Battery high-temperature formation production system without environmental control
The high-temperature formation production system for lithium batteries, which eliminates the need for environmental control, enables automated production and temperature management of lithium batteries. This solves the problem of high environmental control costs in existing technologies, reduces production costs, and improves production efficiency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-02
- Publication Date
- 2026-03-03
AI Technical Summary
The current lithium battery production process requires strict control of ambient temperature and humidity, which leads to increased production costs and equipment investment, and the heat generated by the charging and discharging equipment is difficult to manage effectively.
Design a battery high-temperature formation production system that does not require environmental control. Employ a logistics line, isolation door, negative pressure mold assembly and unassembly mechanism, nail removal and insertion mechanism, stacker crane, and hydrothermal high-temperature negative pressure formation equipment to achieve automated production and heat management, reducing the need for clean space.
It reduces the investment cost of cleanrooms, improves production efficiency, reduces labor requirements, realizes efficient and automated production of lithium batteries, and effectively manages the temperature of the formation needle bed and power components, thereby reducing the company's production costs.
Smart Images
Figure CN223967227U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of lithium battery production technology, and in particular to a high-temperature battery formation production system that does not require environmental control. Background Technology
[0002] During the production process, lithium batteries need to undergo activation treatment in formation equipment. Furthermore, during the transportation of lithium batteries, the production workshop must have strict environmental temperature and humidity control requirements to avoid fine dust particles, moisture, and temperature fluctuations floating in the air. Therefore, in order to meet the standard requirements of the production workshop, companies have invested a lot of money in the research and development of production workshops and environmental control equipment, thereby providing good protection for lithium batteries, reducing pollution, and ensuring the production environment of lithium batteries.
[0003] In existing production workshops, to prevent lithium battery contamination during production, the entire production line is placed in a strictly controlled environment, increasing production costs. This also requires significant manpower and environmental temperature and humidity control equipment for operation. Furthermore, in the enclosed production environment, the charging and discharging equipment generates a large amount of heat during operation, increasing internal temperature fluctuations. This necessitates cooling ducts and additional cooling components for the power supply section. Consequently, production costs and equipment investment are constantly increasing.
[0004] Therefore, a new technical solution needs to be researched to address the above problems. Utility Model Content
[0005] In view of this, the present invention addresses the deficiencies of the existing technology, and its main objective is to provide a battery high-temperature formation production system that does not require environmental control.
[0006] To achieve the above objectives, the present invention adopts the following technical solution:
[0007] A battery high-temperature formation production system that does not require environmental control includes a logistics line for loading and unloading restraint trays. The logistics line is provided with a restraint tray loading and unloading mechanism, a first isolation door, a negative pressure mold assembly and unloading mechanism, a nail removal mechanism, a nail insertion mechanism, a second isolation door, a stacker crane, and a hydrothermal high-temperature negative pressure formation device in sequence along its extension direction. A clean room is provided between the first isolation door and the second isolation door, and the negative pressure mold assembly and unloading mechanism, the nail removal mechanism, and the nail insertion mechanism are placed inside the clean room. The first isolation door is located at the outer end of the clean room and is used to clean dust on the restraint trays. The second isolation door is located at the inner end of the clean room and transports the restraint trays with negative pressure modules outward.
[0008] As a preferred embodiment, the logistics line includes a loading conveyor line and a unloading conveyor line, which are arranged in a double-layer configuration with the loading and unloading conveyor lines running side by side, and pass through a conveyor restraint tray from the clean room. The unloading mechanism of the restraint tray is located at the head end of the logistics line and on one side thereon.
[0009] The restraint pallet loading and unloading mechanism includes a pallet storage area, an injection molding pallet area, a restraint pallet area, and loading and unloading clamps for clamping and transferring lithium batteries. The pallet storage area is located at one end of the logistics line, and the injection molding pallet area and the restraint pallet area are located at the other end of the logistics line. The loading clamp is located beside the restraint pallet area, and the unloading clamp is located beside the injection molding pallet area. Incoming lithium batteries are placed on the loading conveyor line and conveyed backward. The loading clamp clamps the lithium batteries on the loading conveyor line and places them into the restraint pallets in the restraint pallet area for stacking and tidying. After the restraint pallets are neatly stacked, they are transferred to the loading conveyor line to continue being conveyed backward through the first isolation door. The unloading clamp transfers the restraint pallets conveyed from the rear on the unloading conveyor line and clamps and transfers the lithium batteries in the restraint pallets into the injection molding pallets in the injection molding pallet area to complete the unloading.
[0010] As a preferred embodiment, the first isolation door is equipped with a dust blowing assembly, which is used to blow away the fine dust adsorbed on the restraint tray, keeping it in a dust-free state before it enters the clean room.
[0011] As a preferred embodiment, the nail removal mechanism and the nail insertion mechanism are located on the same side of the logistics line. The nail removal mechanism is used to remove nails from the lithium battery placed inside the restraint tray that is conveyed from the front end via the feeding conveyor line, and to convey it backward.
[0012] The insertion mechanism is used to insert lithium batteries placed in a restraint tray that is conveyed from the rear end via the unloading conveyor line, thereby conveying the lithium batteries to the outside in a sealed and protected state.
[0013] As a preferred embodiment, the negative pressure module assembly and disassembly mechanism is located on the other side of the logistics line, and the negative pressure module is installed / disassembled on the restraint tray above the logistics line to complete the fixed assembly / disassembly separation of the two.
[0014] The negative pressure module assembly and disassembly mechanism includes a module conveyor line for conveying negative pressure modules, a module robot, and a placement platform. The module robot is located between the module conveyor line, the placement platform, and the logistics line and rotates to pick up materials. The module robot transfers the restraint tray on the logistics line to the placement platform and transfers the negative pressure modules on the module conveyor line to the restraint tray, or disassembles the negative pressure modules on the restraint tray and places them on the module conveyor line.
[0015] As a preferred embodiment, the stacker crane is positioned between the logistics line and the hydrothermal high-temperature negative pressure formation equipment and is located on one side of the logistics line. The hydrothermal high-temperature negative pressure formation equipment is located at the side end of the stacker crane. The stacker crane is used to transfer restraint pallets from the logistics line to the hydrothermal high-temperature negative pressure formation equipment, or to transfer restraint pallets from the hydrothermal high-temperature negative pressure formation equipment to the logistics line for unloading and conveying.
[0016] As a preferred embodiment, the hydrothermal high-temperature negative pressure formation equipment includes a housing and a formation needle bed, a power supply component, a heat exchanger assembly, a water-cooling component, and a control panel located within the housing. The formation needle bed and the heat exchanger assembly are located at one end of the housing, the power supply component and the water-cooling component are located at the other end of the housing, and the control panel is located on the housing for user operation.
[0017] As a preferred embodiment, the outer casing is configured as a left chamber, a right chamber, and a control chamber. The chemical forming needle bed and heat exchanger assembly are located in the left chamber, with the heat exchanger assembly positioned above the chemical forming needle bed for heating the left chamber. The lower end face of the left chamber has an opening facing the stacker crane. The stacker crane inserts the restraint tray located on the loading conveyor line into the opening of the left chamber and processes the restraint tray using the chemical forming needle bed. The stacker crane then transfers the processed restraint tray located in the left chamber to the unloading conveyor line for unloading.
[0018] As a preferred embodiment, the power supply component and the water-cooling cooling assembly are disposed in the right chamber. The power supply component is electrically connected to the chemical needle bed and the control panel. The water-cooling cooling assembly is used to dissipate heat and cool the hot air in the right chamber.
[0019] The control panel is located on the side wall of the control room for easy operation by workers.
[0020] As a preferred embodiment, the number of the hydrothermal high-temperature negative pressure formation equipment is set to several units, and the several units of hydrothermal high-temperature negative pressure formation equipment are arranged side by side on the side of the stacker crane.
[0021] Compared with the prior art, this utility model has obvious advantages and beneficial effects. Specifically, as can be seen from the above technical solution:
[0022] This solution reduces the required cleanroom space by rationally improving the layout of the production system, thereby reducing the investment cost of cleanrooms. Furthermore, it automates the transport of restraint pallets via a logistics line, ensuring accuracy and portability during transportation. A first isolation door cleans the restraint pallets on the logistics line, effectively preventing dust and other floating debris from entering the cleanroom and affecting the quality of lithium batteries. The pallets are then transferred to a hydrothermal high-temperature negative pressure formation device via a stacker crane for activation processing. This fully automated production process improves lithium battery production efficiency, reduces manpower, lowers production costs, and meets market demands.
[0023] Furthermore, the hydrothermal high-temperature negative pressure formation equipment used in this solution employs a method of simultaneous heating and cooling at both ends, allowing the formation needle bed and power supply components to be used in the same device. This effectively prevents the high-temperature environment of the formation needle bed from affecting the cooling environment of the power supply components. The formation needle bed is heated by a heat exchanger assembly to maintain a suitable internal temperature for its operation. Then, the high-temperature environment of the power supply components is cooled by a water-cooling assembly. Through a circulating water supply, the heat generated by the power supply components is effectively and quickly removed, reducing the internal temperature and ensuring that the power supply components can operate at a suitable temperature for an extended period of time. Attached Figure Description
[0024] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.
[0025] Figure 1 This is a schematic diagram of the overall planar structure of this utility model.
[0026] Figure 2 This is a schematic diagram of the internal structure of this utility model.
[0027] Figure 3 This is a schematic diagram of the hydrothermal high-temperature negative pressure formation equipment of this utility model.
[0028] Figure 4 This is a schematic diagram of the internal structure of the hydrothermal high-temperature negative pressure formation equipment of this utility model.
[0029] The following are the labeling elements in the figure:
[0030] 100. Logistics line; 110. Loading conveyor line; 120. Unloading conveyor line; 200. Restrained pallet loading and unloading mechanism; 210. Pallet storage area; 220. Injection molding pallet area; 230. Restrained pallet area; 240. Loading clamp; 250. Unloading clamp; 300. First isolation door; 400. Negative pressure mold assembly and unloading mechanism; 410. Module conveyor line; 420. Module robot; 430. Placement platform; 500. Nail removal mechanism; 600. Nail insertion mechanism; 700. Second isolation door; 800. Stacker crane; 900. Hydrothermal high-temperature negative pressure formation equipment; 910. Outer shell; 920. Formation needle bed; 930. Power supply components; 940. Heat exchanger assembly; 950. Water cooling assembly; 960. Control panel; 970. Opening; 1000. Clean room. Detailed Implementation
[0031] To make the technical problems, technical solutions, and beneficial effects to be solved by this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and are not intended to limit the scope of this application.
[0032] It should be noted that when a component is referred to as being "fixed to" or "set on" another component, it can be directly on or indirectly on that other component. When a component is referred to as being "connected to" another component, it can be directly connected to or indirectly connected to that other component.
[0033] It should be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.
[0034] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.
[0035] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments.
[0036] Reference Appendix Figure 1-4 As shown: A battery high-temperature formation production system without environmental control includes a logistics line 100 for loading and unloading restraint trays. The logistics line 100 extends along the following directions: a restraint tray loading and unloading mechanism 200, a first isolation door 300, a negative pressure mold assembly and unloading mechanism 400, a nail removal mechanism 500, a nail insertion mechanism 600, a second isolation door 700, a stacker crane 800, and a hydrothermal high-temperature negative pressure formation device 900. A clean room 1000 is provided between the first isolation door 300 and the second isolation door 700, and the negative pressure mold assembly and unloading mechanism 400, the nail removal mechanism 500, and the nail insertion mechanism 600 are placed inside. The first isolation door 300 is located at the outer end of the clean room 1000 and is used to clean dust on the restraint trays. The second isolation door 700 is located at the inner end of the clean room 1000 and transports the restraint trays with negative pressure modules outward.
[0037] Specifically, the logistics line 100 includes a loading conveyor line 110 and a unloading conveyor line 120. The loading conveyor line 110 and the unloading conveyor line 120 are arranged in a double-layer configuration, running side by side, and pass through a conveyor restraint tray from the cleanroom 1000. The restraint tray loading and unloading mechanism 200 is located at the head end of the logistics line 100 and on one side thereon, so that the logistics line 100 can simultaneously perform loading and unloading conveying functions, reducing the space occupied.
[0038] In this embodiment, the restraint tray loading / unloading mechanism 200 includes a tray storage area 210, an injection molding tray area 220, a restraint tray area 230, and a loading clamp 240 and a unloading clamp 250 for clamping and transferring lithium batteries. The tray storage area 210 is located at one end of the logistics line 100, and the injection molding tray area 220 and the restraint tray area 230 are located at the other end of the logistics line 100. The loading clamp 240 is located beside the restraint tray area 230, and the unloading clamp 250 is located beside the injection molding tray area 220. Incoming lithium batteries are placed on the loading conveyor line 110 and conveyed backward. The loading clamp 240 then controls the loading conveyor line 110. The lithium batteries on the 10 are clamped and placed into the restraint trays in the restraint tray area 230 for stacking and arrangement. After the restraint trays are stacked neatly, they are transferred to the loading conveyor line 110 to continue to be conveyed backward through the first isolation door 300. The unloading clamping hand 250 transfers the restraint trays conveyed from the rear on the unloading conveyor line 120 and clamps and transfers the lithium batteries in the restraint trays to the injection trays in the injection tray area 220 to complete the unloading. Through the cooperation of the loading clamping hand 240 and the unloading clamping hand 250, the incoming lithium batteries on the logistics line 100 can be accurately and quickly placed into the restraint trays or transferred from the restraint trays to the injection trays for unloading.
[0039] In practical use, the first isolation door 300 is equipped with a dust blowing component. The dust blowing component is used to blow away the fine dust adsorbed on the restraint tray, so that it enters the clean room 1000 in a dust-free state. By blowing away and collecting the dust and grime attached to the restraint tray through the dust blowing component, the restraint tray entering the clean room 1000 has a good cleanliness, avoiding contamination of the lithium battery and affecting its use quality.
[0040] In this embodiment, the nail removal mechanism 500 and the nail insertion mechanism 600 are located on the same side of the logistics line 100. The nail removal mechanism 500 is used to remove the nails from the lithium battery placed inside the restraint tray that is conveyed from the front end via the feeding conveyor line 110, and to convey it to the negative pressure mold assembly and unassembly mechanism 400 at the rear, thereby completing the installation of the negative pressure module on the restraint tray, ensuring that the port of the lithium battery is not affected by contamination, and playing a good role in isolation and protection.
[0041] Specifically, the pinning mechanism 600 is used to pin lithium batteries placed in a restraint tray that is conveyed from the rear end via the unloading conveyor line 120, thereby conveying the lithium batteries to the outside in a sealed and protected state.
[0042] In this embodiment, the negative pressure module assembly and disassembly mechanism 400 is located on the other side of the logistics line 100, and the negative pressure module is installed / disassembled on the restraint tray above the logistics line 100 to complete the fixed assembly / disassembly separation.
[0043] Furthermore, the negative pressure module assembly and disassembly mechanism 400 includes a module conveyor line 410 for conveying negative pressure modules, a module robot 420, and a placement platform 430. The module robot 420 is located between the module conveyor line 410, the placement platform 430, and the material flow line 100 and rotates to pick up materials. The module robot 420 transfers the restraint tray on the material flow line 100 to the placement platform 430 and transfers the negative pressure modules on the module conveyor line 410 to the restraint tray, or disassembles the negative pressure modules on the restraint tray and places them on the module conveyor line 410. The module conveyor line 410 has a U-shaped structure, which allows the negative pressure modules that are disassembled and placed on the module conveyor line 410 to be conveyed forward in a cyclical manner, and also saves production space and improves the layout effect.
[0044] In this embodiment, the stacker crane 800 is located between the logistics line 100 and the hydrothermal high-temperature negative pressure formation equipment 900 and is situated on one side of the logistics line 100. The hydrothermal high-temperature negative pressure formation equipment 900 is located at the side end of the stacker crane 800. The stacker crane 800 is used to transfer restraint pallets on the logistics line 100 to the hydrothermal high-temperature negative pressure formation equipment 900, or to transfer restraint pallets from the hydrothermal high-temperature negative pressure formation equipment 900 to the logistics line 100 for unloading and conveying.
[0045] Specifically, the hydrothermal high-temperature negative pressure formation equipment 900 includes a housing 910 and a formation needle bed 920, a power supply component 930, a heat exchanger assembly 940, a water-cooling component 950, and a control panel 960 located within the housing 910. The formation needle bed 920 and the heat exchanger assembly 940 are located at one end of the housing 910, the power supply component 930 and the water-cooling component 950 are located at the other end of the housing 910, and the control panel 960 is located on the housing 910 for user operation.
[0046] Furthermore, the outer casing 910 is configured as a left chamber, a right chamber, and a control chamber, dividing the outer casing 910 into three chambers. Different components are combined and arranged in a reasonable layout so that they can be used together. The chemical formation needle bed 920 and the heat exchanger assembly 940 are located in the left chamber, with the heat exchanger assembly 940 positioned above the chemical formation needle bed 920, for heating the left chamber. The lower end face of the left chamber has an opening 970 facing the stacker 800. The stacker 800 places the restraint tray located on the loading conveyor line 110 into the opening 970 of the left chamber and processes the restraint tray through the chemical formation needle bed 920. The stacker 800 then transfers the processed restraint tray in the left chamber to the unloading conveyor line 120 for unloading.
[0047] Specifically, the power supply component 930 and the water-cooling component 950 are disposed in the right chamber. The power supply component 930 is electrically connected to the formation needle bed 920 and the control panel 960. The water-cooling component 950 is used to dissipate heat and cool the hot air in the right chamber.
[0048] The control panel 960 is installed on the side wall of the control room for easy operation by workers.
[0049] In practical use, the number of the hydrothermal high-temperature negative pressure formation equipment 900 is set to several units, and the several units of hydrothermal high-temperature negative pressure formation equipment 900 are arranged side by side on the side of the stacker crane 800 to realize a one-to-many working mode, improve work efficiency, and speed up the working progress of lithium batteries.
[0050] The above are merely preferred embodiments of the present utility model, and only specifically describe the technical principles of the present utility model. These descriptions are only for explaining the principles of the present utility model and should not be construed as limiting the scope of protection of the present utility model in any way. Based on this explanation, any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model, as well as other specific embodiments of the present utility model that can be conceived by those skilled in the art without creative effort, should be included within the scope of protection of the present utility model.
Claims
1. A battery high-temperature formation production system that requires no environmental control, comprising a logistics line for loading and unloading restrained pallets, characterized in that: The logistics line extends along a sequence of a restraint tray loading / unloading mechanism, a first isolation door, a negative pressure mold assembly / unloading mechanism, a nail removal mechanism, a nail insertion mechanism, a second isolation door, a stacker crane, and a hydrothermal high-temperature negative pressure formation device. A clean room is provided between the first and second isolation doors, housing the negative pressure mold assembly / unloading mechanism, the nail removal mechanism, and the nail insertion mechanism. The first isolation door is located at the outer end of the clean room and is used to clean dust from the restraint trays. The second isolation door is located at the inner end of the clean room and transports the restraint trays with negative pressure modules outward.
2. The battery high-temperature formation production system without environmental control as described in claim 1, characterized in that: The logistics line includes a loading conveyor line and a unloading conveyor line. The loading conveyor line and the unloading conveyor line are arranged in a double-layered manner, and they pass through the clean room through the conveyor restraint tray. The unloading mechanism of the restraint tray is located at the head end of the logistics line and is located on one side there. The restraint pallet loading and unloading mechanism includes a pallet storage area, an injection molding pallet area, a restraint pallet area, and loading and unloading clamps for clamping and transferring lithium batteries. The pallet storage area is located at one end of the logistics line, and the injection molding pallet area and the restraint pallet area are located at the other end of the logistics line. The loading clamp is located beside the restraint pallet area, and the unloading clamp is located beside the injection molding pallet area. Incoming lithium batteries are placed on the loading conveyor line and conveyed backward. The loading clamp clamps the lithium batteries on the loading conveyor line and places them into the restraint pallets in the restraint pallet area for stacking and tidying. After the restraint pallets are neatly stacked, they are transferred to the loading conveyor line to continue being conveyed backward through the first isolation door. The unloading clamp transfers the restraint pallets conveyed from the rear on the unloading conveyor line and clamps and transfers the lithium batteries in the restraint pallets into the injection molding pallets in the injection molding pallet area to complete the unloading.
3. The battery high-temperature formation production system without environmental control according to claim 2, characterized in that: The first isolation door is equipped with a dust blowing assembly, which is used to blow away the fine dust adsorbed on the restraint tray, so that it enters the clean room in a dust-free state.
4. The battery high-temperature formation production system without environmental control according to claim 3, characterized in that: The nail removal mechanism and the nail insertion mechanism are located on the same side of the logistics line. The nail removal mechanism is used to remove the nails from the lithium battery placed inside the restraint tray that is conveyed from the front end via the feeding conveyor line, and to convey it backward. The insertion mechanism is used to insert lithium batteries placed in a restraint tray that is conveyed from the rear end via the unloading conveyor line, thereby conveying the lithium batteries to the outside in a sealed and protected state.
5. The battery high-temperature formation production system without environmental control according to claim 4, characterized in that: The negative pressure module assembly and disassembly mechanism is located on the other side of the logistics line, and the negative pressure module is installed / disassembled on the restraint tray above the logistics line to complete the fixed assembly / disassembly separation of the two. The negative pressure module assembly and disassembly mechanism includes a module conveyor line for conveying negative pressure modules, a module robot, and a placement platform. The module robot is located between the module conveyor line, the placement platform, and the logistics line and rotates to pick up materials. The module robot transfers the restraint tray on the logistics line to the placement platform and transfers the negative pressure modules on the module conveyor line to the restraint tray, or disassembles the negative pressure modules on the restraint tray and places them on the module conveyor line.
6. The battery high-temperature formation production system without environmental control according to claim 5, characterized in that: The stacker crane is located between the logistics line and the hydrothermal high-temperature negative pressure formation equipment and is situated on one side of the logistics line. The hydrothermal high-temperature negative pressure formation equipment is located at the side end of the stacker crane. The stacker crane is used to transfer restraint pallets from the logistics line to the hydrothermal high-temperature negative pressure formation equipment, or to transfer restraint pallets from the hydrothermal high-temperature negative pressure formation equipment to the logistics line for unloading and conveying.
7. The battery high-temperature formation production system without environmental control according to claim 6, characterized in that: The hydrothermal high-temperature negative pressure formation equipment includes a shell and a formation needle bed, a power supply component, a heat exchanger assembly, a water-cooling component, and a control panel located inside the shell. The formation needle bed and the heat exchanger assembly are located at one end of the shell, the power supply component and the water-cooling component are located at the other end of the shell, and the control panel is located on the shell for user operation.
8. The battery high-temperature formation production system without environmental control according to claim 7, characterized in that: The outer casing is configured as a left chamber, a right chamber, and a control chamber. The chemical forming needle bed and heat exchanger assembly are located in the left chamber, with the heat exchanger assembly positioned above the chemical forming needle bed, for heating the left chamber. The lower end face of the left chamber has an opening facing the stacker crane. The stacker crane inserts the restraint tray located on the loading conveyor line into the opening of the left chamber and processes the restraint tray through the chemical forming needle bed. The stacker crane then transfers the processed restraint tray located in the left chamber to the unloading conveyor line for unloading.
9. The high-temperature battery formation production system without environmental control according to claim 8, characterized in that: The power supply component and the water cooling component are located in the right chamber. The power supply component is electrically connected to the chemical needle bed and the control panel. The water cooling component is used to dissipate heat and cool the hot air in the right chamber. The control panel is located on the side wall of the control room for easy operation by workers.
10. The battery high-temperature formation production system without environmental control according to claim 9, characterized in that: The number of the hydrothermal high-temperature negative pressure formation equipment is set to several units, and the several units of hydrothermal high-temperature negative pressure formation equipment are arranged side by side on the side of the stacker crane.