Homogenizing device for manufacturing new energy battery

Abstract

The invention belongs to the technical field of battery manufacturing, and discloses a new energy battery manufacturing homogenizing device which comprises a homogenizing chamber and a homogenizing material filled in the homogenizing chamber. Through cooperation of structures such as the homogenizing assembly and the pushing and guiding assembly, the motor drives the homogenizing plate to move towards one side through the pushing and guiding assembly, and a material reaches the other side of the homogenizing plate from a gap between the second sealing plate and the homogenizing plate and impacts the inner wall of the independent cavity, so that the material is homogenized; a gap between a homogenizing plate and a second sealing plate is closed, pressure generated by extrusion acts on extrusion blocks to enable the extrusion blocks to move and expose a guide groove, and after being extruded, materials are sprayed to one side of the homogenizing plate through the guide groove; the number of sprayed liquid columns can be increased, the liquid columns can collide with one another, and the mixing efficiency of all materials is further improved.

Description

Technical Field

[0001] The invention belongs to the technical field of battery manufacturing, and in particular is a homogenizing device for manufacturing new energy batteries. Background Art

[0002] New energy batteries refer to high-performance batteries used in emerging fields such as new energy vehicles and energy storage systems, mainly including lithium-ion batteries, solid-state batteries, sodium-ion batteries, etc. The core parts of this type of battery usually include positive electrode materials, negative electrode materials, electrolytes, separators, and current collectors. It should be noted that the positive and negative electrode materials in the battery also need to be homogenized to ensure the consistency of electrochemical performance and improve the battery energy density at the same time; In the prior art, a twin-screw extruder is generally used for homogenization. However, the shear heat and mechanical force generated by the extruder may destroy the structure of the active material or cut off the conductive agent. The friction heat generated by the friction of the twin screws may also cause the local temperature of the existing equipment to exceed the process standard. A single screw cannot completely homogenize the material. Undispersed conductive agent clusters are prone to remain in the screw meshing area, thereby reducing production efficiency. For this reason, we provide a homogenization device for new energy battery manufacturing. Summary of the invention

[0003] In order to solve the problems raised in the above-mentioned background technology, the present invention provides a homogenizing device for manufacturing new energy batteries, which solves the problems that shear heat and mechanical force will destroy the structure of active materials or cut off the conductive agent, friction heat will also cause the local temperature of existing equipment to exceed the process standard, and undispersed conductive agent clusters are easily left in the screw meshing area.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: A homogenizing device for manufacturing new energy batteries, comprising a homogenizing chamber and a homogenizing material filled in the homogenizing chamber, and further comprising; A motor is installed on the top of the homogenization chamber, wherein the output shaft of the motor is connected to two stirrers through a main shaft transmission, and the inclination angles of the blades on the two stirrers are opposite; An independent chamber disposed inside the homogenization chamber; A homogenizing assembly and a lifting assembly installed in separate chambers; The homogenizing assembly includes a homogenizing plate that slides horizontally inside an independent chamber, a cover plate that moves vertically inside the independent chamber is movably connected to the top of the homogenizing plate, a plurality of extrusion blocks are movably connected to the homogenizing plate, a plurality of guide grooves are provided on the extrusion blocks at equal annular angles, and a sealing plate 2 that moves and penetrates the homogenizing plate is elastically connected to the lifting assembly through a spring sheet 2; An extraction assembly connected to the side of the independent chamber; A derivation assembly is arranged on the homogenization chamber, and the motor drives the homogenization plate to swing back and forth in the horizontal direction through the derivation assembly and drives the extraction assembly to extract the material inside the homogenization chamber at the same time; The motor drives the homogenizer plate to reciprocate in a vertical direction through a derivation assembly and a lifting assembly.

[0005] Preferably, the notch on the homogenizing plate is clamped with one side of the second sealing plate, a rectangular block is provided on the other side of the second sealing plate and the second spring sheet is connected to the rectangular block, and the rectangular block movably passes through the side of the homogenizing plate.

[0006] Preferably, the extrusion block is hollow and communicates with the outside through a plurality of guide grooves circumferentially distributed at equal angles on the periphery of the extrusion block, and one side of the extrusion block is open and communicates with the hollow portion.

[0007] Preferably, the main shaft is rotatably mounted inside the homogenizing chamber, and a pipe for feeding and discharging materials is respectively mounted on both sides of the homogenizing chamber, and a flange for docking with an external pipe is mounted on both pipes.

[0008] Preferably, the derivation assembly includes a camshaft rotatably mounted on the top of the homogenization chamber, the output shaft of the motor is connected to the camshaft through a transmission belt, a guide plate is slidably mounted inside the homogenization chamber, the eccentric part of the camshaft slides in the groove on the top of the guide plate, and the bottom of the guide plate is movably engaged with the homogenization plate through a derivation rod.

[0009] Preferably, the lifting assembly includes a reciprocating threaded rod rotatably installed on the top of the homogenization chamber, the reciprocating threaded rod is connected to the camshaft through a second transmission belt, the outer peripheral threaded sleeve of the reciprocating threaded rod is provided with a guide ring that slides vertically inside an independent chamber, the guide ring is elastically connected to a closing plate through a spring, the side of the closing plate is movably clamped with the homogenization plate, and the second spring sheet is installed on the closing plate.

[0010] Preferably, a second chamber for communicating with the independent chamber is arranged outside the homogenization chamber, the closing plate is used to seal the connection between the independent chamber and the second chamber, and the discharge pipe is located at the bottom of the second chamber.

[0011] Preferably, the extraction assembly includes a flow box fixed inside the homogenization chamber, the top of the flow box is connected to the independent chamber through two delivery tubes symmetrically installed on the homogenization chamber, a guide rod is symmetrically installed at both ends of the bottom of the guide plate, the bottom of the guide rod is movably connected to the inside of the delivery tube through a sealing plate, and an extractor is installed at the bottom of the sealing plate, and the extractor extracts the homogenized material in the flow box through the delivery tube.

[0012] Preferably, the extractor includes a push rod fixed to the bottom of the sealing plate, a sealing plate 1 is fixed to the end of the push rod, the outer periphery of the push rod is elastically connected to an extrusion ring through a plurality of spring sheets 1 distributed circumferentially at equal angles, a plurality of cover plates are hinged circumferentially at equal angles on the side of the sealing plate 1, and several of the cover plates and the sealing plate 1 are combined into a full circle with a diameter value equal to the inner diameter value of the conveying pipe.

[0013] Compared with the prior art, the present invention has the following beneficial effects: The present invention arranges the coordination of structures such as a homogenizing component and a derivation component. A motor drives the homogenizing plate to move to one side through the derivation component. The material reaches the other side of the homogenizing plate from the gap between the second sealing plate and the homogenizing plate and hits the inner wall of the independent chamber to homogenize the material. When the homogenizing plate moves to the other side, the gap between the homogenizing plate and the second sealing plate is sealed. The pressure generated by the extrusion acts on the extrusion block to move it and expose the guide groove. After the material is extruded, it is sprayed to one side of the homogenizing plate through the guide groove. Since the extraction component can transport the material to the independent chamber in small quantities and multiple times, and the arrangement of several extrusion blocks can increase the number of sprayed liquid columns and can collide with each other, further increasing the mixing efficiency between the various materials.

[0014] The present invention arranges the cooperation of structures such as independent chambers and independent components. The guide ring descends to compress the spring to increase the time for the homogenization plate to move and homogenize the material, so that the material can meet the homogenization standard required by the process. When the guide ring rises and forces the spring back to its original position, the guide ring preferentially pulls the spring, which will further increase the homogenization time and make the material more fully homogenized. Due to the limited height inside the independent chamber, the guide ring cannot completely shrink the closing plate by pulling the spring, and the connecting point of the extraction component is located above the independent chamber. The newly entered material is also located above its independent chamber, and the gap between the closing plate and the independent chamber is below the independent chamber, which makes it difficult for the material transported into the independent chamber by the extraction component to be directly discharged, thereby greatly improving the homogenization effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is a schematic diagram of the appearance structure of the present invention; Figure 2 This is a schematic diagram of the internal structure of the homogenization chamber of the present invention; Figure 3 It is a schematic diagram of the positions of the homogenization chamber and the homogenization assembly of the present invention; Figure 4 It is a schematic diagram of the structural coordination between the homogenization component and the derivation component of the present invention; Figure 5 It is a schematic diagram of the structural coordination of the homogenizing component and the lifting component of the present invention; Figure 6 It is a schematic diagram of the explosion of the homogenizing component and the lifting component structure of the present invention; Figure 7 It is a schematic diagram of the structural coordination between the derivation component and the extraction component of the present invention; Figure 8 This is a schematic diagram of the structure coordination between the delivery pipe and the extractor of the present invention; Fig. 9 This is a schematic diagram of the exploded structure of the extractor of the present invention.

[0016] In the figure: 1. homogenizing chamber; 11. independent chamber; 2. motor; 3. derivation assembly; 31. camshaft; 32. transmission belt 1; 33. guide plate; 34. derivation rod; 4. lifting assembly; 41. reciprocating threaded rod; 42. transmission belt 2; 43. guide ring; 44. spring; 45. closing plate; 5. extraction assembly; 51. circulation box; 52. delivery tube; 53. guide rod; 54. sealing plate; 55. extractor; 551. push rod; 552. spring sheet 1; 553. extrusion ring; 554. closed plate 1; 555. cover plate; 6. homogenizing assembly; 61. homogenizing plate; 62. extrusion block; 63. sealing plate 2; 64. spring sheet 2; 65. guide groove; 66. cover plate; 7. main shaft; 8. agitator. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] like Figures 1 to 8 As shown, the present invention provides a homogenizing device for manufacturing new energy batteries, comprising a homogenizing chamber 1 and a homogenizing material filled in the homogenizing chamber 1, and further comprising; A motor 2 is installed on the top of the homogenization chamber 1, and the output shaft of the motor 2 is connected to two stirrers 8 through a main shaft 7, and the inclination angles of the blades on the two stirrers 8 are opposite; An independent chamber 11 disposed inside the homogenization chamber 1; A homogenizing assembly 6 and a lifting assembly 4 installed in an independent chamber 11; The homogenizing assembly 6 includes a homogenizing plate 61 that slides horizontally inside the independent chamber 11, a cover plate 66 that moves vertically inside the independent chamber 11 is movably connected to the top of the homogenizing plate 61, a plurality of extrusion blocks 62 are movably connected to the homogenizing plate 61, and a plurality of guide grooves 65 are provided on the extrusion blocks 62 at equal annular angles, and a sealing plate 2 63 that moves through the homogenizing plate 61 is elastically connected to the lifting assembly 4 through a spring sheet 2 64; An extraction assembly 5 connected to the side of the independent chamber 11; The derivation assembly 3 is arranged on the homogenization chamber 1, and the motor 2 drives the homogenization plate 61 to swing back and forth in the horizontal direction through the derivation assembly 3 and drives the extraction assembly 5 to extract the material inside the homogenization chamber 1 at the same time; The motor 2 drives the homogenizing plate 61 to reciprocate in the vertical direction through the derivation assembly 3 and the lifting assembly 4 .

[0019] The extrusion block 62 is hollow and communicates with the outside through a plurality of guide grooves 65 circumferentially distributed at equal angles on the outer circumference of the extrusion block 62 . One side of the extrusion block 62 is open and communicates with the hollow portion.

[0020] The main shaft 7 is rotatably installed inside the homogenizing chamber 1. A pipeline for feeding and discharging materials is installed on both sides of the homogenizing chamber 1. A flange for docking with an external pipeline is installed on both pipelines.

[0021] The above scheme is adopted: the external material delivery pipeline is connected to the material inlet pipeline on the homogenizing chamber 1 through a flange, and the active material, conductive agent, binder and solvent to be homogenized are input into the interior of the homogenizing chamber 1 in proportion; The output shaft of the motor 2 drives the two stirrers 8 to rotate through the main shaft 7. The blades of the two stirrers 8 make the material flow in opposite directions. During the continuous impact of the materials, several materials can be effectively mixed, while reducing the impact of the shear force generated by the stirrer 8 on the materials. The motor 2 extracts the offset material into the independent chamber 11 through the deduction component 3 and the extraction component 5. When the motor 2 drives the homogenizing plate 61 to move to one side through the deduction component 3, since the side of the sealing plate 2 63 is preferably in contact with the inner wall of the independent chamber 11, the material reaches the other side of the homogenizing plate 61 from the gap between the sealing plate 2 63 and the homogenizing plate 61, and hits the inner wall of the independent chamber 11, so that the material is homogenized. When the homogenizing plate 61 moves to the other side, the spring sheet 2 64 applies a pulling force to the sealing plate 2 63, so that the sealing plate 2 63 can better fit and seal the gap between the homogenizing plate 61 and the sealing plate 2 63, and the pressure generated by the extrusion acts on the extrusion block 62, so that it moves and exposes the guide groove 65. After being extruded, the material is sprayed to one side of the homogenizing plate 61 through the guide groove 65. The setting of several extrusion blocks 62 can increase the number of sprayed liquid columns and can collide with each other, further increasing the mixing efficiency between the various materials. During the reciprocating movement of the homogenizing plate 61, since the extraction component 5 can transport the material inside the homogenizing chamber 1 into the independent chamber 11 in small quantities and multiple times, and the homogenizing component 6 continuously squeezes and sprays the liquid, the material entering the independent chamber 11 can be well mixed each time. After several movements, the motor 2 gradually lifts the homogenizing plate 61 through the deduction component 3 and the lifting component 4, so that the homogenizing plate 61 no longer seals the independent chamber 11. At this time, the material that has been homogenized is discharged through the discharge port.

[0022] like Figure 1-Figure 6 As shown, the notch on the homogenizing plate 61 is engaged with one side of the second sealing plate 63 , a rectangular block is provided on the other side of the second sealing plate 63 and the second spring sheet 64 is connected to the rectangular block, and the rectangular block movably passes through the side of the homogenizing plate 61 .

[0023] The above scheme is adopted: when the homogenizing plate 61 moves to one side, due to the elasticity of the spring sheet 2 64, the sealing plate 2 63 can follow the homogenizing plate 61, and the rectangular block on the side of the homogenizing plate 61 can make it preferentially contact the inner wall of the independent chamber 11. At this time, the homogenizing plate 61 moves, which can create a gap between it and the sealing plate 2 63 and force the material to flow. The existence of the rectangular block can also prevent the sealing plate 2 63 from detaching from the homogenizing plate 61 and causing jamming when the device is working.

[0024] like Figure 1-Figure 6 As shown, the derivation assembly 3 includes a camshaft 31 rotatably mounted on the top of the homogenization chamber 1, the output shaft of the motor 2 is connected to the camshaft 31 through a transmission belt 32, a guide plate 33 is slidably mounted inside the homogenization chamber 1, the eccentric part of the camshaft 31 slides in the groove at the top of the guide plate 33, and the bottom of the guide plate 33 is movably engaged with the homogenization plate 61 through a derivation rod 34.

[0025] The above scheme is adopted: the output shaft of the motor 2 drives the camshaft 31 to rotate through the transmission belt 32. Since the homogenization chamber 1 limits the guide plate 33 to only move horizontally, the eccentric part of the camshaft 31 slides on the top of the guide plate 33 and drives the guide plate 33 to reciprocate in the horizontal direction. The guide plate 33 drives the homogenization plate 61 to move synchronously through the push rod 34, so that the homogenization component 6 can complete the homogenization work without excessively consuming the power of the motor 2.

[0026] like Figure 1-Figure 6 As shown, the lifting assembly 4 includes a reciprocating threaded rod 41 rotatably mounted on the top of the homogenizing chamber 1, the reciprocating threaded rod 41 is transmission-connected to the camshaft 31 via a transmission belt 42, the outer peripheral threaded sleeve of the reciprocating threaded rod 41 is provided with a guide ring 43 which vertically slides inside the independent chamber 11, the guide ring 43 is elastically connected to a closing plate 45 via a spring 44, the side of the closing plate 45 is movably engaged with the homogenizing plate 61, and a spring sheet 64 is mounted on the closing plate 45.

[0027] The above scheme is adopted: the camshaft 31 drives the reciprocating threaded rod 41 to rotate through the transmission belt 2 42. Since the guide ring 43 can only slide vertically inside the independent chamber 11, the rotation of the reciprocating threaded rod 41 will drive the guide ring 43 to reciprocate in the vertical direction. When the guide ring 43 descends, it compresses the spring 44 to increase the time for the homogenizing plate 61 to move and homogenize the material, so that the material can meet the homogenization standard required by the process. When the guide ring 43 rises and forces the spring 44 to return to the initial position, the guide ring 43 preferentially pulls the spring 44, which will further increase the homogenization time and make the material more fully homogenized. When the spring 44 cannot be stretched, the guide ring 43 drives the closing plate 45 to rise through the spring 44, and the independent chamber 11 is no longer sealed by the closing plate 45, and the material that has completed the homogenization work is discharged through the gap between the two. It should be noted that due to the limited height inside the independent chamber 11, the guide ring 43 cannot be completely retracted by pulling the closing plate 45 through the spring 44, and the connecting point of the extraction component 5 is located above the independent chamber 11, and the newly entered material is also located above its independent chamber 11, while the gap between the closing plate 45 and the independent chamber 11 is below the independent chamber 11, which makes it difficult for the material transported into the independent chamber 11 by the extraction component 5 to be discharged directly, greatly improving the homogenization effect.

[0028] like Figure 1-Figure 6 As shown, a second chamber for communicating with the independent chamber 11 is arranged outside the homogenization chamber 1, a closing plate 45 is used to seal the connection between the independent chamber 11 and the second chamber, and a discharge pipe is located at the bottom of the second chamber.

[0029] With the above solution, after the closing plate 45 rises, the material enters the second chamber immediately, and since the discharge pipe is located at the bottom of the second chamber, the subsequent material can be discharged more completely.

[0030] Figure 1-Figure 9 As shown, the extraction assembly 5 includes a flow box 51 fixed inside the homogenization chamber 1, the top of the flow box 51 is connected to the independent chamber 11 through two delivery tubes 52 symmetrically installed on the homogenization chamber 1, a guide rod 53 is symmetrically installed at both ends of the bottom of the guide plate 33, the bottom of the guide rod 53 is movably connected to the inside of the delivery tube 52 through a sealing plate 54, and an extractor 55 is installed at the bottom of the sealing plate 54, and the extractor 55 extracts the homogenized material in the flow box 51 through the delivery tube 52.

[0031] The above scheme is adopted: the circulation box 51 is located between the two agitators 8, so that the material after the offset can be directly absorbed by the circulation box 51, and the grid on the side of the circulation box 51 prevents the agglomerated material from being extracted to avoid clogging inside the delivery tube 52. After being blocked, the material will continue to remain in the homogenization chamber 1 and be homogenized by the impact force generated by the agitator 8. The presence of the sealing plate 54 makes the delivery tube 52 always in a sealed state, and the extractor 55 can extract better.

[0032] Figure 1-Figure 9 As shown, the extractor 55 includes a push rod 551 fixed to the bottom of the sealing plate 54, a sealing plate 554 is fixed to the end of the push rod 551, the outer periphery of the push rod 551 is elastically connected to an extrusion ring 553 through a plurality of spring sheets 552 distributed circumferentially at equal angles, a plurality of cover plates 555 are hinged at equal angles circumferentially on the side of the sealing plate 554, and the plurality of cover plates 555 and the sealing plate 554 are combined into a whole circle and the diameter value is equal to the inner diameter value of the conveying pipe 52.

[0033] According to the above scheme, when the guide plate 33 drives the push rod 551 to move to one side through the guide rod 53 and the sealing plate 54, the cover plate 555 is tightly attached to the sealing plate 1 554 due to the restriction of the sealing plate 1 554, so that the two cooperate to seal the inside of the conveying tube 52, and the material in the homogenization chamber 1 can be extracted into the inside of the conveying tube 52 through the flow box 51. In the process of continuous movement, the cover plate 555 and the sealing plate 1 554 will also push the material in the conveying tube 52 to flow into the independent chamber 11. When the push rod 551 moves, due to the pressure and viscosity of the material itself, the extractor 55 will be folded, and the material inside the conveying tube 52 will not flow. Instead, a small amount of material can be extracted each time, and the quality of homogenization by the homogenizing plate 61 will be effectively improved each time.

[0034] The working principle and use process of the present invention: The active material, conductive agent, binder and solvent to be homogenized are input into the homogenization chamber 1 in proportion, and the output shaft of the motor 2 drives the two stirrers 8 to rotate through the main shaft 7, and the blades of the two stirrers 8 make the materials flow in opposite directions; The output shaft of the motor 2 drives the cam shaft 31 to rotate through the transmission belt 1 32. Since the homogenizing chamber 1 limits the guide plate 33 to move only horizontally, the eccentric part of the cam shaft 31 slides on the top of the guide plate 33 and drives the guide plate 33 to move back and forth in the horizontal direction. The guide plate 33 drives the homogenizing plate 61 to move synchronously through the push rod 34. When the guide plate 33 drives the push rod 551 to move to one side through the guide rod 53 and the sealing plate 54, the cover plate 555 is in close contact with the sealing plate 1 554, so that the two cooperate to seal the inside of the delivery tube 52, and the material in the homogenization chamber 1 can be extracted into the inside of the delivery tube 52 through the flow box 51. In the process of continuous movement, the cover plate 555 and the sealing plate 1 554 will also push the material in the delivery tube 52 to flow into the independent chamber 11; When the motor 2 drives the homogenizing plate 61 to move to one side through the derivation component 3, since the side surface of the second sealing plate 63 preferably contacts the inner wall of the independent chamber 11, the material reaches the other side of the homogenizing plate 61 from the gap between the second sealing plate 63 and the homogenizing plate 61, and hits the inner wall of the independent chamber 11, so that the material is homogenized. When the homogenizing plate 61 moves to the other side, the second spring sheet 64 applies a pulling force to the second sealing plate 63, so that the second sealing plate 63 can better fit and seal the gap between the homogenizing plate 61 and the second sealing plate 63, and the pressure generated by the extrusion acts on the extrusion block 62, so that it moves and exposes the guide groove 65. After being extruded, the material is ejected to one side of the homogenizing plate 61 through the guide groove 65 and can collide with each other. The camshaft 31 drives the reciprocating threaded rod 41 to rotate through the transmission belt 42. Since the guide ring 43 can only slide vertically inside the independent chamber 11, the rotation of the reciprocating threaded rod 41 will drive the guide ring 43 to reciprocate in the vertical direction. When the guide ring 43 descends, it compresses the spring 44 to increase the time for the homogenizing plate 61 to move and homogenize the material, so that the material can meet the homogenization standard required by the process. The guide ring 43 drives the closing plate 45 to rise through the spring 44, and the independent chamber 11 is no longer sealed by the closing plate 45, and the material that has completed the homogenization work is discharged through the gap between the two.

[0035] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0036] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A homogenizing device for manufacturing new energy batteries, comprising a homogenizing chamber (1) and a homogenizing material filled in the homogenizing chamber (1), characterized in that: Also includes; A motor (2) is installed on the top of the homogenization chamber (1), wherein the output shaft of the motor (2) is connected to two stirrers (8) via a main shaft (7), and the inclination angles of the blades on the two stirrers (8) are opposite; An independent chamber (11) disposed inside the homogenization chamber (1); A homogenizing assembly (6) and a lifting assembly (4) installed in an independent chamber (11); The homogenizing assembly (6) comprises a homogenizing plate (61) that slides horizontally inside the independent chamber (11); a cover plate (66) that moves vertically inside the independent chamber (11) is movably clamped on the top of the homogenizing plate (61); a plurality of extrusion blocks (62) are movably clamped on the homogenizing plate (61); a plurality of guide grooves (65) are formed on the extrusion blocks (62) at equal circumferential angles; and a sealing plate (63) that moves and penetrates the homogenizing plate (61) is elastically connected to the lifting assembly (4) via a spring sheet (64); An extraction assembly (5) connected to the side of the independent chamber (11); A derivation component (3) is arranged on the homogenization chamber (1), wherein the motor (2) drives the homogenization plate (61) to swing back and forth in a horizontal direction through the derivation component (3) and simultaneously drives the extraction component (5) to extract the material inside the homogenization chamber (1); The motor (2) drives the homogenizing plate (61) to reciprocate in a vertical direction via the derivation component (3) and the lifting component (4).

2. The homogenizing device for manufacturing new energy batteries according to claim 1, characterized in that: The notch on the homogenizing plate (61) is snap-fitted to one side of the second sealing plate (63); a rectangular block is provided on the other side of the second sealing plate (63) and the second spring sheet (64) is connected to the rectangular block; the rectangular block movably penetrates the side of the homogenizing plate (61).

3. The homogenizing device for manufacturing new energy batteries according to claim 2, characterized in that: The extrusion block (62) is hollow and communicates with the outside through a plurality of guide grooves (65) distributed at equal angles in an annular direction on the outer circumference of the extrusion block (62); one side of the extrusion block (62) is open and communicates with the hollow portion.

4. The homogenizing device for manufacturing new energy batteries according to claim 1, characterized in that: The main shaft (7) is rotatably mounted inside the homogenizing chamber (1), and a pipe for feeding and discharging materials is respectively mounted on both sides of the homogenizing chamber (1), and a flange for docking with an external pipe is mounted on both pipes.

5. The homogenizing device for manufacturing new energy batteries according to claim 1, characterized in that: The derivation assembly (3) comprises a camshaft (31) rotatably mounted on the top of the homogenizing chamber (1); the output shaft of the motor (2) is transmission-connected to the camshaft (31) via a transmission belt (32); a guide plate (33) is slidably mounted inside the homogenizing chamber (1); an eccentric portion of the camshaft (31) slides in a notch at the top of the guide plate (33); and the bottom of the guide plate (33) is movably engaged with the homogenizing plate (61) via a derivation rod (34).

6. The homogenizing device for manufacturing new energy batteries according to claim 5, characterized in that: The lifting assembly (4) comprises a reciprocating threaded rod (41) rotatably mounted on the top of the homogenizing chamber (1); the reciprocating threaded rod (41) is connected to the camshaft (31) via a second transmission belt (42); the outer peripheral thread sleeve of the reciprocating threaded rod (41) is provided with a guide ring (43) which slides vertically inside the independent chamber (11); the guide ring (43) is elastically connected to a closing plate (45) via a spring (44); the side surface of the closing plate (45) is movably engaged with the homogenizing plate (61); and the second spring sheet (64) is mounted on the closing plate (45).

7. The homogenizing device for manufacturing new energy batteries according to claim 6, characterized in that: A second chamber for communicating with the independent chamber (11) is arranged outside the homogenization chamber (1), the closing plate (45) is used to seal the connection between the independent chamber (11) and the second chamber, and the discharge pipe is located at the bottom of the second chamber.

8. The homogenizing device for manufacturing new energy batteries according to claim 7, characterized in that: The extraction assembly (5) comprises a flow box (51) fixedly mounted inside the homogenization chamber (1); the top of the flow box (51) is connected to the independent chamber (11) via two delivery tubes (52) symmetrically mounted inside the homogenization chamber (1); a guide rod (53) is symmetrically mounted at both ends of the bottom of the guide plate (33); the bottom of the guide rod (53) is movably clamped to the inside of the delivery tube (52) via a sealing plate (54); an extractor (55) is mounted at the bottom of the sealing plate (54); the extractor (55) extracts the homogenized material in the flow box (51) via the delivery tube (52).

9. The homogenizing device for manufacturing new energy batteries according to claim 8, characterized in that: The extractor (55) comprises a push rod (551) fixedly mounted on the bottom of the sealing plate (54); a sealing plate (554) is fixedly mounted on the end of the push rod (551); the outer circumference of the push rod (551) is elastically connected to an extrusion ring (553) via a plurality of spring sheets (552) distributed circumferentially at equal angles; a plurality of cover plates (555) are hingedly connected circumferentially at equal angles to the side of the sealing plate (554); the plurality of cover plates (555) and the sealing plate (554) are combined into a full circle, the diameter of which is equal to the inner diameter of the conveying pipe (52).

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