the present invention will be described below with reference to the accompanying drawings. Obviously, the accompanying drawings described below are merely some embodiments of the present invention. For those skilled in the art, other drawings and other implementation methods can be obtained based on these drawings without any creative effort.

[0019] To keep the drawings concise, each drawing only schematically shows the parts relevant to the invention; these do not represent the actual structure of the product. Furthermore, for ease of understanding, in some drawings, only one of components with the same structure or function is schematically shown, or only one is labeled. In this document, "one" not only means "only one," but can also mean "more than one," and "several" includes "two" and "more than two."

[0020] In this document, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0021] Furthermore, in the description of this application, the terms "first," "second," etc., are used only to distinguish descriptions and should not be construed as indicating or implying relative importance.

[0022] Example 1, refer to Figures 1-4 This is the first embodiment of the present invention, which proposes a solid-state cellless energy storage power supply production system.

[0023] In this embodiment, the production system specifically includes a frame 1, at least two feeders 3, at least two extrusion roller groups 1 4, and extrusion roller group 2 5. In this embodiment, the number of feeders 3 is preferably two, which are used to hold two kinds of electrode raw materials respectively. The number of extrusion roller groups 1 4 is preferably two. Each extrusion roller group 1 4 corresponds to one feeder 3. The extrusion roller group 1 4 includes two corresponding and rotatably arranged rollers 1. The extrusion roller group 2 5 includes two corresponding and rotatably arranged rollers 2.

[0024] In use, the separator roll 2, wound with the battery separator, is installed on the frame 1; the two electrode materials are fed into the two feeders 3 respectively; then the feeders 3 output the electrode materials to the middle of the two rotating rollers 1. The rotating rollers 1 are heated by the built-in heat exchange oil pipes of the prior art, or alternatively by the electric heating wires of the prior art; the electrode materials are thermally extruded by the extrusion roller group 4 to obtain two electrode strips, namely the positive electrode strip and the negative electrode strip; the positive electrode strip and the negative electrode strip are located on both sides of the battery separator; the positive electrode strip, the battery separator, and the negative electrode strip are conveyed in a stacked state to the middle of the two rotating rollers 2, and the positive electrode strip, the battery separator, and the negative electrode strip are initially compounded and extruded by the extrusion roller group 2 to form a thin strip film. Then the thin strip film is conveyed to the subsequent processing steps. Thin strip films are obtained directly through continuous rolling, reducing the need for separate processing lines for positive electrode strips, battery separators, and negative electrode strips, thus integrating the film processing line. At the same time, it reduces processing equipment and processing steps, reduces the generation of intermediate products, and lowers the defect rate of intermediate products, thereby improving and ensuring the processing accuracy and pass rate of the final product.

[0025] Furthermore, a conveyor chain 24, an outer film guide roller 25, and a heating roller 26 are added. The conveyor chain 24 is arranged in a cyclic transmission relative to the frame 1 to transport the electrode strip to the side of the battery separator. The outer film guide roller 25 is rotatably mounted on the frame 1. The heating roller 26 is rotatably mounted on the frame 1, and the conveyor chain 24 is wound around the heating roller 26. In use, there is a conveyor chain 24 on each side of each electrode strip when viewed along the direction of electrode strip movement. In use, the roll of the outer protective film is installed on the outer film guide roller 25. When each roll of outer protective film is used for the first time, the roll end of the outer protective film is moved to below the extrusion roller group 4 by the traction of the conveyor chain 16 and attaches to the flat surface of the electrode strip. The outer protective film can protect the opposite sides of the two electrode strips, preventing damage to the electrode strips from reducing the final product effect or causing failure. The two electrode strips and their corresponding outer protective films are synchronously conveyed to the second extrusion roller group 5 by the extrusion roller group 4 and the two conveyor chains 24, forming an overall five-layer overlapping structure. The five layers are, in order, outer protective film, electrode strip, battery separator, electrode strip, and outer protective film. When the outer protective film and electrode strip pass through the heating roller 26, the heating roller 26 heats and keeps the electrode strip warm, which facilitates the extrusion of the subsequent roller pressing belt 10.

[0026] Example 2, refer to Figures 1-5 This is the second embodiment of the present invention. Based on the first embodiment, this embodiment further adds a third set of extrusion rollers 6 and optimizes the number of feeders 3 and extrusion roller sets 4. Specifically, in this embodiment, the number of feeders 3 is preferably four, in pairs, with each set of feeders 3 corresponding to a type of electrode material; the number of extrusion roller sets 6 is preferably four, with each extrusion roller set 6 corresponding to one feeder 3; the number of extrusion roller sets 4 is preferably two, with each extrusion roller set 4 corresponding to two extrusion roller sets 6.

[0027] In use, the electrode raw materials are conveyed to the extrusion roller group 6 via the feed component 3. The extrusion roller group 6 is heated by the built-in heat exchange oil pipe in the prior art, or by the electric heating wire in the prior art. With the help of the hot extrusion of the extrusion roller group 6, a stable electrode sheet is obtained. Two identical electrode sheets can be obtained for each type of electrode raw material. Then, the two identical electrode sheets are synchronously conveyed to the extrusion roller group 4. With the help of the extrusion roller group 4, an electrode strip is obtained. The adhesion, mixing uniformity and density between the electrode raw materials are improved by the two consecutive hot roller pressing. At the same time, the thickness of the electrode strip is guaranteed, avoiding the problems of poor thickness uniformity and density uniformity that occur when the electrode raw materials are only rolled once, which would cause poor film quality.

[0028] Meanwhile, a width-fixing blade is also rotatably mounted on the stand 1. A width-fixing blade is provided on both sides of any type of electrode strip. The width-fixing blade is used to cut the edges of the electrode strip on both sides to improve the consistency of the electrode strip width.

[0029] Example 3, refer to Figures 1-6 This is the third embodiment of the present invention. Based on the first embodiment, this embodiment further adds a fourth extrusion roller group 7. Specifically, the fourth extrusion roller group 7 includes a fourth roller shaft 8, a fourth transmission roller 9, a roller pressing belt 10, a transmission gear 11, a tensioning shaft 13, and an adjusting member 12. In this embodiment, the number of the fourth extrusion roller group 7 is preferably two, symmetrically distributed on both sides of the diaphragm.

[0030] In this embodiment, the roller pressing belt 10 is preferably made of steel belt, and a roller pressing gap is formed between the two roller pressing belts 10. The roller pressing gap is used for the passage of the film. The distance of the roller pressing gap is less than or equal to the thickness of the film output by the extrusion roller group 5, so that the film can be extruded again by the two roller pressing belts 10, and the film thickness is prevented from rebounding and failing to meet the product size requirements. In use, the diaphragm output from the extrusion roller group 25 is conveyed to the entrance of the roller gap, and the diaphragm is rolled again by the extrusion between the two roller belts 10. During the process, the two roller shafts 48 on both sides of the diaphragm are driven simultaneously by the built-in power source. The roller shafts 48 drive the roller belts 10 to move. The two transmission rollers 49 are synchronously driven by two meshing transmission gears 11 to avoid inconsistent movement speeds of the roller belts 10 on both sides of the diaphragm, which would cause wrinkles on the diaphragm surface and increase the product defect rate. By applying external force to drive the adjusting component 12 to slide on the stand 1, the adjusting component 12 drives the tensioning shaft 13 to slide synchronously and adjust the tension of the roller belts 10 to ensure that the roller belts 10 are in a taut state and to avoid the roller belts 10 becoming loose, which would cause problems such as diaphragm wrinkles and misalignment.

[0031] Meanwhile, a heating unit is installed on the stand 1, employing existing oil heat exchange technology. The heating unit heats the roller 8, which in turn heats the pressing belt 10. Simultaneously, the pressing belt 10 itself generates heat as it circulates through the roller 8, drive roller 9, and the outer ring of the tensioning shaft 13. This further increases the temperature of the pressing belt 10, achieving thermal pressing of the diaphragm and improving the pressing and shaping effects. Furthermore, the symmetrical arrangement of the two pressing belts 10 helps improve the parallelism of the two electrode strips on the diaphragm, enhancing product consistency.

[0032] Example 4, refer to Figures 1-6 and Figure 8This is the fourth embodiment of the present invention. Based on the first embodiment, this embodiment further refines the processing steps of the film. On one side of the stand 1, a cutting assembly 14, a cutting component 15, a compression roller group 7, a packaging assembly 16, and a baking assembly 17 are added sequentially. In this embodiment, the compression roller group 7 is preferably two in number, symmetrically distributed on both sides of the film. The cutting assembly 14 is preferably a laser cutting device in the prior art capable of performing cutting operations. The cutting assembly 15 is preferably any existing device capable of rolling cutting. For example, the specific cutting assembly 15 includes a cutting frame 21, on which an eccentric wheel 22 is rotatably mounted; a lower blade 23 is mounted on the eccentric wheel 22; when the eccentric wheel 22 rotates, the lower blade 23 slides up and down and back and forth relative to the cutting frame 21 (viewed along the direction of film movement); an upper blade is slidably mounted on the cutting frame 21, and the sliding direction of the upper blade is the same as the film conveying direction; when the eccentric wheel 22 rotates, the lower blade 23 gradually approaches the upper blade, and when the lower blade 23 is at its highest point, the lower blade 23 and the upper blade are precisely engaged, cutting the film; the cutting length can be adjusted by adjusting the rotation speed of the eccentric wheel 22. The extrusion roller group 4 7 on one side of the frame 1 is the same as the extrusion roller group 4 7 on the frame 1, which can re-roll and shape the cut film, improving product consistency. The packaging component 16 can be any existing equipment capable of packaging sheet-like products, picking up and loading the continuously output segmented diaphragms into the carrier frame. The baking component 17 can be any existing equipment capable of baking, conveying the products via a circulating conveyor belt; the carrier frame and the diaphragm are placed together on the conveyor belt, and the baking component 17 dehumidifies and shapes the diaphragm. The diaphragm shaping process is completed using the components arranged in sequence above, improving product consistency and yield.

[0033] Example 5, refer to Figures 1-4 and Figure 7 This is the fifth embodiment of the present invention. Based on the first embodiment, this embodiment further refines the feeding component 3 by adding an auger shaft 19 and a feeding pipe 20. In use, the electrode raw material is transported into the feeding chamber 18 through the feeding pipe 20. The rotating auger shaft 19 squeezes the electrode raw material downwards and transports it to the extrusion roller group 4 for rolling. With the help of the downward spiral extrusion of the auger shaft 19 and the falling of the electrode raw material by its own weight, the electrode raw material is compacted and transported, improving the density of the product and avoiding the problem of uneven density and inconsistent energy storage effect.

[0034] Example 6, refer to Figures 1-8 This is the sixth embodiment of the present invention, which proposes a solid-state cellless energy storage power supply processing technology.

[0035] The specific steps include: First, the battery separator and two types of electrode materials are loaded and placed in their corresponding positions. Second, the auger shaft 19 is activated to press the electrode materials downwards between the extrusion roller group 3 and 6, obtaining two types of electrode sheets, namely positive electrode sheets and negative electrode sheets, through the thermal extrusion of the extrusion roller group 3 and 6. There are two sets of each type of electrode sheet. Third, the two sets of electrode sheets with the same electrode are conveyed to the extrusion roller group 4, where they are thermally extruded to obtain two types of electrode strips, namely positive electrode strips and negative electrode strips. Fourth, the positive electrode strips and negative electrode strips are conveyed to both sides of the battery separator, and the whole assembly is conveyed to the extrusion rollers in a stacked manner. In step 5, the initial membrane sheet is initially obtained by hot extrusion using the extrusion rollers in group 2. In step 6, the initial membrane sheet is conveyed between two roller belts 10, and the initial membrane sheet is hot-extruded and shaped by the hot extrusion of the two roller belts 10 to obtain a strip-shaped membrane sheet. In step 7, the membrane sheet is cut on both sides according to the product size requirements, and a membrane sheet with a certain number of notches on the sides is output. In step 8, the membrane sheet is cut into segments of a certain size according to the product size requirements. In step 9, the segmented membrane sheets are sorted and boxed. In step 10, the boxed membrane sheets are baked.

[0036] In specific implementation, the electrode raw material is conveyed to the feed unit 3. The number of feed units 3 is preferably four, in pairs, with each pair corresponding to one type of electrode raw material. In this example, the first rolling is performed using extrusion roller group three 6. The number of extrusion roller group three 6 is preferably four, with each feed unit 3 corresponding to one extrusion roller group three 6. In this example, the second rolling is performed using extrusion roller group one 4. The number of extrusion roller group one 4 is preferably two, with each extrusion roller group one 4 corresponding to two extrusion roller groups three 6.

[0037] The feed unit 3 feeds the two types of electrode raw materials to four extrusion roller groups 36 for the first rolling, resulting in four portions of the two types of electrode sheets. Then, two portions of the same type of electrode sheets are stacked together again and fed to the same extrusion roller group 4 for the second rolling, resulting in positive electrode strips and negative electrode strips respectively.

[0038] In this example, the second extrusion roller group 5 is used for the third rolling process. The positive electrode strip, battery separator and negative electrode strip are stacked in sequence for composite rolling and then conveyed to the second extrusion roller group 5 for the third rolling process to obtain a strip-shaped film.

[0039] In this example, the fourth and fifth rolling processes are performed using extrusion roller group 7. Preferably, there are four extrusion roller groups 7, with two groups set on the frame 1 as the first group and the other two groups located on one side of the frame 1 as the second group. The strip-shaped film is conveyed to the extrusion roller group 7 in the first group for the fourth rolling process. The extrusion roller group 7 is heated by the heating unit set on the frame 1. The heated extrusion roller group 7 is used to perform hot rolling of the film, which is more conducive to film shaping and dehumidification.

[0040] Then, after the fourth rolling, the membrane undergoes side cutting and notching, length cutting, a fifth rolling, sorting and packing, and baking to complete the final product shaping. The fourth and fifth geothermal rolling processes improve the consistency of product dimensions and yield, preventing separation between the positive and negative electrode strips and the battery separator.

[0041] This processing technology enables one-time production of electrode raw materials and separator batteries into membrane sheets, reducing redundancy in intermediate products such as positive and negative electrode strips. It avoids the large-scale production, storage, and transfer of intermediate products, significantly shortening the processing flow and steps. Furthermore, by simultaneously cutting and trimming the positive electrode strip, battery separator, and negative electrode strip, it greatly improves product dimensional consistency, reducing the inconsistency in dimensional accuracy that occurs when intermediate products are cut individually. It also reduces storage, saves production space, and improves the utilization rate of production space. The processing technology described in this embodiment can significantly shorten the membrane processing flow and steps, reduce the amount of intermediate storage and buffer equipment, decrease the occurrence of intermediate products, and facilitate the widespread adoption of this product processing technology.

[0042] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.

Claims

1. A solid state electroless core energy storage power source production system, characterized by, The utility model relates to a kind of battery electrode production line, including: Rack (1); At least two feeders (3) are provided on the rack (1) for providing two kinds of electrode materials; At least two extrusion roller groups one (4) are rotatably provided on the rack (1) for extruding the two kinds of electrode materials provided by the feeder (3) and outputting two corresponding electrode strips, and the two electrode strips are respectively located on both sides of the battery separator; Extrusion roller group two (5) is rotatably provided on the rack (1) for extruding the two electrode strips and the battery separator and outputting the membrane.

2. A system for the production of solid state electrochemical energy storage power sources according to claim 1, wherein, Further comprising: A plurality of extrusion roller groups three (6) are located between the feeder (3) and the extrusion roller group one (4), and the number of the extrusion roller groups three (6) is greater than that of the extrusion roller group one (4), for extruding the electrode materials provided by the feeder (3) and outputting electrode pieces, and each extrusion roller group one (4) extrudes at least two electrode pieces and outputs the electrode strip.

3. The system for producing a solid-state, non-electrochemical energy storage power source of claim 1, wherein, Further comprising: At least two extrusion roller groups four (7) are provided on the rack (1) and symmetrically distributed on both sides of the membrane, for extruding the membrane.

4. A system for the production of solid state non-electrochemical energy storage power sources according to claim 3, wherein, The extrusion roller group four (7) comprises: Roller shaft four (8) is rotatably provided on the rack (1); Transmission roller four (9) is rotatably provided on the rack (1); Rolling belt (10) is sleeved on the roller shaft four (8) and the transmission roller four (9), and the rolling belt (10) is in extrusion contact with the membrane.

5. A system for the production of solid state non-electrochemical energy storage power sources according to claim 4, characterized in that, The extrusion roller group four (7) further comprises: Transmission gear (11) is provided on the transmission roller four (9), and the two transmission gears (11) on both sides of the membrane are engaged and connected; Adjusting member (12) is slidably provided on the rack (1); Tensioning shaft (13) is rotatably provided on the adjusting member (12), and the rolling belt (10) is wound around the tensioning shaft (13).

6. A system for the production of solid state non-electrochemical energy storage power sources according to claim 5, wherein, In the advancing direction of the membrane, the rack (1) side is sequentially provided with a cutting assembly (14), a cutting assembly (15), at least two extrusion roller groups four (7), a packaging assembly (16), and a baking assembly (17); wherein The cutting assembly (14) is used for cutting the membrane; The cutting assembly (15) is used for cutting the membrane; The extrusion roller group four (7) is symmetrically distributed on both sides of the membrane and is used for rolling the cut membrane; The packaging assembly (16) is used for sorting and boxing the membrane; The baking assembly (17) is used for baking the boxed membrane.

7. The system for producing a solid-state, non-electrochemical energy storage power source of claim 1, wherein, The feeder (3) has a feeding chamber (18), and further comprises: Auger shaft (19) is rotatably provided in the feeding chamber (18); Feeding pipe (20) is provided on one side of the feeder (3) and communicates with the feeding chamber (18), for providing the electrode materials.

8. A solid-state electroless core energy storage power source processing procedure for the production system of any one of claims 1 to 7, characterized by, The steps include: Step S1: loading of battery separator and electrode materials; Step S2: rolling of two kinds of electrode materials respectively to obtain two electrode strips, which are positive electrode strip and negative electrode strip respectively; Step S3: stacking the positive electrode strip and the negative electrode strip on both sides of the battery separator respectively, composite rolling, and outputting the membrane in strip shape. Step S4: according to the product size requirements, cutting the two sides of the film, outputting the film with a certain number of openings on the side; Step S5: according to the product size requirements, cutting the film to obtain a certain size of the film; Step S6: roll the film; Step S7: sorting and packing the film; Step S8: baking the film after packing.

9. A solid state electrochemical energy storage power source processing process according to claim 8, wherein, The step S2 includes: Step S21: separately roll the two kinds of electrode raw materials for the first time, each electrode raw material corresponds to at least two feeding parts, and each electrode raw material obtains at least two electrode sheets; Step S22: stacking at least two electrode sheets of the same electrode together for the second time, obtaining the electrode belt, and finally obtaining the positive electrode belt and the negative electrode belt.

10. The solid-state electrochemical energy storage power source fabrication process of claim 8, wherein, The step S3 includes: Step S31: stacking the positive electrode belt and the negative electrode belt on both sides of the battery diaphragm respectively for the first time, and performing the first composite rolling to obtain the initial film; Step S32: heating the part for pressing the initial film, and performing the second composite rolling on the initial film.

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