Lithium battery drying equipment based on additive manufacturing

Abstract

The invention belongs to the technical field of drying equipment, and particularly relates to lithium battery drying equipment based on additive manufacturing, which comprises a drying box, a sealing door is connected to the drying box through a hinge, a heating assembly is arranged in the drying box, a controller is arranged on the side surface of the drying box, and a driving motor is fixedly mounted at the bottom of the drying box. A supporting rod is fixedly installed on an inner ring of the bearing, an annular frame is fixedly installed on the supporting rod, a filter screen is arranged on the annular frame in a bandage mode, and placing grooves are formed in the annular frame in an array penetrating mode. According to the lithium battery drying equipment based on additive manufacturing, the drying efficiency of a lithium battery material is conveniently improved through the arranged heating plate, a conveying pipe is matched with a rotating connector, hot air can flow into the interior of a connector, then wind power flows into a flowing pipe to flow, the heating plate is heated, and the drying efficiency of the lithium battery material is improved. And therefore, the lithium battery raw materials are dried, the lithium battery materials can be uniformly heated and dried, and the drying efficiency of the lithium battery materials is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of drying equipment, and specifically relates to a lithium battery drying equipment based on additive manufacturing. Background Art

[0002] Lithium battery drying equipment based on additive manufacturing is mainly used in the drying process of lithium battery production. By optimizing the equipment design through additive manufacturing technology, this equipment can provide more efficient and uniform drying effects, and can improve adaptability and performance through customized design. Additive manufacturing technology can design more complex and optimized drying channels to ensure uniform distribution of airflow and heat, thereby achieving uniform drying of battery materials and avoiding moisture residue. Using additive manufacturing, the equipment structure can be customized according to specific production needs and material properties to improve drying efficiency and quality. Lithium battery drying equipment based on additive manufacturing can not only improve the drying effect, but also help to achieve higher production efficiency and material quality.

[0003] A Chinese patent with the announcement number CN117387325A discloses a lithium battery material drying device, including a drying box, a placement rack, a fan and a heater; the placement rack and the heater are both arranged in the drying box; the drying box is equipped with a first air duct and a first threading tube; the fan is installed on the top of the drying box. The lithium battery material drying device disclosed in the present invention heats the box body by the heater to increase the temperature of the drying box, and the fan is used to provide wind pressure to the drying box so that the inside of the drying box is kept in a positive pressure state. When the wet material is heated, the volatilized moisture is discharged to the outside through the first air duct. Since the drying box is in a sealed state, the heat radiated by the heater can be evenly diffused into the inside of the drying box through the fan, so that the wet material in the box can be heated in all directions to prevent uneven drying.

[0004] However, the current lithium battery drying equipment based on additive manufacturing still has certain limitations when drying lithium battery materials. It is not ideal in ensuring that the lithium battery materials are heated evenly, resulting in uneven heat distribution during the drying process. This uneven heating will affect the drying efficiency, thereby extending the time required for drying and may lead to a decrease in material performance.

[0005] To this end, the present invention provides a lithium battery drying device based on additive manufacturing. Summary of the invention

[0006] In order to make up for the shortcomings of the prior art and solve the problem that it is inconvenient to quickly dry lithium battery materials, the present invention proposes a lithium battery drying device based on additive manufacturing.

[0007] The technical solution adopted by the present invention to solve its technical problems is as follows: A lithium battery drying device based on additive manufacturing according to the present invention includes a drying box, on which a sealing door is connected by a hinge. A heating component is arranged inside the drying box, and a controller is arranged on the side of the drying box. A driving motor is fixedly installed at the bottom of the drying box. A bearing is fixedly arranged inside the drying box, and a support rod is fixedly installed on the inner ring of the bearing. A ring-shaped frame is fixedly installed on the support rod. A filter screen is arranged on the ring-shaped frame in a bandage manner. A placement groove is arrayed and penetrated inside the ring-shaped frame, and a handle is fixedly installed on the placement groove. A drying component for drying lithium battery raw materials is fixedly installed at the bottom of the ring-shaped frame. A driving gear is fixedly installed on the support rod. A frame is fixedly installed at the top of the drying box, and filter boxes are symmetrically arranged inside the frame. A filtering component for filtering impurities is arranged inside the filter box, an air extraction component for exhausting air is arranged inside the filter box, and a driven component is arranged inside the filter box.

[0008] By adopting the above technical solution, pull the placement groove to move through the handle. After moving the placement groove out of the ring-shaped frame, place the lithium battery raw materials to be dried inside the placement groove, and then reset the placement groove. After placing the lithium battery raw materials, close the sealing door to form a closed space inside the drying box. Then the heating component works to generate heat, and thus the lithium battery raw materials inside the placement groove can be heated and dried. At the same time, when the driving motor works, it will drive the support rod to rotate. Through the bearing, the support rod can rotate smoothly. When the support rod rotates, it will drive the ring-shaped frame to rotate. When the ring-shaped frame rotates, it will drive the lithium battery raw materials to rotate, and thus the purpose of uniformly heating and drying the lithium battery raw materials can be achieved. When the support rod rotates, it will drive the driving gear to rotate. Through the cooperation of the driven component, the air extraction component will move, and thus the air inside the filter box will flow. Through the air extraction head, the air inside the drying box will be extracted. Then the air flow will flow through the filtering component, and the floating substances carried by the air can be filtered and intercepted through the filtering component, and thus the purpose of filtering and purifying the air can be achieved.

[0009] Further, the heating component includes a square groove and a heating rod. The square grooves are arrayed inside the drying box, and the heating rods are fixedly installed inside the corresponding square grooves. Both the heating rods and the driving motor are electrically connected to the controller. A guiding component for guiding is arranged inside the drying box.

[0010] By adopting the above technical solution, controlling the heating rods to work will generate heat, and thus the temperature inside the drying box will be heated, and thus the lithium battery materials can be heated. Through the controller, the driving motor can be controlled to work. When the driving motor works, it will drive the support rod to rotate. When the support rod rotates, it will drive the ring-shaped frame to rotate, and thus the lithium battery raw materials can be driven to rotate for drying.

[0011] Furthermore, the guiding component includes an annular groove and a rotating ring. The annular groove is arranged inside the drying box, and the rotating ring is rotatably arranged inside the annular groove, and the top of the rotating ring is fixedly connected to the annular frame.

[0012] By adopting the above technical solution, the rotation of the annular frame will drive the lithium battery raw materials to be rotationally heated. By performing rotational heating on the lithium battery raw materials, the problem of uneven heating can be effectively avoided, ensuring uniform heating of the lithium battery raw materials.

[0013] Furthermore, a delivery pipe is provided inside the support rod. The drying component includes a heating plate, a connection head, a flow pipe, a discharge head, and an interception net. The heating plate is fixedly installed at the bottom of the annular frame. The connection heads are arranged in an annular array inside the heating plate and are communicated with the delivery pipe. The flow pipe is coiled inside the heating plate, and one end of the flow pipe is connected to the connection head. The discharge head is connected to the corresponding flow pipe, and the interception net is arranged inside the discharge head.

[0014] By adopting the above technical solution, the support rod provides an installation space for the delivery pipe. After hot air flows into the delivery pipe, the hot air will flow into the flow pipe through the connection head. When the hot air flows inside the flow pipe, it will heat the heating plate, and then the heating plate can uniformly heat the lithium battery raw materials inside the annular frame, improving the drying efficiency of the lithium battery raw materials. The hot air will flow back into the drying box through the discharge head, thereby achieving the purpose of drying the lithium battery raw materials by circulating the hot air.

[0015] Furthermore, the filtering component includes a mounting frame and a filter plate. The mounting frame is arranged inside the filtering box, and the filter plate is fixedly arranged inside the mounting frame. The bottom of the filtering box is fixedly connected with an air extraction head, and one end of the air extraction head extends into the drying box.

[0016] By adopting the above technical solution, after the air flows into the filtering box through the air extraction head, the air flows through the filter plate, and the filter plate can filter and intercept the particulate matter carried by the air, thereby achieving the purpose of purifying the air.

[0017] Furthermore, the air extraction component includes a conical groove, a connection groove, a bracket, and an air extraction mechanism. The conical groove is arranged inside the filtering box, the connection groove is fixedly connected to the conical groove, the bracket is fixedly installed inside the connection groove, and the air extraction mechanism is arranged on the bracket.

[0018] By adopting the above technical solution, the movement of the air extraction mechanism will extract the air inside the filtering box, thereby causing the air to flow. After the air flows through the filter plate, the filtered air will flow into the conical groove, and the air will flow into the delivery pipe through the connection groove.

[0019] Further, the air extraction mechanism includes a rotating shaft and a fan blade. The rotating shaft is rotatably arranged inside the bracket, and the fan blade is fixedly connected to one end of the rotating shaft.

[0020] By adopting the above technical solution, the rotation of the rotating shaft will drive the rotation of the fan blade, and the rotation of the fan blade will extract the air inside the connecting groove, thereby causing the air inside the filter box to flow.

[0021] Further, the driven assembly includes a pulley, a support frame, a support shaft, a driven wheel and a driving wheel. The pulley is fixedly installed at one end of the rotating shaft, and the pulleys are connected by a belt. The support frame is fixedly arranged inside the filter box. The support shaft is rotatably arranged inside the support frame. The driven wheel is arranged inside the support frame, and the center position of the driven wheel is fixedly connected to the support shaft. The driven wheel meshes with the driving gear. The driving wheel is arranged on the support shaft, and the driving wheel is connected to one of the pulleys by a belt. A discharge pipe is arranged on the connecting groove.

[0022] By adopting the above technical solution, the rotation of the support rod will drive the rotation of the driving gear, the rotation of the driving gear will drive the rotation of the driven wheel, the rotation of the driven wheel will drive the rotation of the support shaft, and the rotation of the support shaft will drive the rotation of the rotating shaft through the cooperation of the driving wheel and the pulley. The rotation of the rotating shaft will drive the rotation of the fan blade, thereby causing the air to flow.

[0023] Further, the frame is provided with a limiting hole, and the top end of the support rod extends into the limiting hole. A rotary joint is arranged inside the frame, and the rotary joint communicates with the limiting hole. The discharge pipe is communicated with the rotary joint, and one end of the conveying pipe extends into the rotary joint.

[0024] By adopting the above technical solution, when the fan blade rotates, it will cause the air to flow. After the air flows into the discharge pipe, the wind force will flow into the rotary joint through the discharge pipe. The cooperation of the conveying pipe and the rotary joint will cause the hot air to flow into the joint, and then the wind force will flow into the flow pipe to flow, heating the heating plate.

[0025] Further, a discharge pipe is arranged on the drying box, and a sealing cover is threadedly connected to one end of the discharge pipe.

[0026] By adopting the above technical solution, rotating the sealing cover no longer seals the discharge pipe, and thus the air inside the drying box will flow to the outside through the discharge pipe.

[0027] The beneficial effects of the present invention are as follows: 1. An additive manufacturing-based lithium battery drying device according to the present invention facilitates improving the drying efficiency of lithium battery materials through the provided heating plate. Through the exhaust pipe, wind flows into the rotary joint. The delivery pipe cooperates with the rotary joint, causing hot air to flow into the connector, and then causing the wind to flow into the flow pipe for heating the heating plate, thereby realizing the drying treatment of lithium battery raw materials. The lithium battery materials can be evenly heated and dried, thus improving the drying efficiency of the additive manufacturing-based lithium battery drying device for lithium battery materials; 2. An additive manufacturing-based lithium battery drying device according to the present invention facilitates filtering and intercepting the floating substances generated by the drying materials through the provided filter plate, avoiding the impact of the floating substances on the surrounding environment. When the support rod rotates, it drives the driving gear to rotate. The rotation of the driving gear drives the driven wheel to rotate. The rotation of the driven wheel drives the support shaft to rotate. The rotation of the support shaft drives the rotating shaft to rotate through the cooperation of the driving wheel and the belt pulley. The rotation of the rotating shaft drives the fan blades to rotate, thereby causing air to flow. After the air flows into the filter box through the air extraction head, the air flows through the filter plate, and the filter plate can filter and intercept the particulate matter carried by the air, thereby achieving the purpose of purifying the air and avoiding the impact on the surrounding environment; 3. An additive manufacturing-based lithium battery drying device according to the present invention facilitates evenly heating the lithium battery materials through the provided support rod and annular frame. After placing the lithium battery raw materials to be dried in the placement groove and resetting the placement groove, controlling the heating rod to work generates heat, which can heat the lithium battery materials. Through the controller, the driving motor can be controlled to work. The driving motor drives the support rod to rotate. When the support rod rotates, it drives the annular frame to rotate, thereby driving the lithium battery raw materials to rotate for drying treatment. When the annular frame rotates, it drives the lithium battery raw materials to rotate, thereby achieving the purpose of evenly heating and drying the lithium battery raw materials. Description of the Drawings

[0028] The present invention will be further described below with reference to the drawings.

[0029] Figure 1 is a perspective view of the additive manufacturing-based lithium battery drying device of the present invention.

[0030] Figure 2 is a structural schematic diagram of the drying box in the present invention.

[0031] Figure 3 is a structural schematic diagram of the annular frame in the present invention.

[0032] Figure 4 is a structural schematic diagram of the heating plate in the present invention.

[0033] Figure 5 is a structural schematic diagram of the connector in the present invention.

[0034] Figure 6 It is a schematic structural diagram of the frame in the present invention.

[0035] Figure 7 It is a schematic structural diagram of the filter box in the present invention.

[0036] Figure 8 It is a schematic structural diagram of the rotating shaft in the present invention.

[0037] In the figure: 1. drying box; 2. sealing door; 3. square groove; 4. heating rod; 5. driving motor; 6. annular groove; 7. rotating ring; 8. bearing; 9. support rod; 10. annular frame; 11. placing groove; 12. handle; 13. filter screen; 14. conveying pipe; 15. heating plate; 16. connector; 17. flow pipe; 18. discharge head; 19. intercepting net; 20. driving gear; 21. frame; 22. filter box; 23. air extraction head; 24. mounting rack; 25. filter plate; 26. conical groove; 27. connecting groove; 28. bracket; 29. rotating shaft; 30. fan blade; 31. pulley; 32. discharge pipe; 33. limiting hole; 34. rotary joint; 35. support frame; 36. support shaft; 37. driven wheel; 38. driving wheel; 39. controller; 40. discharge pipe; 41. sealing cover. Specific embodiments

[0038] In order to make the technical means, creative features, achieved purposes and functions of the present invention easy to understand, the present invention will be further described below in conjunction with specific embodiments.

[0039] Such as Figures 1 to 8As shown in the figure, an additive manufacturing-based lithium battery drying device according to an embodiment of the present invention includes a drying box 1, a sealing door 2 is hinged to the drying box 1, a heating component is arranged inside the drying box 1, a controller 39 is arranged on the side of the drying box 1, a driving motor 5 is fixedly installed at the bottom of the drying box 1, a bearing 8 is fixedly arranged inside the drying box 1, a support rod 9 is fixedly installed on the inner ring of the bearing 8, a circular ring frame 10 is fixedly installed on the support rod 9, a filter screen 13 is arranged on the circular ring frame 10 in a bandage manner, a placement groove 11 is arrayed and penetrated inside the circular ring frame 10, a handle 12 is fixedly installed on the placement groove 11, a drying component for drying lithium battery raw materials is fixedly installed at the bottom of the circular ring frame 10, a driving gear 20 is fixedly installed on the support rod 9, a frame 21 is fixedly installed at the top of the drying box 1, a filter box 22 is symmetrically arranged inside the frame 21, a filtering component for filtering impurities is arranged inside the filter box 22, an air extraction component for exhausting air is arranged inside the filter box 22, and a driven component is arranged inside the filter box 22. The components of the drying device are manufactured by 3D printing and then assembled into the drying box 1. A sensor is arranged inside the drying box 1 to monitor the temperature inside the drying box 1. When drying the raw materials for preparing lithium batteries, the placement groove 11 is pulled to move by the handle 12. After moving the placement groove 11 out of the circular ring frame 10, the lithium battery raw materials to be dried are placed inside the placement groove 11, and then the placement groove 11 is reset. After placing the lithium battery raw materials, the sealing door 2 is closed to form a closed space inside the drying box 1. Then the heating component works to generate heat, and thus the lithium battery raw materials inside the placement groove 11 can be heated and dried. At the same time, when the driving motor 5 works, it will drive the support rod 9 to rotate. The support rod 9 will rotate smoothly through the bearing 8. When the support rod 9 rotates, it will drive the circular ring frame 10 to rotate. When the circular ring frame 10 rotates, it will drive the lithium battery raw materials to rotate, and thus the purpose of uniformly heating and drying the lithium battery raw materials can be achieved. When the support rod 9 rotates, it will drive the driving gear 20 to rotate. The air extraction component will move through the cooperation of the driven component, and thus the air inside the filter box 22 will flow. The air inside the drying box 1 will be extracted through the air extraction head 23. Thus, the air flow will flow through the filtering component. The floating substances carried by the air can be filtered and intercepted through the filtering component, and thus the purpose of filtering and purifying the air can be achieved. The filtered air flows into the drying component through the exhaust pipe 32, and thus the lithium battery materials can be uniformly heated and dried through the drying component, and thus the drying efficiency of the lithium battery materials is improved; The additive manufacturing-based lithium battery drying equipment is an innovative device that combines advanced manufacturing technology with battery manufacturing processes. It aims to improve drying efficiency, reduce costs, enable personalized customization, and optimize the equipment structure to meet the complex drying requirements of lithium battery materials. It can customize the drying chamber and structure according to different lithium battery materials and production line requirements. Additive manufacturing can achieve internal channels and complex geometric structures that are difficult to produce by traditional processes, which helps to optimize the hot air flow and drying effect, shorten the development cycle, and facilitate the adjustment of design parameters. It is made of high-temperature and chemical corrosion-resistant metals or high-performance composite materials. By combining additive manufacturing with traditional machining, a drying equipment with stable performance and complex structure can be obtained. Moreover, it integrates sensors and an automatic control system to achieve precise regulation of temperature and humidity, improve the drying efficiency and consistency in lithium battery production, and reduce manufacturing costs and equipment maintenance difficulties; When drying the raw materials of lithium batteries, due to the high environmental requirements for lithium battery drying, mainly to ensure drying effect and safety, since lithium ion materials are extremely sensitive to moisture, the environmental humidity needs to be controlled at a very low level (usually the relative air humidity < 10%). Dry air is used for drying to prevent moisture adsorption. The temperature is generally controlled between 60°C and 120°C, but specifically depends on the battery materials and process requirements. Ensure uniform temperature, avoid local overheating or cooling, and avoid dust, oil fume, and particulate pollution to prevent affecting battery performance. Usually, it is operated in a clean room or an environment equipped with a filtration system; When drying the raw materials of lithium batteries and it is necessary to carry out drying treatment in a vacuum environment, a vacuum pumping component is provided at the bottom of the drying box 1. The vacuum pumping component is connected to the inside of the drying box 1, and the inside of the drying box 1 can be evacuated, facilitating the decision of whether to carry out vacuum pumping treatment according to actual needs.

[0040] Furthermore, the heating component includes a square groove 3 and a heating rod 4. The square grooves 3 are arranged in an array inside the drying box 1, and the heating rods 4 are fixedly installed inside the corresponding square grooves 3. Both the heating rods 4 and the drive motor 5 are electrically connected to the controller 39. A guiding component for guiding is arranged inside the drying box 1. The controller 39 can control the operation of the heating rods 4 and the drive motor 5. Controlling the operation of the heating rods 4 will generate heat, which will then heat the temperature inside the drying box 1, and thus can heat the lithium battery materials. By controlling the operation of the drive motor 5 through the controller 39, the drive motor 5 will drive the support rod 9 to rotate. When the support rod 9 rotates, it will drive the annular frame 10 to rotate, and thus can drive the lithium battery raw materials to rotate for drying treatment.

[0041] Furthermore, the guiding component includes an annular groove 6 and a rotating ring 7. The annular groove 6 is arranged inside the drying box 1, and the rotating ring 7 is rotatably arranged inside the annular groove 6. The top of the rotating ring 7 is fixedly connected to the annular frame 10. When the support rod 9 rotates, it drives the annular frame 10 to rotate, and the rotation of the annular frame 10 drives the lithium battery raw materials to be rotationally heated. By performing rotational heating on the lithium battery raw materials, the problem of uneven heating can be effectively avoided, ensuring uniform heating of the lithium battery raw materials and improving the drying efficiency.

[0042] Furthermore, a conveying pipe 14 is arranged inside the support rod 9. The drying component includes a heating plate 15, a connector 16, a flow pipe 17, a discharge head 18, and an intercepting net 19. The heating plate 15 is fixedly installed at the bottom of the annular frame 10. The connectors 16 are arranged in an annular array inside the heating plate 15, and the connectors 16 are communicated with the conveying pipe 14. The flow pipe 17 is coiled inside the heating plate 15, and one end of the flow pipe 17 is connected to the connector 16. The discharge head 18 is connected to the corresponding flow pipe 17. The intercepting net 19 is arranged inside the discharge head 18. The support rod 9 provides an installation space for the conveying pipe 14. After the hot air flows into the conveying pipe 14, the hot air will flow into the flow pipe 17 through the connector 16. When the hot air flows inside the flow pipe 17, it will heat the heating plate 15, and then the heating plate 15 can uniformly heat the lithium battery raw materials inside the annular frame 10, improving the drying efficiency of the lithium battery raw materials. The hot air will flow back into the drying box 1 through the discharge head 18, thereby realizing the purpose of drying the lithium battery raw materials by circulating the hot air and improving the working efficiency.

[0043] Furthermore, the filtering component includes a mounting frame 24 and a filter plate 25. The mounting frame 24 is arranged inside the filtering box 22, and the filter plate 25 is fixedly arranged inside the mounting frame 24. The bottom of the filtering box 22 is fixedly connected with an air extraction head 23, and one end of the air extraction head 23 extends into the drying box 1. After the air flows into the filtering box 22 through the air extraction head 23, the air flows through the filter plate 25, and the filter plate 25 can filter and intercept the particulate matter carried by the air, thereby realizing the purpose of purifying the air.

[0044] Furthermore, the air extraction component includes a conical groove 26, a connecting groove 27, a bracket 28, and an air extraction mechanism. The conical groove 26 is arranged inside the filtering box 22, the connecting groove 27 is fixedly connected to the conical groove 26, the bracket 28 is fixedly installed inside the connecting groove 27, and the air extraction mechanism is arranged on the bracket 28. The movement of the air extraction mechanism will extract the air inside the filtering box 22, thereby causing the air to flow. After the air flows through the filter plate 25, the filtered air will flow into the conical groove 26, and the air will flow into the delivery pipe 32 through the connecting groove 27. The delivery pipe 32 will guide the hot air.

[0045] Further, the air extraction mechanism includes a rotating shaft 29 and a fan blade 30. The rotating shaft 29 is rotatably arranged inside the bracket 28. The fan blade 30 is fixedly connected to one end of the rotating shaft 29. When the driven assembly works, it will drive the rotating shaft 29 to rotate. When the rotating shaft 29 rotates, it will drive the fan blade 30 to rotate. When the fan blade 30 rotates, it will extract the air inside the connecting groove 27, and then the air inside the filter box 22 will flow.

[0046] Further, the driven assembly includes a pulley 31, a support frame 35, a support shaft 36, a driven wheel 37 and a driving wheel 38. The pulley 31 is fixedly installed at one end of the rotating shaft 29, and the pulleys 31 are connected by a belt. The support frame 35 is fixedly arranged inside the filter box 22. The support shaft 36 is rotatably arranged inside the support frame 35. The driven wheel 37 is arranged inside the support frame 35, and the center position of the driven wheel 37 is fixedly connected to the support shaft 36. The driven wheel 37 meshes with the driving gear 20. The driving wheel 38 is arranged on the support shaft 36, and the driving wheel 38 is connected to one of the pulleys 31 by a belt. A discharge pipe 32 is arranged on the connecting groove 27. When the support rod 9 rotates, it will drive the driving gear 20 to rotate. When the driving gear 20 rotates, it will drive the driven wheel 37 to rotate. When the driven wheel 37 rotates, it will drive the support shaft 36 to rotate. When the support shaft 36 rotates, it will drive the rotating shaft 29 to rotate through the cooperation of the driving wheel 38 and the pulley 31. When the rotating shaft 29 rotates, it will drive the fan blade 30 to rotate, and then the air will flow.

[0047] Further, the frame 21 is provided with a limiting hole 33, and the top end of the support rod 9 extends into the limiting hole 33. A rotary joint 34 is arranged inside the frame 21, and the rotary joint 34 communicates with the limiting hole 33. The discharge pipe 32 is connected to the rotary joint 34. One end of the conveying pipe 14 extends into the rotary joint 34. When the support rod 9 rotates, it will drive the conveying pipe 14 to rotate. When the fan blade 30 rotates, the air will flow. After the air flows into the discharge pipe 32, the wind power will flow into the rotary joint 34 through the discharge pipe 32. The cooperation of the conveying pipe 14 and the rotary joint 34 will make the hot air flow into the connecting head 16, and then the wind power will flow into the flow pipe 17 to flow, heating the heating plate 15, and then realizing the drying treatment of the lithium battery raw materials.

[0048] Further, a discharge pipe 40 is arranged on the drying box 1. One end of the discharge pipe 40 is threadedly connected with a sealing cover 41. When the pressure inside the drying box 1 is abnormal, rotate the sealing cover 41 to no longer seal the discharge pipe 40. Then the air inside the drying box 1 will flow to the outside through the discharge pipe 40.

[0049] Working principle: First, the components of the drying equipment are manufactured by 3D printing and then assembled into the drying box 1. A sensor is arranged inside the drying box 1 to monitor the temperature inside the drying box 1. When drying the raw materials for preparing lithium batteries, the placement groove 11 is moved by pulling the handle 12. After moving the placement groove 11 out of the annular frame 10, the lithium battery raw materials to be dried are placed inside the placement groove 11, and then the placement groove 11 is reset. After placing the lithium battery raw materials, the sealing door 2 is closed to form a sealed space inside the drying box 1. Controlling the heating rod 4 to work generates heat, which then heats the temperature inside the drying box 1, and thus the lithium battery materials can be heated. The controller 39 can control the driving motor 5 to work. When the driving motor 5 works, it drives the support rod 9 to rotate. When the support rod 9 rotates, it drives the annular frame 10 to rotate, and thus the lithium battery raw materials can be driven to rotate for drying. When the annular frame 10 rotates, it drives the lithium battery raw materials to rotate, so as to uniformly heat and dry the lithium battery raw materials. When the support rod 9 rotates, it drives the driving gear 20 to rotate. When the driving gear 20 rotates, it drives the driven wheel 37 to rotate. When the driven wheel 37 rotates, it drives the support shaft 36 to rotate. The rotation of the support shaft 36 drives the rotating shaft 29 to rotate through the cooperation of the driving wheel 38 and the pulley 31. When the rotating shaft 29 rotates, it drives the fan blade 30 to rotate, which then causes the air to flow. After the air flows into the filter box 22 through the air extraction head 23, the air flows through the filter plate 25. The filter plate 25 can filter and intercept the particulate matter carried by the air, thus achieving the purpose of purifying the air. The wind force flows into the rotary joint 34 through the exhaust pipe 32. The delivery pipe 14 cooperates with the rotary joint 34 to make the hot air flow into the connector 16, and then the wind force flows into the flow pipe 17 for flowing, heating the heating plate 15, and thus achieving the purpose of drying the lithium battery raw materials, enabling the lithium battery materials to be uniformly heated and dried, and thus improving the drying efficiency of the lithium battery materials.

[0050] The foregoing has shown and described the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and the descriptions in the specification only illustrate the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A lithium battery drying device based on additive manufacturing, characterized in that: It includes a drying oven (1) with a sealing door (2) hinged thereto. Inside the drying oven (1), there is a heating component. On the side of the drying oven (1), there is a controller (39). At the bottom of the drying oven (1), a driving motor (5) is fixedly installed. Inside the drying oven (1), a bearing (8) is fixedly arranged. Inside the inner ring of the bearing (8), a support rod (9) is fixedly installed. On the support rod (9), an annular frame (10) is fixedly installed. A filter screen (13) is arranged on the annular frame (10) by means of a bandage. Inside the annular frame (10), placing grooves (11) are arrayed and penetrated. On the placing grooves (11), handles (12) are fixedly installed. At the bottom of the annular frame (10), a drying component for drying lithium battery raw materials is fixedly installed. On the support rod (9), a driving gear (20) is fixedly installed. At the top of the drying oven (1), a frame (21) is fixedly installed. Inside the frame (21), filter boxes (22) are symmetrically arranged. Inside the filter boxes (22), a filtering component for filtering impurities is arranged. Inside the filter boxes (22), an air extraction component for exhausting air is arranged. Inside the filter boxes (22), a driven component is arranged.

2. The lithium battery drying device based on additive manufacturing according to claim 1, wherein: The heating component includes a square groove (3) and heating rods (4). The square grooves (3) are arrayed inside the drying oven (1). The heating rods (4) are fixedly installed inside the corresponding square grooves (3). Both the heating rods (4) and the driving motor (5) are electrically connected to the controller (39). Inside the drying oven (1), a guiding component for guiding is arranged.

3. The lithium battery drying device based on additive manufacturing according to claim 2, wherein: The guiding component includes an annular groove (6) and a rotating ring (7). The annular groove (6) is arranged inside the drying oven (1). The rotating ring (7) is rotatably arranged inside the annular groove (6), and the top of the rotating ring (7) is fixedly connected to the annular frame (10).

4. The lithium battery drying equipment based on additive manufacturing according to claim 3, wherein: Inside the support rod (9), a delivery pipe (14) is penetrated. The drying component includes a heating plate (15), a connecting head (16), a flow pipe (17), a discharge head (18), and an intercepting net (19). The heating plate (15) is fixedly installed at the bottom of the annular frame (10). The connecting heads (16) are arranged in an annular array inside the heating plate (15), and the connecting heads (16) are communicated with the delivery pipe (14). The flow pipe (17) is coiled inside the heating plate (15), and one end of the flow pipe (17) is connected to the connecting head (16). The discharge head (18) is connected to the corresponding flow pipe (17). The intercepting net (19) is arranged inside the discharge head (18).

5. The lithium battery drying equipment based on additive manufacturing according to claim 1, characterized in that: The filtering component includes a mounting frame (24) and a filter plate (25). The mounting frame (24) is arranged inside the filter box (22). The filter plate (25) is fixedly arranged inside the mounting frame (24). At the bottom of the filter box (22), an air extraction head (23) is fixedly connected, and one end of the air extraction head (23) extends into the drying oven (1).

6. The lithium battery drying device based on additive manufacturing according to claim 5, wherein: The exhaust component includes a conical groove (26), a connecting groove (27), a bracket (28) and an exhaust mechanism. The conical groove (26) is arranged inside the filter box (22). The connecting groove (27) is fixedly connected to the conical groove (26). The bracket (28) is fixedly installed inside the connecting groove (27). The exhaust mechanism is arranged on the bracket (28).

7. The lithium battery drying device based on additive manufacturing according to claim 6, wherein: The exhaust mechanism includes a rotating shaft (29) and a fan blade (30). The rotating shaft (29) is rotatably arranged inside the bracket (28). The fan blade (30) is fixedly connected to one end of the rotating shaft (29).

8. An additive manufacturing-based lithium battery drying device according to claim 1, characterized in that: The driven component includes a pulley (31), a support frame (35), a support shaft (36), a driven wheel (37) and a driving wheel (38). The pulley (31) is fixedly installed at one end of the rotating shaft (29), and the pulleys (31) are connected by a belt in a transmission manner. The support frame (35) is fixedly arranged inside the filter box (22). The support shaft (36) is rotatably arranged inside the support frame (35). The driven wheel (37) is arranged inside the support frame (35), and the central position of the driven wheel (37) is fixedly connected to the support shaft (36). The driven wheel (37) is engaged with the driving gear (20). The driving wheel (38) is arranged on the support shaft (36), and the driving wheel (38) is connected by a belt in a transmission manner to one of the pulleys (31). A discharge pipe (32) is arranged on the connecting groove (27).

9. The lithium battery drying equipment based on additive manufacturing according to claim 8, wherein: The frame (21) is provided with a limit hole (33), and the top end of the support rod (9) extends into the limit hole (33). A rotary joint (34) is arranged inside the frame (21), and the rotary joint (34) is communicated with the limit hole (33). The discharge pipe (32) is communicated with the rotary joint (34). One end of the conveying pipe (14) extends into the rotary joint (34).

10. The lithium battery drying device based on additive manufacturing according to claim 9, characterized in that: A discharge pipe (40) is arranged on the drying box (1), and a sealing cover (41) is threadedly connected to one end of the discharge pipe (40).

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