A solid-state battery processing device for new energy vehicles

Abstract

This invention relates to the field of solid-state battery processing and discloses a solid-state battery processing device for new energy vehicles. The device includes a worktable, a support plate, and a rotating main body rotatably connected therebetween. The rotating main body has three workstation surfaces on its side wall, each with a pressurizing module comprising a pressurizing groove, a radially sliding sealing plate, and built-in guide blocks and pressurizing blocks. Three moving mechanisms are provided on the rotating main body to drive the sealing plates and guide blocks respectively. A feeding mechanism and a unloading mechanism are provided above the worktable. This invention achieves continuous processing of solid-state battery electrode plates by switching between the three workstations on the rotating main body, simultaneously performing feeding, pressurizing and holding, and unloading operations. This effectively solves the problem of low efficiency caused by waiting for pressure holding in traditional single-station equipment, significantly improving production efficiency and automation.

Description

Technical Field

[0001] This invention belongs to the field of solid-state battery processing, and in particular relates to a solid-state battery processing device for new energy vehicles. Background Technology

[0002] With the rapid development of the new energy vehicle industry, solid-state batteries have become an important development direction in the power battery field due to their advantages such as high energy density, high safety, and long cycle life. In the manufacturing process of solid-state batteries, the pressure forming of electrode plates is one of the key technological steps, and its quality directly affects the overall performance and consistency of the battery. Therefore, high-performance, high-efficiency electrode plate pressure forming devices have become core equipment in solid-state battery production equipment.

[0003] Currently, most existing solid-state battery electrode plate pressurization equipment adopts a fixed structure. For example, the solid-state battery electrode sheet extrusion machine disclosed in utility model patent CN223066219U uses a cylinder to drive an extrusion plate to pressurize the electrode sheet placed in a mold. This device operates in a single-station sequential mode, and the electrode sheet needs to remain stationary and hold pressure for a period of time during the pressurization process. During this period, loading or unloading operations cannot be performed, resulting in low equipment utilization and limited production cycle time.

[0004] Furthermore, due to structural limitations, this type of equipment is difficult to operate continuously. After each pressing cycle of an electrode sheet is completed, it is necessary to wait for the pressure holding period to end before the next operation can begin, which severely restricts the improvement of production efficiency. Especially in large-scale industrial production, this intermittent operation mode cannot meet the production requirements of high cycle time and high consistency. Therefore, there is an urgent need for an electrode plate pressing device that can achieve multi-station parallel operation and has continuous feeding and unloading functions to improve the production efficiency of solid-state batteries and the overall performance of the equipment. Summary of the Invention

[0005] The purpose of this invention is to provide a solid-state battery processing device for new energy vehicles, which aims to solve the problem.

[0006] This invention is implemented as follows: a solid-state battery processing device for new energy vehicles includes a worktable and two support plates fixed to the top of the worktable. It also includes a rotating body rotatably connected between the two support plates. Three planes are evenly arranged on the sidewalls of the rotating body as workstation surfaces. A rotating mechanism is provided on the rotating body for rotating the body and switching workstations. Each of the three planes of the rotating body has a pressurizing module. Each pressurizing module includes at least one pressurizing groove on the plane of the rotating body and a sealing plate radially slidably connected to the plane of the rotating body. A guide groove is radially arranged inside the rotating body, and a guide block is slidably connected within the guide groove. At least one pressurizing block is fixed to the end of the guide block away from the axis of the rotating body. Three moving mechanisms are provided on the rotating body, each used to move the sealing plate and guide block of the three pressurizing modules. A feeding mechanism and a retraction mechanism are provided above the worktable. The feeding mechanism supplies solid-state battery electrode plates to the workstation surface rotated to a horizontal state, and the retraction mechanism retracts solid-state battery electrode plates from the workstation surface in an inclined state.

[0007] In a further technical solution, the rotating mechanism includes a motor fixed on one side wall of one of the support plates, a gear one fixed on the rotating end of the motor, and a gear two fixed on one end of the rotating body, with the gear two meshing with the gear one.

[0008] A further technical solution includes three moving mechanisms, each comprising an E-shaped drive frame slidably connected along the length of the rotating body, and a transmission plate fixed to one end of the guide block near the axis of the rotating body. The three E-shaped drive frames are evenly arranged along the length of the rotating body. A second push shaft is fixed in the middle of the E-shaped drive frame, and a first push shaft is fixed on the side wall of the E-shaped drive frame. A Z-shaped track groove is provided on the side wall of the sealing plate. The first push shaft is slidably connected in the Z-shaped track groove. The Z-shaped track groove includes an inclined push section one, and horizontal holding sections one and two horizontally arranged at both ends of the inclined push section one. A concave track groove is provided on the transmission plate. The second push shaft is slidably connected in the concave track groove. The concave track groove includes a horizontally arranged horizontal holding section three, and inclined push sections two and three inclinedly symmetrically arranged at both ends of the horizontal holding section three. The three moving mechanisms also include a displacement component one, a displacement component two, and a displacement component three, which are used to drive the three E-shaped drive frames to move along the length of the rotating body.

[0009] In a further technical solution, the displacement component includes a support plate two fixed to the top of the worktable, a hollow rotary hydraulic cylinder one fixed to one end of the support plate two away from the rotating body, a connecting shaft fixed to the telescopic end of the hollow rotary hydraulic cylinder one, and the connecting shaft connected to the E-shaped drive frame in the middle of the rotating body.

[0010] In a further technical solution, the displacement component two includes a hollow rotary hydraulic cylinder two fixed on one end of another support plate away from the rotating body. The telescopic end of the hollow rotary hydraulic cylinder two is fixed with a connecting sleeve one. The connecting sleeve one is connected to an E-shaped drive frame inside the rotating body near the support plate two. The connecting shaft is located inside the connecting sleeve one.

[0011] In a further technical solution, the displacement component three includes a hollow rotary hydraulic cylinder three fixed on one side wall of one of the support plates, at one end away from the rotating body. The telescopic end of the hollow rotary hydraulic cylinder three is fixed with a connecting sleeve two, and the connecting sleeve two is connected to an E-shaped drive frame inside the rotating body away from the support plate two.

[0012] A further technical solution includes a feeding mechanism comprising a feeding plate and a horizontal moving component disposed above the workbench. The horizontal moving component is used to drive the feeding plate to move horizontally. The feeding plate is provided with at least one feeding hole. A horizontal sliding groove is provided on the top of the feeding plate. A baffle is slidably connected in the sliding groove. At least one pushing block is fixed on the top of the baffle. A compression spring is fixed on the end of the pushing block away from the rotating body. The end of the compression spring is fixed on the feeding plate.

[0013] In a further technical solution, the horizontal moving component includes a fixed plate fixed to the top of the workbench, a feeding plate slidably connected to the fixed plate, and a telescopic component fixed to the side wall of the fixed plate, the telescopic end of which is connected to the bottom of the feeding plate.

[0014] In a further technical solution, the unloading mechanism includes an unloading plate that is inclined and slidably connected to the feeding plate, and an inclined telescopic member two is fixedly provided on the top of the feeding plate, the telescopic end of the telescopic member two being connected to the unloading plate.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0016] 1. Significantly improved production efficiency: The core of this invention is the rotating body with three workstations, which enables parallel operation of feeding, pressurizing and holding, and unloading processes. When one workstation is performing a time-consuming pressurizing and holding process, the other two workstations can simultaneously perform feeding and unloading operations, greatly reducing equipment waiting time, making the processing continuous, and improving production efficiency several times compared to traditional single-workstation equipment.

[0017] 2. High degree of automation and smooth operation: Through a rotary mechanism, a precision moving mechanism (E-shaped drive frame, Z-shaped / concave track groove cooperation), and an independent displacement drive component (hollow rotary hydraulic cylinder), automatic cycle switching of workstations, opening and closing of sealing plates, and advance and retreat of pressure blocks are achieved. The feeding and unloading mechanism is also driven by telescopic parts and linked with the rotary workstation, realizing automatic feeding of electrode plates and automatic ejection of finished parts, reducing the intensity and error of manual operation, and ensuring the stability and consistency of production cycle.

[0018] 3. Compact structure and high space utilization: The three pressurization modules are integrated into a rotating body. Through the ingenious internal space layout (such as the guide groove and the setting of the E-shaped drive frame) and the through-type drive connection design (connecting shaft and connecting sleeve), the device achieves multiple functions while ensuring the integrity and compact structure of the device and reducing the floor space occupied by the equipment.

[0019] 4. High applicability and reliability: The moving mechanism of each station is driven by an independent hydraulic cylinder, which can independently control the pressurization and opening and closing actions of each station according to process requirements. It has good flexibility. The mechanical track groove combined with the push shaft structure has a certain motion relationship, is not prone to errors, works reliably, and has a long service life. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the structure of a solid-state battery processing device for new energy vehicles provided by the present invention;

[0021] Figure 2 Provided by the present invention Figure 1 Schematic diagram of the internal structure of the rotating main body;

[0022] Figure 3 Provided by the present invention Figure 2 Schematic diagram of the structure after removing the sealing plate;

[0023] Figure 4 Provided by the present invention Figure 2 Schematic diagram of the rotating main body;

[0024] Figure 5 Provided by the present invention Figure 2 A schematic diagram of the structure after removing the rotating main body;

[0025] Figure 6 Provided by the present invention Figure 5 A schematic diagram of the structure of the first pressurization module;

[0026] Figure 7 Provided by the present invention Figure 5 A schematic diagram of the structure of the second pressurization module;

[0027] Figure 8 Provided by the present invention Figure 5 A schematic diagram of the third pressurization module;

[0028] Figure 9 Provided by the present invention Figure 5 Schematic diagram of the E-shaped drive frame;

[0029] Figure 10 Provided by the present invention Figure 6 A schematic diagram of the intermediate pressure module in the feeding state;

[0030] Figure 11 Provided by the present invention Figure 6 A schematic diagram of the intermediate pressure module in the unloading state;

[0031] Figure 12 Provided by the present invention Figure 6 A schematic diagram of the pressurization module in pressurization mode;

[0032] Figure 13 Provided by the present invention Figure 1 Schematic diagram of the material feeding mechanism and the material return mechanism;

[0033] Figure 14 Provided by the present invention Figure 1 A schematic diagram of the feeding mechanism and the unloading mechanism in the feeding and unloading states.

[0034] In the attached diagram: 101, rotating body; 102, pressure groove; 103, sealing plate; 104, guide groove; 105, guide block; 106, pressure block; 107, worktable; 108, support plate one;

[0035] 2. Rotating mechanism; 201. Motor; 202. Gear 1; 203. Gear 2;

[0036] 3. Moving mechanism; 301. E-shaped drive frame; 302. Push shaft one; 303. Push shaft two; 304. Z-shaped track groove; 3041. Inclined push section one; 3042. Horizontal holding section one; 3043. Horizontal holding section two; 305. Concave track groove; 3051. Horizontal holding section three; 3052. Inclined push section two; 3053. Inclined push section three; 306. Transmission plate;

[0037] 4. Displacement assembly one; 401. Connecting shaft; 402. Support plate two; 403. Hollow rotary hydraulic cylinder one;

[0038] 5. Displacement assembly two; 501. Connecting sleeve one; 502. Hollow rotary hydraulic cylinder two;

[0039] 6. Displacement assembly three; 601. Connecting sleeve two; 602. Hollow rotary hydraulic cylinder three;

[0040] 7. Feeding mechanism; 701. Feeding plate; 702. Feeding hole; 703. Sliding groove; 704. Baffle; 705. Pushing block; 706. Compression spring;

[0041] 8. Horizontal movement assembly; 801. Fixed plate; 802. Telescopic component one;

[0042] 9. Unloading mechanism; 901. Unloading plate; 902. Telescopic component two. Detailed Implementation

[0043] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0044] The specific implementation of the present invention will be described in detail below with reference to specific embodiments.

[0045] like Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5 As shown, an embodiment of the present invention provides a solid-state battery processing device for new energy vehicles, including a workbench 107 and two support plates 108 fixedly mounted on the top of the workbench 107. It also includes a rotating body 101 rotatably connected between the two support plates 108. Three planes are evenly arranged on the sidewall of the rotating body 101 as workstation surfaces. A rotating mechanism 2 is provided on the rotating body 101 for driving the rotating body 101 to rotate and perform workstation switching. Each of the three planes of the rotating body 101 is provided with a pressurizing module. Each pressurizing module includes at least one pressurizing groove 102 provided on the plane of the rotating body 101, and a closely spaced pressure groove 102 radially slidably connected to the plane of the rotating body 101. The sealing plate 103 has a guide groove 104 radially arranged inside the rotating body 101. A guide block 105 is slidably connected inside the guide groove 104. At least one pressure block 106 is fixed at the end of the guide block 105 away from the axis of the rotating body 101. Three moving mechanisms 3 are arranged on the rotating body 101. The three moving mechanisms 3 are respectively used to drive the sealing plate 103 and the guide block 105 of the three pressure modules to move. A feeding mechanism 7 and a unloading mechanism 9 are arranged above the worktable 107. The feeding mechanism 7 is used to supply solid battery electrode plates to the work surface that has been rotated to a horizontal state. The unloading mechanism 9 is used to unload solid battery electrode plates to the work surface that is in an inclined state.

[0046] In this embodiment of the invention, the rotating mechanism 2 drives the rotating body 101 to rotate and switch work positions. When the plane of the side wall of the rotating body 101 moves to the top of the rotating body 101 and is in a horizontal state, the pressure module is in the feeding state. The moving mechanism 3 drives the sealing plate 103 away from the axis of the rotating body 101 (i.e., the sealing plate 103 moves upward), and the pressure groove 102 is opened. The moving mechanism 3 drives the guide block 105 to move towards the axis of the rotating body 101. The guide block 105 drives the pressure block 106 to move towards the end of the pressure groove 102 close to the axis of the rotating body 101. At this time, the pressure groove 102 has the largest space and the pressure groove 102 is opened. The feeding mechanism 7 inserts the solid battery electrode plate into the pressure groove 102. The moving mechanism 3 drives the sealing plate 103 to move towards the axis of the rotating body 101 until the sealing plate 103 closes the end of the pressure groove 102. The moving mechanism 3 then drives the guide block 105 away from the axis of the rotating body 101, that is, the guide block 105 drives the pressure block 106 towards the sealing plate 102. As plate 103 moves, sealing plate 103 and pressure block 106 pressurize and maintain pressure on the electrode plate in pressure tank 102. During the pressure maintenance process, rotating mechanism 2 drives rotating body 101 to rotate and switch positions, thereby placing the electrode plate into the next pressure module and pressurizing and maintaining pressure. After the electrode plate in pressure tank 102 is pressurized, rotating body 101 drives pressure module to rotate to an inclined downward position, i.e., pressure module is in the unloading position. Moving mechanism 3 drives sealing plate 103 away from rotating body 101. At the axis 1, the pressure groove 102 is opened, and the moving mechanism 3 drives the guide block 105 to move away from the axis of the rotating body 101. The guide block 105 drives the pressure block 106 to remove the electrode plate in the pressure groove 102. The unloading mechanism 9 unloads the pressurized solid battery electrode plate, thus completing one electrode plate pressurization cycle. By setting three pressurization modules and rotating the rotating body 101 to switch work positions, the electrode plate pressure is maintained without affecting the electrode plate feeding and unloading, thereby improving the pressurization efficiency of the electrode plate.

[0047] like Figure 1 and Figure 2 As shown, in a preferred embodiment of the present invention, the rotating mechanism 2 includes a motor 201 fixed on the side wall of one of the support plates 108, a gear 202 fixed on the rotating end of the motor 201, and a gear 203 fixed on one end of the rotating body 101, and the gear 203 meshes with the gear 202.

[0048] In this embodiment of the invention, motor 201 drives gear 1 202 to rotate, gear 1 202 drives gear 2 203 to rotate, and gear 2 203 drives rotating body 101 to rotate.

[0049] like Figure 1 , Figure 5 , Figure 6 , Figure 7 , Figure 8 , Figure 9 , Figure 10 , Figure 11 and Figure 12 As shown, in a preferred embodiment of the present invention, each of the three moving mechanisms 3 includes an E-shaped drive frame 301 slidably connected along the length direction within the rotating body 101, and a transmission plate 306 fixed to one end of the guide block 105 near the axis of the rotating body 101. The three E-shaped drive frames 301 are evenly arranged along the length direction of the rotating body 101. A second push shaft 303 is fixed in the middle of the E-shaped drive frame 301, and a first push shaft 302 is fixed on the side wall of the E-shaped drive frame 301. A Z-shaped track groove 304 is provided on the side wall of the sealing plate 103. The first push shaft 302 is slidably connected in the Z-shaped track groove 304. The Z-shaped track groove 304 includes an inclined push section 3041, and the two ends of the inclined push section 3041 are horizontal. The system includes a horizontal holding section 1 3042 and a horizontal holding section 2 3043, with the horizontal holding section 2 3043 located near the axis of the rotating body 101. The transmission plate 306 has a concave track groove 305, and the push shaft 2 303 is slidably connected within the concave track groove 305. The concave track groove 305 includes a horizontally arranged horizontal holding section 3051, and two inclined push sections 2 3052 and 3053 that are symmetrically arranged at both ends of the horizontal holding section 3051. The three moving mechanisms 3 also include a displacement component 1 4, a displacement component 2 5, and a displacement component 3 6, which are used to drive the three E-shaped drive frames 301 to move along the length of the rotating body 101.

[0050] In this embodiment of the invention, in the initial state, i.e. when feeding material into the pressure tank 102, the E-shaped drive frame 301 moves, driving the first push shaft 302 and the second push shaft 303 to move, so that the first push shaft 302 is located in the second horizontal holding section 3043 of the Z-shaped track groove 304, the sealing plate 103 is away from the axis of the rotating body 101, the second push shaft 303 is located in the third horizontal holding section 3051 of the concave track groove 305, and the guide block 105 is close to the axis of the rotating body 101. At this time, the distance between the sealing plate 103 and the pressure block 106 is the largest (e.g., Figure 10 As shown), the end of the pressure groove 102 away from the axis of the rotating body 101 is in an open state, and the pressure block 106 is located at the other end of the pressure groove 102, with the pressure groove 102 having the largest space.

[0051] When pressure is applied to the electrode plate in the pressure groove 102, the E-shaped drive frame 301 moves towards the inclined pushing section 3052 end of the concave track groove 305 (i.e., the E-shaped drive frame 301 moves towards the horizontal holding section 3042 end of the Z-shaped track groove 304). The E-shaped drive frame 301 drives the first pushing shaft 302 and the second pushing shaft 303 to move. The first pushing shaft 302 moves from the inclined pushing section 3041 to the horizontal holding section 3042 in the Z-shaped track groove 304. The first pushing shaft 302 pushes the sealing plate 103 towards the axis of the rotating body 101 through the inclined pushing section 3041 until the sealing plate 103 contacts the plane of the side wall of the rotating body 101. The sealing plate 103 seals the end of the pressure groove 102 away from the rotating body 101. The first pushing shaft 302 slides into the horizontal holding section 3042 of the Z-shaped track groove 304. At the same time, the pushing shaft Push shaft 303 slides from the horizontal holding section 3051 of the concave track groove 305 into the inclined pushing section 3052. When push shaft 303 moves within the horizontal holding section 3051 of the concave track groove 305, transmission plate 306, guide block 105, and pressure block 106 remain stationary. E-shaped drive frame 301 continues to move. Push shaft 303 drives transmission plate 306 away from the axis of rotating body 101 via the inclined pushing section 3052 of the concave track groove 305. Transmission plate 306 drives guide block 105 and pressure block 106 away from the axis of rotating body 101. At this time, push shaft 302 moves within the horizontal holding section 3042 of the Z-shaped track groove 304. Sealing plate 103 remains stationary. Pressure block 106 moves towards sealing plate 103. Pressure block 106 and sealing plate 103 apply pressure to the electrode plate in pressure groove 102 (e.g., Figure 12 As shown), the movement process of drive shaft 302 and drive shaft 303 is determined by... Figures 10 to 12 ;

[0052] After the electrode plates in the pressure tank 102 are pressurized, when it is necessary to remove the electrode plates from the pressure tank 102, the E-shaped drive frame 301 moves in the reverse direction, that is, the E-shaped drive frame 301 moves towards the inclined pushing section 3053 of the concave track groove 305 (that is, the E-shaped drive frame 301 moves towards the horizontal holding section 2 3043 of the Z-shaped track groove 304). The E-shaped drive frame 301 drives the first pushing shaft 302 and the second pushing shaft 303 to move in the opposite direction. The first pushing shaft 302 moves from the first horizontal holding section 3042 to the second horizontal holding section 3043 in the Z-shaped track groove 304. The first pushing shaft 302 pushes the sealing plate 103 away from the axis of the rotating body 101 through the inclined pushing section 3041. The sealing plate 103 opens the end of the pressure tank 102 away from the rotating body 101, and the first pushing shaft 302 slides into the second horizontal holding section 3043 of the Z-shaped track groove 304. At the same time, the pushing shaft 302... Shaft 2 303 first slides from the inclined pushing section 2 3052 of the concave track groove 305 into the horizontal holding section 3051. Shaft 2 303, through the inclined pushing section 2 3052 of the concave track groove 305, drives the transmission plate 306 to move closer to the axis of the rotating body 101. The transmission plate 306 drives the guide block 105 and the pressure block 106 to move closer to the axis of the rotating body 101, thereby releasing the pressure on the electrode plate in the pressure groove 102. Shaft 2 303 then slides from the horizontal holding section 3051 of the concave track groove 305 into the inclined pushing section 3053. Shaft 2 303, through the inclined pushing section 3053 of the concave track groove 305, drives the transmission plate 306 away from the axis of the rotating body 101. The transmission plate 306 drives the guide block 105 and the pressure block 106 away from the axis of the rotating body 101. The pressure block 106 pushes the electrode plate out of the pressure groove 102 (e.g., Figure 11 As shown), the movement process of drive shaft 302 and drive shaft 303 is determined by... Figures 12 to 11 ;

[0053] When the electrode plates are removed from the pressure tank 102 and need to be repositioned, the E-shaped drive frame 301 moves towards the inclined pushing section 3052 of the concave track groove 305 (i.e., the E-shaped drive frame 301 moves towards the horizontal holding section 3042 of the Z-shaped track groove 304). The E-shaped drive frame 301 drives the pushing shaft 302 and the pushing shaft 303 to move. The pushing shaft 302 moves within the inclined pushing section 3041 of the horizontal holding section 3043 of the Z-shaped track groove 304. The pushing shaft 302 moves within the Z-shaped track groove 304. When the horizontal holding section 2 3043 of groove 304 moves, the sealing plate 103 is stationary. At the same time, the push shaft 2 303 slides from the inclined push section 3053 of concave track groove 305 into the horizontal holding section 3051. The push shaft 2 303 drives the transmission plate 306 to move closer to the axis of the rotating body 101 through the inclined push section 3053 of concave track groove 305. The transmission plate 306 drives the guide block 105 and the pressure block 106 to move closer to the axis of the rotating body 101. At this time, the distance between the sealing plate 103 and the pressure block 106 is the largest (e.g., Figure 10 As shown), the end of the pressure groove 102 furthest from the axis of the rotating body 101 is in an open state, and the pressure block 106 is located at the other end of the pressure groove 102. The pressure groove 102 has the largest space. The movement of the first push shaft 302 and the second push shaft 303 is caused by... Figures 11 to 10 .

[0054] like Figure 1 , Figure 5 , Figure 6 and Figure 9 As shown, in a preferred embodiment of the present invention, the displacement component 4 includes a support plate 402 fixedly mounted on the top of the worktable 107. A hollow rotary hydraulic cylinder 403 is fixedly mounted at one end of the support plate 402 away from the rotating body 101. A connecting shaft 401 is fixedly mounted at the telescopic end of the hollow rotary hydraulic cylinder 403. The connecting shaft 401 is connected to the E-shaped drive frame 301 in the middle of the rotating body 101.

[0055] In this embodiment of the invention, when the hollow rotary hydraulic cylinder 403 extends or retracts, it can drive the connecting shaft 401 to move along the length direction of the rotating body 101, and the connecting shaft 401 drives the E-shaped drive frame 301 in the middle of the rotating body 101 to move.

[0056] like Figure 1 , Figure 5 , Figure 7 and Figure 9As shown, in a preferred embodiment of the present invention, the displacement component 2 5 includes a hollow rotary hydraulic cylinder 2 502 fixed on the side wall of another support plate 108 at one end away from the rotating body 101. The telescopic end of the hollow rotary hydraulic cylinder 2 502 is fixed with a connecting sleeve 1 501. The connecting sleeve 1 501 is connected to the E-shaped drive frame 301 inside the rotating body 101 near the support plate 2 402. The connecting shaft 401 is located inside the connecting sleeve 1 501.

[0057] In this embodiment of the invention, when the hollow rotary hydraulic cylinder 502 extends or retracts, it can drive the connecting sleeve 501 to move along the length direction of the rotating body 101. The connecting sleeve 501 drives the E-shaped drive frame 301, which is close to the support plate 402 inside the rotating body 101, to move.

[0058] like Figure 1 , Figure 5 , Figure 8 and Figure 9 As shown, in a preferred embodiment of the present invention, the displacement component 36 includes a hollow rotary hydraulic cylinder 3602 fixed on one end of the side wall of one of the support plates 108 away from the rotating body 101. The telescopic end of the hollow rotary hydraulic cylinder 3602 is fixed with a connecting sleeve 2601. The connecting sleeve 2601 is connected to the E-shaped drive frame 301 inside the rotating body 101 away from the support plate 2402.

[0059] In this embodiment of the invention, when the hollow rotary hydraulic cylinder 602 extends or retracts, it can drive the connecting sleeve 601 to move along the length direction of the rotating body 101. The connecting sleeve 601 drives the E-shaped drive frame 301 inside the rotating body 101 away from the support plate 402 to move.

[0060] like Figure 1 , Figure 2 , Figure 3 , Figure 10 , Figure 11 , Figure 13 and Figure 14As shown, in a preferred embodiment of the present invention, the feeding mechanism 7 includes a feeding plate 701 disposed above the workbench 107 and a horizontal moving component 8. The horizontal moving component 8 is used to drive the feeding plate 701 to move horizontally. The feeding plate 701 is provided with at least one feeding hole 702. A horizontal sliding groove 703 is provided on the top of the feeding plate 701. A baffle 704 is slidably connected in the sliding groove 703. At least one pushing block 705 is fixedly disposed on the top of the baffle 704. A compression spring 706 is fixedly disposed on the end of the pushing block 705 away from the rotating body 101. The end of the compression spring 706 is fixed to the feeding plate 701; the horizontal moving assembly 8 includes a fixed plate 801 fixed to the top of the worktable 107, the feeding plate 701 is slidably connected to the fixed plate 801, a telescopic member 802 is fixed to the side wall of the fixed plate 801, and the telescopic end of the telescopic member 802 is connected to the bottom of the feeding plate 701; the unloading mechanism 9 includes an unloading plate 901 that is obliquely slidably connected to the feeding plate 701, an oblique telescopic member 902 is fixed to the top of the feeding plate 701, and the telescopic end of the telescopic member 902 is connected to the unloading plate 901.

[0061] In this embodiment of the invention, in the initial state, both telescopic member 802 and telescopic member 902 are in a retracted state. Telescopic member 802 and telescopic member 902 can be electric telescopic rods or cylinders. The feeding plate 701 and the unloading plate 901 are both far from the rotating body 101 (e.g., ...). Figure 1 As shown), the feeding plate 701 and the unloading plate 901 avoid the rotating body 101 and do not affect the rotating body 101. The compression spring 706 pushes the push block 705, and the push block 705 drives the baffle 704 to block the area below the feeding hole 702.

[0062] When feeding material into the pressure tank 102, one of the working surfaces on the rotating body 101 rotates to a horizontal state, and the sealing plate 103 and guide block 105 corresponding to that working surface are in a horizontal position. Figure 10In the desired state, the sealing plate 103 is away from the rotating body 101, the guide block 105 is close to the axis of the rotating body 101, the end of the pressure groove 102 away from the axis of the rotating body 101 is open, and the pressure block 106 is located at the other end of the pressure groove 102. The electrode plate to be pressurized is placed in the feed hole 702, the baffle 704 supports the lower end of the electrode plate to be pressurized, the telescopic component 802 extends, and the telescopic component 802 drives the feed plate 701 to move towards the rotating body 101. The pushing block 705 and the side of the sealing plate 103 are... When the wall contacts, the sealing plate 103 restricts the push block 705 and the baffle 704 from moving further. As the feed plate 701 continues to move, the compression spring 706 is gradually compressed, and the baffle 704 begins to disengage from below the feed hole 702 until the feed plate 701 is inserted between the rotating body 101 and the sealing plate 103. The feed hole 702 coincides with the pressure groove 102, and the baffle 704 completely disengages from below the feed hole 702. The electrode plate in the feed hole 702 falls into the pressure groove 102, thereby feeding material into the pressure groove 102 (e.g., ...). Figure 14 (as shown)

[0063] At the same time, another work surface rotates to an inclined state, and the sealing plate 103 and guide block 105 corresponding to its work surface are in a state of... Figure 11 In this state, the sealing plate 103 is away from the rotating body 101, the guide block 105 is away from the axis of the rotating body 101, and the end of the pressure groove 102 away from the axis of the rotating body 101 is open. The pressure block 106 pushes out the pressurized electrode plate in the pressure groove 102, the telescopic component 902 extends, and the telescopic component 902 drives the ejector plate 901 to move downward at an angle. The ejector plate 901 is inserted between the rotating body 101 and the sealing plate 103 (e.g., Figure 14 As shown), the ejector plate 901 pushes out the pressurized electrode plate between the sealing plate 103 and the pressure block 106, thereby realizing the ejection after pressurization and preventing the electrode plate from adhering to the sealing plate 103 or the pressure block 106. After the electrode plate feeding and ejection are completed, the telescopic component 2 902 retracts and drives the ejector plate 901 to reset. The telescopic component 1 802 retracts and drives the feeding plate 701 to reset, thus completing one feeding and ejection operation.

[0064] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A new energy automobile solid-state battery processing device, comprising a workbench and two support plates I fixed on the top of the workbench, characterized in that, Also includes: The rotating body is rotatably connected between two support plates. Three planes are evenly arranged on the side wall of the rotating body as work station surfaces. The rotating body is equipped with a rotating mechanism for driving the rotating body to rotate and switching work stations. Pressurization modules are provided on all three planes of the rotating body. Each pressurization module includes at least one pressurization groove on the plane of the rotating body and a sealing plate that is radially slidably connected to the plane of the rotating body. A guide groove is radially provided inside the rotating body, and a guide block is slidably connected inside the guide groove. At least one pressurization block is fixed at the end of the guide block away from the axis of the rotating body. The rotating body is equipped with three moving mechanisms, which are used to drive the sealing plates and guide blocks of the three pressurization modules to move respectively; Above the workbench are a feeding mechanism and a retraction mechanism. The feeding mechanism is used to supply solid battery electrode plates to the work surface that has been rotated to a horizontal position, and the retraction mechanism is used to retract solid battery electrode plates from the work surface that is in an inclined position. Each of the three moving mechanisms includes an E-shaped drive frame that slides along the length of the rotating body, and a transmission plate fixed to one end of the guide block near the axis of the rotating body. The three E-shaped drive frames are evenly arranged along the length of the rotating body. A second push shaft is fixed in the middle of the E-shaped drive frame, and a first push shaft is fixed on the side wall of the E-shaped drive frame. A Z-shaped track groove is provided on the side wall of the sealing plate. The first push shaft is slidably connected in the Z-shaped track groove. The Z-shaped track groove includes an inclined push section 1, and a horizontal holding section 1 and a horizontal holding section 2, which are horizontally arranged at both ends of the inclined push section 1. A concave track groove is provided on the transmission plate, and the second push shaft is slidably connected in the concave track groove. The concave track groove includes a horizontal holding section 3, and an inclined push section 2 and an inclined push section 3, which are symmetrically arranged at both ends of the horizontal holding section 3. The three moving mechanisms also include displacement component one, displacement component two, and displacement component three, which are used to drive the three E-shaped drive frames to move along the length of the rotating body, respectively. The feeding mechanism includes a feeding plate and a horizontal moving component set above the workbench. The horizontal moving component is used to drive the feeding plate to move horizontally. The feeding plate is provided with at least one feeding hole. The top of the feeding plate is provided with a horizontal sliding groove. A baffle is slidably connected in the sliding groove. At least one pushing block is fixed on the top of the baffle. A compression spring is fixed on the end of the pushing block away from the rotating body. The end of the compression spring is fixed on the feeding plate. The horizontal moving assembly includes a fixed plate fixed to the top of the worktable, a feeding plate slidably connected to the fixed plate, and a telescopic component fixed to the side wall of the fixed plate, the telescopic end of which is connected to the bottom of the feeding plate.

2. The new energy automobile solid-state battery processing device according to claim 1, characterized in that, The rotating mechanism includes a motor fixed on one side wall of one of the support plates, a gear one fixed on the rotating end of the motor, and a gear two fixed on one end of the rotating body, with the gear two meshing with the gear one.

3. The new energy automobile solid-state battery processing device according to claim 1, characterized in that, The displacement assembly includes a support plate 2 fixed on the top of the worktable. A hollow rotary hydraulic cylinder 1 is fixed at the end of the support plate 2 away from the rotating body. A connecting shaft is fixed at the telescopic end of the hollow rotary hydraulic cylinder 1. The connecting shaft is connected to the E-shaped drive frame in the middle of the rotating body.

4. The new energy automobile solid-state battery processing device according to claim 3, characterized in that, The displacement assembly 2 includes a hollow rotary hydraulic cylinder 2 fixed on one end of another support plate away from the rotating body. The telescopic end of the hollow rotary hydraulic cylinder 2 is fixed with a connecting sleeve 1. The connecting sleeve 1 is connected to the E-shaped drive frame inside the rotating body near the support plate 2, and the connecting shaft is located inside the connecting sleeve 1.

5. The new energy vehicle solid-state battery processing device according to claim 3, characterized in that, The displacement assembly three includes a hollow rotary hydraulic cylinder three fixed on one side wall of one of the support plates, at the end away from the rotating body. The telescopic end of the hollow rotary hydraulic cylinder three is fixed with a connecting sleeve two, which is connected to an E-shaped drive frame inside the rotating body away from the support plate two.

6. The new energy automobile solid-state battery processing device according to claim 1, characterized in that, The unloading mechanism includes an unloading plate that is inclined and slidably connected to the feeding plate, and an inclined telescopic component 2 is fixed on the top of the feeding plate. The telescopic end of the telescopic component 2 is connected to the unloading plate.

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