Processing equipment for solid-state battery

Abstract

The invention relates to the technical field of solid-state battery processing, and discloses a processing device for a solid-state battery, which comprises an assembling assembly, a workbench, a first blanking bin fixed on the top of the workbench, a support plate fixed on one side of the first blanking bin, a second blanking bin fixed on the top of the support plate, and a feeding part comprising a feeding plate, the feeding plate is located above the workbench, a fixing block is fixed to the top of the feeding plate, a rotating column is inserted into the fixing block, a fixing shaft is fixed into the fixing block, and a first spiral groove is formed in the rotating column. According to the invention, through the arrangement of the assembling assembly, the solid-state battery cells and the module support can be automatically assembled, the quality of each time of assembling can be consistent, through the arrangement of the material pushing assembly, the stacked battery cells can be automatically counted, and after the battery cells are stacked by a specified number, the battery cells can be pushed away to enter the next process.

Description

Technical Field

[0001] The present invention relates to the technical field of solid-state battery processing, and particularly to a processing device for solid-state batteries. Background Art

[0002] A solid-state battery is a battery technology that uses a solid electrolyte instead of a traditional liquid electrolyte. It has significant advantages in terms of safety, energy density, etc. Similar to traditional lithium-ion batteries, the working principle of a solid-state battery is also based on the insertion and extraction of lithium ions between the positive and negative electrodes. During the processing of a solid-state battery, it is necessary to assemble and fix the solid-state battery cell and the module bracket. During the assembly process, most of the time, manual assembly is carried out on the two by workers. There are differences in the operation methods and forces of different workers, and even the operations of the same worker at different times are difficult to ensure complete consistency. This will result in inconsistent parameters such as the tightness of the assembly, affecting the stability of product quality. And after the assembly is completed, it is necessary to stack the assembled battery cells together and stack a specified number. However, manually counting the stacked battery cells requires repeated verification, and the operation process is relatively cumbersome, thus reducing the overall efficiency. Moreover, manual counting is prone to missing counts and overcounts, resulting in the final number of battery cells not meeting the design requirements and affecting the subsequent production process. Summary of the Invention

[0003] In view of the problems existing in the existing processing devices for solid-state batteries described above, the present invention is proposed.

[0004] Therefore, the problems to be solved by the present invention are that when manually assembling a solid-state battery cell and a module bracket, the efficiency is low, and the consistency of the assembly quality cannot be guaranteed. At the same time, when stacking and counting, missing counts and overcounts are prone to occur.

[0005] To solve the above technical problems, the present invention provides the following technical solution: A processing device for solid-state batteries, which includes an assembly component, including a workbench. A first feeding bin is fixed on the top of the workbench, a support plate is fixed on one side of the first feeding bin, and a second feeding bin is fixed on the top of the support plate; The assembly component further includes a feeding member, the feeding member includes a feeding plate, the feeding plate is located above the workbench, a fixing block is fixed on the top of the feeding plate, a rotating column is inserted into the fixing block, a fixing shaft is fixed in the fixing block, a first spiral groove is formed on the rotating column, and the fixing shaft slides in the fixing shaft; The assembly component further includes a pressing member, the pressing member includes a pressing plate, the pressing plate is located above the support plate, a cylinder is arranged on the top of the pressing plate, a feeding groove is formed on the workbench, a support block is arranged in the feeding groove, a positioning column is fixed in the support block, the positioning column is rotatably connected to the inside of the workbench, and a receiving bin is fixed at the bottom of the workbench; The material pushing component is arranged on one side of the workbench and includes a material pushing member. The material pushing member includes a push plate. The push plate is located in the material receiving bin. A fixed column is fixed on one side of the push plate. A positioning plate is fixed at the bottom of the workbench. The fixed column is movably connected inside the positioning plate. A rotating sleeve is rotatably connected to one side of the positioning plate. A positioning shaft is fixed inside the rotating sleeve. A second spiral groove is formed on the fixed column. The positioning shaft slides in the second spiral groove. A gear is rotatably connected to the outside of the rotating sleeve. A rack is arranged on one side of the gear.

[0006] As a preferred scheme of the processing equipment for solid-state batteries according to the present invention, wherein: the assembling component further includes a transmission member. The transmission member includes a rotating rod. The rotating rod is fixed on the outside of the rotating column. A moving rod is arranged on one side of the rotating rod. A sliding shaft is fixed at the end of the rotating rod. A sliding groove is formed on the moving rod. The sliding shaft slides in the sliding groove. A first connecting rod is fixed on one side of the moving rod. A second connecting rod is fixed at the top of the first connecting rod. The other end of the second connecting rod is fixed to the output end of the air cylinder. The rack is fixed to the first connecting rod.

[0007] As a preferred scheme of the processing equipment for solid-state batteries according to the present invention, wherein: the assembling component further includes a locking member. The locking member includes a fixed frame. The fixed frame is fixed on one side of the workbench. A plug rod is arranged inside the fixed frame. A slot is formed on the positioning column. The plug rod is inserted into the slot. A first spring is fixed at one end of the plug rod. A first torsion spring is fixed on the outside of the positioning column. The other end of the first torsion spring is fixed to the workbench.

[0008] As a preferred scheme of the processing equipment for solid-state batteries according to the present invention, wherein: the assembling component further includes a pushing member. The pushing member includes a stress block. The stress block is fixed on one side of the plug rod. An extrusion frame is arranged below the stress block. A support rod is fixed on one side of the workbench. A stabilizing rod is fixed at the top of the support rod. The stabilizing rod is movably connected inside the extrusion frame. A third connecting rod is fixed on one side of the first connecting rod. A push block is fixed on one side of the third connecting rod.

[0009] As a preferred scheme of the processing equipment for solid-state batteries according to the present invention, wherein: the material pushing component further includes a connecting member. The connecting member includes a connecting sleeve. The connecting sleeve is sleeved on the outside of the rotating sleeve. A clamping block is fixed on one side of the connecting sleeve. A clamping groove is fixed inside the gear. A rotating plate is fixed on the outside of the connecting sleeve.

[0010] As a preferred embodiment of the processing equipment for solid-state batteries according to the present invention, wherein: a positioning block is fixed on one side of the rotating sleeve, a positioning rod is fixed on one side of the positioning block, the positioning rod is movably connected inside the rotating plate, a second spring is sleeved outside the positioning rod, and both ends of the second spring are fixed to the rotating plate and the positioning block respectively.

[0011] As a preferred embodiment of the processing equipment for solid-state batteries according to the present invention, wherein: the pushing component further includes an extrusion member, the extrusion member includes an extrusion plate, the extrusion plate is located on one side of the rotating plate, a support column is fixed at the bottom of the positioning plate, the support column is movably connected inside the extrusion plate, a fixed rod is fixed on one side of the material receiving bin, a push rod is rotatably connected to one side of the fixed rod through a rotating shaft, one side of the push rod contacts the extrusion plate, a force-receiving rod is fixed on the top of the push rod, and the top end of the force-receiving rod penetrates into the material receiving bin and is movably connected to the material receiving bin.

[0012] As a preferred embodiment of the processing equipment for solid-state batteries according to the present invention, wherein: the pushing component further includes a sensing member, the sensing member includes a material receiving plate, the material receiving plate is located inside the material receiving bin, a connecting column is fixed at the bottom of the material receiving plate, the bottom end of the connecting column penetrates to the outside of the material receiving bin and is fixed with a mounting block, and a third spring is fixed on the top of the mounting block, and the top end of the third spring is fixed to the material receiving bin.

[0013] As a preferred embodiment of the processing equipment for solid-state batteries according to the present invention, wherein: a stop block is fixed at the top end of the stabilizing rod, and a fourth spring is fixed at the bottom of the stop block.

[0014] As a preferred embodiment of the processing equipment for solid-state batteries according to the present invention, wherein: there are multiple card slots, which are evenly distributed in a ring inside the gear.

[0015] The beneficial effects of the present invention are as follows: through the setting of the assembly component, the solid-state battery cells and the module brackets can be automatically assembled, and the quality of each assembly can be made consistent. Through the setting of the pushing component, the stacked battery cells can be automatically counted. When the specified number of battery cells is stacked, the battery cells can be pushed away and enter the next process. Description of the Drawings

[0016] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for the description of the embodiments will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, other drawings can be obtained based on these drawings without creative efforts. Among them: Figure 1 It is an overall view of the processing equipment for solid-state batteries.

[0017] Figure 2 Front view structure diagram of the processing equipment for solid-state batteries.

[0018] Figure 3 Rear view structure diagram of the processing equipment for solid-state batteries.

[0019] Figure 4 For the processing equipment of solid-state batteries Figure 3 Partial enlarged structure diagram at position A.

[0020] Figure 5 Workbench sectional structure diagram of the processing equipment for solid-state batteries.

[0021] Figure 6 Side view structure diagram of the first blanking bin of the processing equipment for solid-state batteries.

[0022] Figure 7 Fixed block sectional structure diagram of the processing equipment for solid-state batteries.

[0023] Figure 8 Support plate sectional structure diagram of the processing equipment for solid-state batteries.

[0024] Figure 9 Receiving bin sectional structure diagram of the processing equipment for solid-state batteries.

[0025] Figure 10 Drive structure diagram of the extruding part and the connecting part of the processing equipment for solid-state batteries.

[0026] Figure 11 Fixed column sectional structure diagram of the processing equipment for solid-state batteries.

[0027] Figure 12 Extrusion frame sectional structure diagram of the processing equipment for solid-state batteries.

[0028] In the figure: 100, assembly component; 101, workbench; 102, first blanking bin; 103, support plate; 104, second blanking bin; 105, loading part; 1051, loading plate; 1052, fixing block; 1053, rotating column; 1054, fixing shaft; 1053-1, first spiral groove; 106, pressing part; 1061, pressing plate; 1062, cylinder; 101-1, blanking groove; 1063, support block; 1064, positioning column; 1065, receiving bin; 200, pushing component; 201, pushing part; 2011, pushing plate; 2012, fixing column; 2013, positioning plate; 2014, rotating sleeve; 2015, positioning shaft; 2012-1, second spiral groove; 2016, gear; 2017, rack; 107, transmission part; 1071, rotating rod; 1072, moving rod; 1073, sliding shaft; 1072-1, sliding groove; 1074, first connecting rod; 1075, second connecting rod; 108, locking part; 1081, fixing frame; 1082, inserting rod; 1064-1, inserting slot; 1083, first spring; 1084, first torsion spring; 109, pushing part; 1091, stress block; 1092, extrusion frame; 1093, support rod; 1094, stabilizing rod; 1095, third connecting rod; 1096, pushing block; 202, connecting part; 2021, connecting sleeve; 2022, clamping block; 2016-1, clamping slot; 2023, rotating plate; 2024, positioning block; 2025, positioning rod; 2026, second spring; 203, extrusion part; 2031, extrusion plate; 2032, support column; 2033, fixing rod; 2034, push rod; 2035, stress rod; 204, sensing part; 2041, receiving plate; 2042, connecting column; 2043, mounting block; 2044, third spring; 1097, stop block; 1098, fourth spring. Detailed implementation manners

[0029] In order to make the above objects, features and advantages of the present invention more obvious and understandable, the following will describe the detailed implementation manners of the present invention with reference to the accompanying drawings of the specification.

[0030] In the following description, many specific details are set forth in order to fully understand the present invention. However, the present invention can also be implemented in other ways different from those described herein. Those skilled in the art can make similar extensions without departing from the connotation of the present invention. Therefore, the present invention is not limited by the specific embodiments disclosed below.

[0031] Secondly, the so-called "one embodiment" or "embodiment" herein refers to a specific feature, structure or characteristic that can be included in at least one implementation manner of the present invention. The "in one embodiment" appearing in different places in this specification does not all refer to the same embodiment, nor is it a separate or alternative embodiment that excludes other embodiments.

[0032] Example 1 Reference Figures 1 - 7 This is the first embodiment of the present invention. This embodiment provides a processing device for a solid-state battery. The processing device for a solid-state battery includes an assembly component 100, which includes a workbench 101. A first blanking bin 102 is fixed on the top of the workbench 101. A support plate 103 is fixed on one side of the first blanking bin 102. A second blanking bin 104 is fixed on the top of the support plate 103.

[0033] The first blanking bin 102 is used for stacking module brackets, and the second blanking bin 104 is used for stacking solid-state battery cells. The height of the bottom discharge of the second blanking bin 104 is higher than that of the first blanking bin 102, so as to ensure that after the solid-state battery cells are pushed out, they can be located on the top of the module brackets.

[0034] A groove is opened on the top of the support plate 103. The size of the groove corresponds to that of the solid-state battery cell. A baffle plate is rotatably connected in the groove through a rotating shaft. A second torsion spring (not shown in the figure) is fixed on one side of the baffle plate. The baffle plate is fixed to the inner wall of the groove through the second torsion spring. The baffle plate is supported by the torsion spring so that the baffle plate is always in a horizontal state.

[0035] When the solid-state battery cells are pushed out from the inside of the second blanking bin 104, the solid-state battery cells will be located on the top of the baffle plate, and the baffle plate will support the solid-state battery cells to prevent the solid-state battery cells from falling downward in an inclined state and thus being unable to fit against the inner wall of the module bracket. At the same time, the module bracket will be pushed out inside the first blanking bin 102. When the top of the solid-state battery cell is subjected to a thrust, it will push the baffle plate to rotate downward, so that the solid-state battery cell can move downward and enter the module bracket to complete the assembly of the two.

[0036] The assembly component 100 further includes a feeding member 105. The feeding member 105 includes a feeding plate 1051. The feeding plate 1051 is located above the workbench 101. A fixing block 1052 is fixed on the top of the feeding plate 1051. A rotating column 1053 is inserted into the fixing block 1052. A fixing shaft 1054 is fixed in the fixing block 1052. A first spiral groove 1053-1 is opened on the rotating column 1053. The fixing shaft 1054 slides in the fixing shaft 1054.

[0037] There are two sets of the feeding members 105, which are respectively arranged on one side of the first blanking bin 102 and the second blanking bin 104. The two rotating columns 1053 are respectively rotatably connected to one side of the first blanking bin 102 and the second blanking bin 104 through bearings. Notches are fixedly opened at the bottoms of the first blanking bin 102 and the second blanking bin 104. The feeding plate 1051 is located in the notches. The feeding plate 1051 is L-shaped.

[0038] When the rotating column 1053 rotates, it will cause the fixed shaft 1054 to move within the first spiral groove 1053-1. Through the cooperation of the two, the fixed block 1052 is driven to move, thereby enabling the fixed block 1052 to drive the feeding plate 1051 to move, and the feeding plate 1051 is used to push the solid-state battery cells and the module bracket out of the bottoms of the first blanking bin 102 and the second blanking bin 104, thus completing the feeding of the two.

[0039] As the rotating column 1053 continuously rotates forward and backward, the feeding plate 1051 can continuously feed the solid-state battery cells and the module bracket. The pitch of the first spiral groove 1053-1 is relatively large. Therefore, when the rotating column 1053 rotates by a small angle, the feeding plate 1051 can move a long stroke.

[0040] The assembling component 100 further includes a pressing member 106. The pressing member 106 includes a pressing plate 1061. The pressing plate 1061 is located above the support plate 103. A cylinder 1062 is provided at the top of the pressing plate 1061. A blanking groove 101-1 is formed on the workbench 101. A support block 1063 is arranged in the blanking groove 101-1. A positioning column 1064 is fixed in the support block 1063. The positioning column 1064 is rotatably connected to the inside of the workbench 101. A receiving bin 1065 is fixed to the bottom of the workbench 101.

[0041] A protective pad is fixed to the bottom of the pressing plate 1061. The cylinder 1062 is fixed to the first blanking bin 102 through a mounting bracket. The number of the support blocks 1063 is two, which are respectively located on both sides inside the blanking groove 101-1. The support blocks 1063 are used to support the module bracket to prevent the situation that the module bracket will fall down after moving to the top of the blanking groove 101-1.

[0042] When the solid-state battery cells and the module bracket are pushed out, at this time, the cylinder 1062 drives the pressing plate 1061 to move downward, and the pressing plate 1061 is used to push the solid-state battery cells downward, so that the solid-state battery cells enter the module bracket. And with the pressure applied downward by the pressing plate 1061, the solid-state battery cells can be closely attached to the inside of the module bracket, thus completing the assembly of the two.

[0043] When the pressing plate 1061 moves upward and separates from the battery cells, at this time, the positioning column 1064 will come into contact and lock, and drive the support block 1063 to rotate downward by the gravity of the battery cells, thereby enabling the battery cells to fall onto the top of the receiving bin 1065, and the receiving bin 1065 is used to collect the battery cells.

[0044] The material pushing assembly 200 is arranged on one side of the workbench 101 and includes a material pushing member 201. The material pushing member 201 includes a pushing plate 2011. The pushing plate 2011 is located in the receiving bin 1065. A fixing column 2012 is fixed on one side of the pushing plate 2011. A positioning plate 2013 is fixed at the bottom of the workbench 101. The fixing column 2012 is movably connected within the positioning plate 2013. A rotating sleeve 2014 is rotatably connected to one side of the positioning plate 2013. A positioning shaft 2015 is fixed within the rotating sleeve 2014. A second spiral groove 2012-1 is formed on the fixing column 2012. The positioning shaft 2015 slides within the second spiral groove 2012-1. A gear 2016 is rotatably connected to the outer side of the rotating sleeve 2014. A rack 2017 is arranged on one side of the gear 2016.

[0045] When the number of stacked battery cells inside the receiving bin 1065 reaches the specified quantity, the gear 2016 will be connected to the rotating sleeve 2014. At this time, when the rack 2017 moves downward, it will drive the gear 2016 to rotate, and drive the rotating sleeve 2014 to rotate through the gear 2016. At this time, the positioning shaft 2015 will slide within the second spiral groove 2012-1. Through the cooperation of the two, the fixing column 2012 is driven. A positioning plate 2013 is fixed at the bottom of the workbench 101. The fixing column 2012 and the pushing plate 2011 move, so that the pushing plate 2011 pushes the battery cells stacked in the specified quantity away from directly below the blanking groove 101-1, so as to stack another group of battery cells.

[0046] Embodiment 2 Refer to Figures 4 - 12 , which is the second embodiment of the present invention. This embodiment is based on the previous embodiment.

[0047] Specifically, the assembling assembly 100 further includes a transmission member 107. The transmission member 107 includes a rotating rod 1071. The rotating rod 1071 is fixed on the outer side of the rotating column 1053. A moving rod 1072 is arranged on one side of the rotating rod 1071. A sliding shaft 1073 is fixed at the end of the rotating rod 1071. A sliding groove 1072-1 is formed on the moving rod 1072. The sliding shaft 1073 slides within the sliding groove 1072-1. A first connecting rod 1074 is fixed on one side of the moving rod 1072. A second connecting rod 1075 is fixed at the top of the first connecting rod 1074. The other end of the second connecting rod 1075 is fixed to the output end of the air cylinder 1062. The rack 2017 is fixed to the first connecting rod 1074.

[0048] The number of transmission parts 107 corresponds to that of the feeding parts 105. The first connecting rod 1074 is L-shaped and connects and fixes the moving rods 1072 on both sides. When the output end of the cylinder 1062 moves up and down, it will drive the first connecting rod 1074 to move up and down through the second connecting rod 1075, drive the moving rod 1072 to move through the first connecting rod 1074, and the moving rod 1072 drives the rotating rod 1071 to rotate through the cooperation of the sliding groove 1072-1 and the sliding shaft 1073. In this way, the rotating rod 1071 can drive the rotating column 1053 to rotate.

[0049] Specifically, the assembly component 100 further includes a locking part 108. The locking part 108 includes a fixed frame 1081. The fixed frame 1081 is fixed on one side of the workbench 101. A plug rod 1082 is arranged in the fixed frame 1081. A slot 1064-1 is opened on the positioning column 1064. The plug rod 1082 is inserted into the slot 1064-1. One end of the plug rod 1082 is fixed with a first spring 1083. A first torsion spring 1084 is fixed on the outer side of the positioning column 1064, and the other end of the first torsion spring 1084 is fixed to the workbench 101.

[0050] There are two plug rods 1082, corresponding to the two positioning columns 1064 respectively. When the plug rod 1082 is engaged with the slot 1064-1, the positioning column 1064 and the support block 1063 can be locked through their cooperation, so that the support block 1063 will not rotate downward when subjected to pressure. In this way, the solid-state battery cell can be tightly connected to the module bracket.

[0051] The first spring 1083 is used to apply a thrust to the two plug rods 1082, so that the plug rod 1082 can be engaged with the slot 1064-1 again after being separated from the slot 1064-1.

[0052] The first torsion spring 1084 is used to apply a torsional force to the positioning column 1064 and the support block 1063, so that the support block 1063 can rotate upward to the horizontal state after rotating downward.

[0053] When the plug rod 1082 is separated from the slot 1064-1, at this time, the gravity of the assembled battery cell pushes the support block 1063 downward, so that the battery cell can move downward and fall into the receiving bin 1065. At this time, the first torsion spring 1084 can drive the support block 1063 to rotate upward to the horizontal state.

[0054] Specifically, the assembly component 100 further includes a pushing member 109. The pushing member 109 includes a force-receiving block 1091. The force-receiving block 1091 is fixed to one side of the insertion rod 1082. Below the force-receiving block 1091, there is an extrusion frame 1092. One side of the workbench 101 is fixed with a support rod 1093. The top of the support rod 1093 is fixed with a stabilizing rod 1094. The stabilizing rod 1094 is movably connected inside the extrusion frame 1092. One side of the first connecting rod 1074 is fixed with a third connecting rod 1095. One side of the third connecting rod 1095 is fixed with a pushing block 1096.

[0055] The extrusion frame 1092 is in a V-like shape, and its inner inclined surface contacts the force-receiving block 1091. The pushing block 1096 is elastic. When the first connecting rod 1074 moves downward, it will drive the third connecting rod 1095 and the pushing block 1096 to move downward. At this time, the pushing block 1096 will contact the extrusion frame 1092 and exert a downward thrust on the extrusion frame 1092. Since the extrusion frame 1092 is restricted by the support rod 1093 and cannot move downward, the pushing block 1096 will bend under the elastic force.

[0056] When the first connecting rod 1074 drives the third connecting rod 1095 to move upward, at this time, the pushing block 1096 will contact the bottom of the extrusion frame 1092 and push the extrusion frame 1092 to move upward. At this time, the inclined surface of the extrusion frame 1092 will push the force-receiving block 1091 to move, so that the force-receiving block 1091 drives the insertion rod 1082 to move, thereby separating the insertion rod 1082 from the slot 1064-1.

[0057] When the extrusion frame 1092 is unable to move upward due to resistance, the pushing block 1096 will bend again and separate from the extrusion frame 1092.

[0058] Specifically, the pushing component 200 further includes a connecting member 202. The connecting member 202 includes a connecting sleeve 2021. The connecting sleeve 2021 is sleeved outside the rotating sleeve 2014. One side of the connecting sleeve 2021 is fixed with a clamping block 2022. Inside the gear 2016, there is a clamping groove 2016-1. Outside the connecting sleeve 2021, there is a rotating plate 2023. The number of the clamping grooves 2016-1 is multiple and is evenly distributed in a ring on the inner side of the gear 2016.

[0059] When the rotating plate 2023 drives the connecting sleeve 2021 and the clamping block 2022 to move toward the inside of the gear 2016, and the clamping block 2022 is engaged with the clamping groove 2016-1, the gear 2016 and the connecting sleeve 2021 can be connected through their cooperation. In this way, when the gear 2016 rotates, it can drive the rotating sleeve 2014 to rotate through the connecting sleeve 2021.

[0060] Specifically, a positioning block 2024 is fixed to one side of the rotating sleeve 2014. A positioning rod 2025 is fixed to one side of the positioning block 2024. The positioning rod 2025 is movably connected inside the rotating plate 2023. A second spring 2026 is sleeved outside the positioning rod 2025. Both ends of the second spring 2026 are fixed to the rotating plate 2023 and the positioning block 2024 respectively.

[0061] The number of the positioning block 2024, the positioning rod 2025 and the second spring 2026 is three, and they are evenly distributed in a ring outside the rotating sleeve 2014. Through the cooperation of the positioning block 2024 and the positioning rod 2025, the rotating plate 2023 is connected to the rotating sleeve 2014, so that the rotating plate 2023 can drive the rotating sleeve 2014 to rotate and can also move outside the rotating sleeve 2014.

[0062] When the thrust on the rotating plate 2023 is lost, the rotating plate 2023 can be pushed to move by the second spring 2026, so that the rotating plate 2023 drives the connecting sleeve 2021 and the clamping block 2022 to move, and the clamping block 2022 is separated from the clamping groove 2016-1.

[0063] Embodiment 3 Refer to Figures 1 - 12 , which is the third embodiment of the present invention, and this embodiment is based on the first two embodiments.

[0064] Specifically, the material pushing assembly 200 further includes an extrusion member 203. The extrusion member 203 includes an extrusion plate 2031. The extrusion plate 2031 is located on one side of the rotating plate 2023. A support column 2032 is fixed to the bottom of the positioning plate 2013. The support column 2032 is movably connected inside the extrusion plate 2031. A fixed rod 2033 is fixed to one side of the material receiving bin 1065. One side of the fixed rod 2033 is rotatably connected to a push rod 2034 through a rotating shaft. One side of the push rod 2034 contacts the extrusion plate 2031. A force receiving rod 2035 is fixed to the top of the push rod 2034. The top end of the force receiving rod 2035 penetrates into the material receiving bin 1065 and is movably connected to the material receiving bin 1065.

[0065] The push rod 2034 is L-shaped. The center of the push rod 2034 is rotatably connected to the fixed rod 2033 through a rotating shaft. One end of the push rod 2034 is located at the bottom of the material receiving bin 1065 and is fixed with a sliding rail. A connecting shaft is fixed to the force receiving rod 2035. The connecting shaft slides in the sliding rail. The force receiving rod 2035 is connected to the push rod 2034 through the cooperation of the two.

[0066] When the force receiving rod 2035 moves downward, it will drive one end of the push rod 2034 to move downward. At this time, the other end of the push rod 2034 will push the extrusion plate 2031 to move, so that the extrusion plate 2031 can push the rotating plate 2023 to move.

[0067] Specifically, the pusher component 200 further includes an inductor 204. The inductor 204 includes a material receiving plate 2041 which is located inside the material receiving bin 1065. A connecting column 2042 is fixed to the bottom of the material receiving plate 2041. The bottom end of the connecting column 2042 penetrates to the outside of the material receiving bin 1065 and is fixed with a mounting block 2043. A third spring 2044 is fixed to the top of the mounting block 2043, and the top end of the third spring 2044 is fixed to the material receiving bin 1065.

[0068] An upward pulling force is applied to the mounting block 2043 through the third spring 2044, so that the connecting column 2042 and the material receiving plate 2041 can be driven to move upward by the mounting block 2043, making the material receiving plate 2041 at a certain height inside the material receiving bin 1065.

[0069] When the assembled battery cells fall into the material receiving bin 1065, they will be located on the top of the material receiving plate 2041, and the battery cells will be supported by the material receiving plate 2041. The battery cells will apply a downward pressure to the material receiving plate 2041, and make the material receiving plate 2041 move downward by offsetting part of the elastic force of the third spring 2044. When a specified number of battery cells are stacked on the top of the material receiving plate 2041, the downward movement position of the material receiving plate 2041 will push the force receiving rod 2035 downward.

[0070] Specifically, a stop block 1097 is fixed to the top end of the stabilizing rod 1094, and a fourth spring 1098 is fixed to the bottom of the stop block 1097.

[0071] The stop block 1097 is used to fix the fourth spring 1098. A downward pushing force is applied to the extrusion frame 1092 through the fourth spring 1098, so that it can reset after moving.

[0072] During use, the solid-state battery cells and the module brackets to be assembled are respectively stacked inside the first blanking bin 102 and the second blanking bin 104. When the output end of the air cylinder 1062 moves upward, it will drive the first connecting rod 1074 to move upward through the second connecting rod 1075. The moving rod 1072 is driven to move through the first connecting rod 1074. The moving rod 1072 drives the rotating rod 1071 to rotate through the cooperation of the sliding groove 1072-1 and the sliding shaft 1073. In this way, the rotating rod 1071 can drive the rotating column 1053 to rotate. When the rotating column 1053 rotates, the fixed shaft 1054 will move in the first spiral groove 1053-1, and the fixed block 1052 is driven to move through the cooperation of the two, so that the fixed block 1052 can drive the feeding plate 1051 to move, and the solid-state battery cells and the module brackets are pushed out of the bottoms of the first blanking bin 102 and the second blanking bin 104 through the feeding plate 1051, thus completing the feeding of the two.

[0073] After the solid-state battery cell and the module bracket are pushed out, the pressing plate 1061 is driven by the cylinder 1062 to move downward, and the solid-state battery cell is pushed downward by the pressing plate 1061, so that the solid-state battery cell enters the module bracket. With the pressure applied downward by the pressing plate 1061, the solid-state battery cell can be closely attached to the inside of the module bracket, thus completing the assembly of the two.

[0074] When the pressing plate 1061 moves upward and separates from the battery cell, the first connecting rod 1074 will drive the third connecting rod 1095 to move upward. At this time, the pushing block 1096 will contact the bottom of the extrusion frame 1092 and push the extrusion frame 1092 to move upward. At this time, the inclined surface of the extrusion frame 1092 will push the force-bearing block 1091 to move, so that the force-bearing block 1091 drives the insertion rod 1082 to move, so that the insertion rod 1082 can be separated from the slot 1064-1. At this time, the gravity of the assembled battery cell will push the support block 1063 downward, so that the battery cell can move downward and fall into the receiving bin 1065. At this time, the first torsion spring 1084 can drive the support block 1063 to rotate upward to the horizontal state.

[0075] When the assembled battery cell falls into the receiving bin 1065, it will be located on the top of the receiving plate 2041, and the receiving plate 2041 will support the battery cell. The battery cell will apply a downward pressure to the receiving plate 2041 and cause the receiving plate 2041 to move downward by offsetting part of the elastic force of the third spring 2044. When a specified number of battery cells are stacked on the top of the receiving plate 2041, the downward movement position of the receiving plate 2041 will push the force-bearing rod 2035 downward. When the force-bearing rod 2035 moves downward, it will drive one end of the push rod 2034 to move downward. At this time, the other end of the push rod 2034 will push the extrusion plate 2031 to move, so that the extrusion plate 2031 can push the rotating plate 2023 to move.

[0076] When the rotating plate 2023 drives the connecting sleeve 2021 and the clamping block 2022 to move inward to the inside of the gear 2016 and the clamping block 2022 is engaged with the clamping groove 2016-1, the gear 2016 and the connecting sleeve 2021 can be connected through their cooperation. At this time, when the rack 2017 moves downward, it will drive the gear 2016 to rotate, and drive the rotating sleeve 2014 to rotate through the gear 2016. At this time, the positioning shaft 2015 will slide in the second spiral groove 2012-1. Through their cooperation, the fixed column 2012 is driven. The positioning plate 2013 is fixed at the bottom of the workbench 101. The fixed column 2012 and the push plate 2011 move, so that the push plate 2011 pushes the stacked specified number of battery cells away from the lower part of the blanking groove 101-1, so that another group of battery cells can be stacked, so that the automatic assembly of the solid-state battery cell and the module bracket can be completed, and the assembly quality of the two can be ensured. At the same time, when stacking the battery cells, the number of each stack can be made exactly the same.

[0077] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit them. Although the present invention has been described in detail with reference to the preferred embodiments, those of ordinary skill in the art should understand that the technical solutions of the present invention can be modified or equivalently replaced without departing from the spirit and scope of the technical solutions of the present invention, and they should all be covered within the scope of the claims of the present invention.

Claims

1. A processing device for a solid-state battery, characterized in that: including, an assembly component (100), including a workbench (101), a first blanking bin (102) is fixed on the top of the workbench (101), a support plate (103) is fixed on one side of the first blanking bin (102), and a second blanking bin (104) is fixed on the top of the support plate (103); the assembly component (100) further includes a feeding part (105), the feeding part (105) includes a feeding plate (1051), the feeding plate (1051) is located above the workbench (101), a fixing block (1052) is fixed on the top of the feeding plate (1051), a rotating column (1053) is inserted into the fixing block (1052), a fixing shaft (1054) is fixed in the fixing block (1052), a first spiral groove (1053-1) is formed on the rotating column (1053), and the fixing shaft (1054) slides in the fixing shaft (1054); the assembly component (100) further includes a pressing part (106), the pressing part (106) includes a pressing plate (1061), the pressing plate (1061) is located above the support plate (103), a cylinder (1062) is arranged on the top of the pressing plate (1061), a blanking groove (101-1) is formed on the workbench (101), a support block (1063) is arranged in the blanking groove (101-1), a positioning column (1064) is fixed in the support block (1063), the positioning column (1064) is rotatably connected to the inside of the workbench (101), and a receiving bin (1065) is fixed at the bottom of the workbench (101); a material pushing component (200), arranged on one side of the workbench (101), includes a material pushing part (201), the material pushing part (201) includes a pushing plate (2011), the pushing plate (2011) is located in the receiving bin (1065), a fixing column (2012) is fixed on one side of the pushing plate (2011), a positioning plate (2013) is fixed at the bottom of the workbench (101), the fixing column (2012) is movably connected to the inside of the positioning plate (2013), a rotating sleeve (2014) is rotatably connected to one side of the positioning plate (2013), a positioning shaft (2015) is fixed in the rotating sleeve (2014), a second spiral groove (2012-1) is formed on the fixing column (2012), the positioning shaft (2015) slides in the second spiral groove (2012-1), and a gear (2016) is rotatably connected to the outside of the rotating sleeve (2014), and a rack (2017) is arranged on one side of the gear (2016).

2. The processing equipment for a solid-state battery according to claim 1, wherein: The assembly component (100) further includes a transmission member (107). The transmission member (107) includes a rotating rod (1071) fixed to the outside of the rotating column (1053). A moving rod (1072) is arranged on one side of the rotating rod (1071). A sliding shaft (1073) is fixed to the end of the rotating rod (1071). A sliding groove (1072-1) is formed on the moving rod (1072). The sliding shaft (1073) slides in the sliding groove (1072-1). A first connecting rod (1074) is fixed to one side of the moving rod (1072). A second connecting rod (1075) is fixed to the top of the first connecting rod (1074). The other end of the second connecting rod (1075) is fixed to the output end of the cylinder (1062). The rack (2017) is fixed to the first connecting rod (1074).

3. The processing equipment for a solid-state battery according to claim 2, wherein: The assembly component (100) further includes a locking member (108). The locking member (108) includes a fixed frame (1081) fixed to one side of the workbench (101). A plug rod (1082) is arranged in the fixed frame (1081). A plug slot (1064-1) is formed on the positioning column (1064). The plug rod (1082) is inserted into the plug slot (1064-1). A first spring (1083) is fixed to one end of the plug rod (1082). A first torsion spring (1084) is fixed to the outside of the positioning column (1064). The other end of the first torsion spring (1084) is fixed to the workbench (101).

4. The processing equipment for a solid-state battery according to claim 3, wherein: The assembly component (100) further includes a pushing member (109). The pushing member (109) includes a force-bearing block (1091) fixed to one side of the plug rod (1082). An extrusion frame (1092) is arranged below the force-bearing block (1091). A support rod (1093) is fixed to one side of the workbench (101). A stabilizing rod (1094) is fixed to the top of the support rod (1093). The stabilizing rod (1094) is movably connected to the inside of the extrusion frame (1092). A third connecting rod (1095) is fixed to one side of the first connecting rod (1074). A pushing block (1096) is fixed to one side of the third connecting rod (1095).

5. The processing equipment for a solid-state battery according to claim 4, wherein: The pushing component (200) further includes a connecting member (202). The connecting member (202) includes a connecting sleeve (2021) sleeved on the outside of the rotating sleeve (2014). A clamping block (2022) is fixed to one side of the connecting sleeve (2021). A clamping slot (2016-1) is formed inside the gear (2016). A rotating plate (2023) is fixed to the outside of the connecting sleeve (2021).

6. The processing equipment for a solid-state battery according to claim 5, wherein: One side of the rotating sleeve (2014) is fixed with a positioning block (2024). One side of the positioning block (2024) is fixed with a positioning rod (2025). The positioning rod (2025) is movably connected inside the rotating plate (2023). A second spring (2026) is sleeved outside the positioning rod (2025). Two ends of the second spring (2026) are respectively fixed to the rotating plate (2023) and the positioning block (2024).

7. The processing equipment for a solid-state battery according to claim 5 or 6, characterized in that: The pushing component (200) further includes an extrusion member (203). The extrusion member (203) includes an extrusion plate (2031). The extrusion plate (2031) is located on one side of the rotating plate (2023). A support column (2032) is fixed to the bottom of the positioning plate (2013). The support column (2032) is movably connected inside the extrusion plate (2031). A fixed rod (2033) is fixed to one side of the material receiving bin (1065). One side of the fixed rod (2033) is rotatably connected with a push rod (2034) through a rotating shaft. One side of the push rod (2034) contacts the extrusion plate (2031). A force receiving rod (2035) is fixed to the top of the push rod (2034). The top end of the force receiving rod (2035) penetrates into the material receiving bin (1065) and is movably connected with the material receiving bin (1065).

8. The processing equipment for a solid-state battery according to claim 7, characterized in that: The pushing component (200) further includes an induction member (204). The induction member (204) includes a material receiving plate (2041). The material receiving plate (2041) is located inside the material receiving bin (1065). A connecting column (2042) is fixed to the bottom of the material receiving plate (2041). The bottom end of the connecting column (2042) penetrates to the outside of the material receiving bin (1065) and is fixed with a mounting block (2043). A third spring (2044) is fixed to the top of the mounting block (2043). The top end of the third spring (2044) is fixed to the material receiving bin (1065).

9. The processing equipment for a solid-state battery according to claim 8, wherein: A stop block (1097) is fixed to the top end of the stabilizing rod (1094). A fourth spring (1098) is fixed to the bottom of the stop block (1097).

10. The processing equipment for a solid-state battery according to claim 8 or 9, characterized in that: The number of the card slots (2016-1) is multiple, and they are evenly distributed in a ring on the inner side of the gear (2016).

Images