Molecular sieve runner core processing and mixing device

Abstract

The invention discloses a molecular sieve runner core processing and mixing device, and relates to the technical field of material mixing, the molecular sieve runner core processing and mixing device comprises a mixing tank, the lower part of the mixing tank is connected with a gluing groove, the upper part of the mixing tank is connected with a dosing cylinder, and a stirring device is arranged in the mixing tank; the stirring device comprises a pressing ring attached to the inner wall of the mixing tank in a sealed mode, the pressing ring can conduct piston motion along the inner wall of the mixing tank, quantitative extrusion of the materials is achieved, meanwhile, the materials in the mixing tank can be stirred, the pressing ring is driven to press downwards in a timing mode, and material supplementing is conducted in a timing mode. When the pressing ring presses the materials, the stirring piece stirs the materials, the materials in the tank are evenly spread, the materials can evenly block the discharging pipe before being discharged, it is ensured that the interior of the tank is in a positive pressure environment when the pressing ring moves downwards, and the situation that the materials above the discharging pipe are rapidly discharged, the interior of the tank and the discharging pipe are communicated, and then local material residues are caused after pressure relief is conducted is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of material mixing, in particular to a molecular sieve rotor core processing mixing device. Background Art

[0002] During the processing of the molecular sieve rotor core, the coated and modified substrate needs to be fixed to the paper loading machine, with one side as the upper paper end of the base paper and the other side as the upper paper end of the corrugated paper. The papers on both sides are aligned to ensure that they can cover and overlap neatly from top to bottom, and the glue circulation device and circulation pipeline are connected. The diaphragm pump is turned on to test whether the glue circulation is sufficient, and the slurry in the groove is coated on the corrugated paper through the glue roller and then pressed into shape.

[0003] Before the corrugated paper is coated with slurry, the slurry needs to be mixed and configured. When the materials are mixed and discharged by extrusion, the materials at the discharge pipe are discharged quickly, resulting in the accumulation of materials far away from the discharge pipe in the tank. The materials cannot be evenly spread, resulting in the rapid emptying of the materials at the discharge pipe. The discharge pipe is interconnected with the space inside the tank, which destroys the positive pressure environment in the tank, resulting in the inability to discharge the accumulated materials far away from the discharge pipe, which easily leads to material retention. Summary of the invention

[0004] The purpose of the present invention is to provide a molecular sieve rotor core processing and mixing device, which has the advantages of realizing quantitative extrusion of materials and stirring the materials in the mixing tank at the same time, spreading the materials in the tank evenly, so that the discharge pipe can be evenly blocked before the materials are discharged, ensuring that the tank is in a positive pressure environment when the pressure ring moves downward, preventing the material above the discharge pipe from being discharged quickly, resulting in local material residue after the pressure in the tank and the discharge pipe is released, and at the same time achieving uniform feeding and reducing gas residue in the slurry.

[0005] To achieve the above object, the present invention provides the following technical solution: a molecular sieve rotor core processing mixing device, comprising a mixing tank, a glue tank is connected below the mixing tank, a measuring cylinder is connected above the mixing tank, and a stirring device is arranged in the mixing tank; The stirring device includes a pressure ring that is sealed with the inner wall of the mixing tank and can perform piston motion along the inner wall of the mixing tank, a stirring member that is sealed by the pressure ring through a bearing, and a driving member that drives the stirring member to rotate, and the stirring member includes a stirring rod that can be vertically extended and retracted. When the pressure ring moves vertically toward the bottom of the mixing tank, positive pressure is generated in the tank, which is used to evenly transport the material in the tank to the gluing tank.

[0006] Furthermore, the stirring element includes stirring blades, a main rotating rod, spiral blades, an upper telescopic rod and a driving plate. The stirring blades are installed in an annular array on the stirring rod. One end of the stirring rod is connected to the driving plate. The center of the driving plate is connected to the main rotating rod through a bearing. The upper end of the main rotating rod is connected to the upper telescopic rod. The main rotating rod can be telescopic and has spiral blades installed on the surface.

[0007] Furthermore, the driving component includes a main driving motor, a driving rod, an outer driving ring and an inner driving ring. The driving end of the main driving motor is connected to the driving rod, the inner driving ring is sleeved on the driving rod, the outer driving ring is installed on the driving rod through a bracket, the upper end of the driving plate is connected to the driving ring sleeve, and the upper end of the driving ring sleeve is sleeved with a driving gear ring.

[0008] Furthermore, a linkage gear is sleeved on the top of the upper telescopic rod, and a circle of tooth grooves is provided on the inner ring of the outer driving ring. The linkage gear is meshed with the tooth grooves. A section of arc-shaped rack is provided below the tooth grooves. The arc-shaped rack is fixed on the inner wall of the outer driving ring, and a half-circle driving rack is provided on the outer wall of the inner driving ring. The driving gear ring is intermittently meshed with the arc-shaped rack and the driving rack respectively.

[0009] Furthermore, a plurality of stirring blades and stirring rods are provided, and the plurality of stirring rods are fixed on the driving plate.

[0010] Furthermore, a telescopic tube sleeve is provided in the mixing tank, and the upper end of the telescopic tube sleeve is connected to the measuring cylinder.

[0011] Furthermore, a discharge pipe is eccentrically arranged at the bottom end of the mixing tank, and the discharge pipe is connected to the glue tank.

[0012] Furthermore, the outer wall of the pressure ring is covered with a sealing ring, and the pressure ring is fitted with the inner wall of the mixing tank through the sealing ring.

[0013] Furthermore, the bottom end of the driving rod is connected to a screw rod, an extrusion rod sleeve is sleeved on the screw rod, the inner wall of the upper end of the extrusion rod sleeve is matched with the thread on the screw rod, and the upper end of the extrusion rod sleeve is connected to an elastic member.

[0014] Furthermore, a spiral mixer is arranged in the gluing tank, a main rotating rod passes through the bottom end of the mixing tank through a bearing, a vertical bevel gear is sleeved on the bottom end of the main rotating rod, and a transverse bevel gear meshing with the vertical bevel gear is sleeved on one end of the spiral mixer.

[0015] Technical effects and advantages of the present invention: When the pressure ring moves vertically toward the bottom of the mixing tank, it generates positive pressure in the tank, which is used to evenly transport the material in the tank to the gluing tank. The pressure ring moves downward under the drive of the cylinder to discharge the stirred material in the tank under positive pressure, and the stirring piece can continue to stir while the pressure ring moves downward, so that the material in the mixing tank can be stirred while the material is quantitatively squeezed, and the pressure ring can be set according to the material loss in the gluing tank and the time required for the loss to achieve timed driving of the pressure ring to press down and perform timed quantitative feeding. The pressure ring is connected to the stirring piece through a bearing. When the pressure ring presses the material, the stirring piece stirs, and the material in the tank is evenly spread, so that the material can evenly block the discharge pipe before it is discharged, ensuring that the tank The inner tank is in a positive pressure environment to prevent the material above the discharge pipe from being discharged quickly, resulting in local material residue after the pressure is released between the tank and the discharge pipe. The positive pressure cooperates with the stirring structure to avoid the pressure release after the tank and the discharge pipe are connected during material discharge. Under positive pressure, the introduction of gas is avoided to prevent the material from always having bubbles, which will cause hollow bonding and loose bonding. While the main rotating rod rotates clockwise for stirring, the spiral blades spirally tumble the material at the bottom of the mixing tank, and the material above flows downward from the outside, so as to achieve stirring when the inside and outside are tumbling, thereby improving the stirring efficiency. When the pressure ring is pressed down, the main rotating rod rotates counterclockwise, and the spiral blades press the upper material downward, which can assist in rapid discharge. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a cross-sectional view of the internal structure of the mixing tank of the present invention; Figure 3 It is a schematic diagram of the structure of the stirring device of the present invention; Figure 4 For the present invention Figure 2 A magnified image of point A; Figure 5 It is a driving connection diagram of the driving member and the stirring member of the present invention; Figure 6 A half-section view of the gluing groove structure of the present invention; Figure 7 This is a schematic diagram of the structure of Embodiment 3 of the present invention; Figure 8 It is a cross-sectional view of the internal structure of the mixing tank of the present invention; Fig. 9 A half-section view of the extruded rod sleeve structure of the present invention; Fig.10 It is a schematic diagram of the extrusion structure of the extruded rod sleeve of the present invention.

[0017] In the figure: 1. Mixing tank; 11. Measuring cylinder; 12. Telescopic tube sleeve; 13. Discharge pipe; 2. Glue trough; 21. Spiral mixer; 3. Stirring device; 31. Pressing ring; 311. Sealing ring; 32. Stirring element; 321. Stirring rod; 322. Stirring blade; 323. Main rotating rod; 324. Spiral blade; 325. Upper telescopic rod; 3251. Linkage gear; 326. Drive plate; 3261. Drive ring sleeve; 3262. Drive gear ring; 33. Driving element; 331. Main driving motor; 332. Driving rod; 3321. Screw rod; 3322. Extrusion rod sleeve; 3323. Elastic element; 333. Outer driving ring; 3331. Tooth groove; 3332. Arc rack; 334. Inner driving ring; 3341. Driving rack. DETAILED DESCRIPTION

[0018] 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.

[0019] Example 1: Reference Figure 1 - Figure 5 , which is the first embodiment of the present invention, provides a molecular sieve rotor core processing mixing device, including a mixing tank 1, a glue tank 2 is connected to the bottom of the mixing tank 1, and a measuring cylinder 11 is connected to the top of the mixing tank 1. The measuring cylinder 11 is used for raw material preparation and storage. The measured raw materials are placed in the measuring cylinder 11, and the measuring cylinder 11 transports the measured raw materials to the mixing tank 1.

[0020] The mixing tank 1 is provided with a stirring device 3, which includes a pressure ring 31 which is sealed with the inner wall of the mixing tank 1, and the pressure ring 31 can perform piston movement along the inner wall of the mixing tank 1, a stirring member 32 which is connected to the pressure ring 31 through a bearing seal, and a driving member 33 which drives the stirring member 32 to rotate, the stirring member 32 includes a stirring rod 321 which can be vertically telescopic, and when the pressure ring 31 moves vertically toward the bottom end of the mixing tank 1, a positive pressure is generated in the tank, which is used to transport the material in the tank to the glue tank 2, the pressure ring 31 moves downward under the drive of the cylinder, and the stirred material in the tank is discharged under positive pressure, and the stirring member 32 can continue to stir while the pressure ring 31 moves downward, so that the material in the mixing tank 1 can be stirred while the quantitative extrusion of the material is achieved, and the material can be stirred according to the glue tank 2 and the time required for the loss of material in the tank are set to realize the timing drive of the pressure ring 31 to press down and perform the timing feeding. The pressure ring 31 is connected to the stirring member 32 through the bearing. When the pressure ring 31 presses the material, the stirring member 32 stirs the material to evenly spread the material in the tank so that the material can evenly block the discharge pipe 13 before it is discharged. Ensure that the pressure ring 31 moves downward to put the tank in a positive pressure environment to prevent the material above the discharge pipe 13 from being discharged quickly, resulting in local material residue after the pressure is relieved between the tank and the discharge pipe 13. The positive pressure environment cooperates with the stirring structure to avoid the pressure relief after the tank and the discharge pipe 13 are connected during material discharge. Under the positive pressure, avoid the introduction of gas to prevent the material from always having bubbles, which will cause hollow bonding and loose bonding.

[0021] The stirring member 32 includes a stirring blade 322, a main rotating rod 323, a spiral blade 324, an upper telescopic rod 325 and a driving plate 326. The stirring blade 322 is installed in a circular array on the stirring rod 321. One end of the stirring rod 321 is connected to the driving plate 326. The center of the driving plate 326 is connected to the main rotating rod 323 through a bearing. The upper end of the main rotating rod 323 is connected to the upper telescopic rod 325. The main rotating rod 323 can be telescopic and has a spiral blade 324 installed on the surface. The main rotating rod 323 is a telescopic rod. When the pressure ring 31 is pressed down, the main rotating rod 323 can be telescopic, and the main rotating rod 323 can bring The dynamic spiral blade 324 rotates. It should be understood that since the stirring blade 322 stirs at the bottom of the mixing tank 1, when the material in the mixing tank 1 is higher than the stirring range of the stirring blade 322, the material above cannot be quickly and evenly mixed. While the main rotating rod 323 rotates clockwise for stirring, the spiral blade 324 spirally churns the material at the bottom of the mixing tank 1 upward, and the material above flows downward from the outside, achieving stirring while churning inside and outside, thereby improving the stirring efficiency. When the pressure ring 31 is pressed down, the main rotating rod 323 rotates counterclockwise, and the spiral blade 324 presses the upper material downward, which can assist in rapid discharge.

[0022] The driving member 33 includes a main driving motor 331, a driving rod 332, an outer driving ring 333 and an inner driving ring 334. The driving end of the main driving motor 331 is connected to the driving rod 332. The inner driving ring 334 is sleeved on the driving rod 332. The outer driving ring 333 is installed on the driving rod 332 through a bracket. The upper end of the driving plate 326 is connected to a driving ring sleeve 3261. The upper end of the driving ring sleeve 3261 is sleeved with a driving gear ring 3262. The top of the upper telescopic rod 325 is sleeved with a linkage gear 3251. The inner ring of the outer driving ring 333 is provided with a circle of tooth grooves 3331. The linkage gear 3251 is meshed with the tooth groove 3331, and a section of arc-shaped rack 3332 is arranged below the tooth groove 3331. The arc-shaped rack 3332 is fixed to the inner wall of the outer driving ring 333, and a half-circle driving rack 3341 is arranged on the outer wall of the inner driving ring 334. The driving gear ring 3262 is intermittently meshed with the arc-shaped rack 3332 and the driving rack 3341 respectively. By setting the driving member 33, the spiral blade 324 can be driven to reciprocate forward and reverse while driving the main rotating rod 323 to rotate, so that one power source can drive two agitators to stir, thereby improving the stirring efficiency and realizing rapid and uniform stirring of the materials.

[0023] Specifically, the main driving motor 331 drives the outer driving ring 333 and the inner driving ring 334 to rotate at the same time. When the outer driving ring 333 and the inner driving ring 334 rotate, the arc-shaped rack 3332 and the driving rack 3341 are alternately meshed with the driving gear ring 3262. During the meshing process of the arc-shaped rack 3332 and the driving gear ring 3262, the driving gear ring 3262 and the driving plate 326 are driven to rotate clockwise. When the arc-shaped rack 3332 rotates to disengage from the driving gear ring 3262, the driving rack 3341 rotates to mesh with the driving gear ring 3262, and the driving rack 3341 drives the driving gear ring 3262 and the driving plate 326 to rotate counterclockwise, thereby realizing reciprocating positive and negative rotation of the driving plate 326 and the stirring rod 321. When the outer driving ring 333 rotates, the tooth groove 3331 drives the linkage gear 3251 to rotate clockwise all the time, thereby realizing uniform stirring of the materials.

[0024] There are multiple stirring blades 322 and stirring rods 321, and the multiple stirring rods 321 are fixed on the driving plate 326. There can be multiple stirring blades 322 and stirring rods 321. Four are disclosed in the figure of this embodiment. The four stirring blades 322 and stirring rods 321 follow the driving plate 326 to rotate around the main rotating rod 323 to ensure the stirring effect.

[0025] A telescopic sleeve 12 is provided in the mixing tank 1, and the upper end of the telescopic sleeve 12 is connected to the measuring cylinder 11. The measuring cylinder 11 is fed through the telescopic sleeve 12, and the telescopic sleeve 12 is connected to the pressure ring 31. When the pressure ring 31 moves, the telescopic sleeve 12 can be adaptively extended and retracted without affecting the material discharge.

[0026] A discharge pipe 13 is eccentrically arranged at the bottom end of the mixing tank 1. The discharge pipe 13 is connected to the glue tank 2. A solenoid valve is arranged on the discharge pipe 13. The discharge pipe 13 is used to discharge the mixed materials in the mixing tank 1. The solenoid valve is used to close the discharge pipe 13. In the closed state, the mixing tank 1 is in a sealed space.

[0027] The outer wall of the pressure ring 31 is covered with a sealing ring 311, and the pressure ring 31 is fitted with the inner wall of the mixing tank 1 through the sealing ring 311. The sealing ring 311 increases the sealing between the pressure ring 31 and the inner wall of the mixing tank 1, while ensuring that a sealed space is formed in the mixing tank 1 below the pressure ring 31. In the process of the pressure ring 31 moving downward, the sealing ring 311 can also ensure that it is sealed and fitted with the inner wall of the mixing tank 1, ensuring that a positive pressure environment can be formed in the mixing tank 1 when the pressure ring 31 moves downward.

[0028] Example 2: Reference Figure 6 , which is a second embodiment of the present invention. What is different from the first embodiment is that the bottom end of the driving rod 332 is connected to the screw rod 3321, and the extrusion rod sleeve 3322 is sleeved on the screw rod 3321. The inner wall of the upper end of the extrusion rod sleeve 3322 is matched with the thread on the screw rod 3321 for installation. The upper end of the extrusion rod sleeve 3322 is connected to an elastic member 3323, and the elastic member 3323 can be a combination of a spring and a pressure plate, or a combination of a spring sheet and a pressure plate. The extrusion rod sleeve 3322 includes an arc plate and two pipe sleeves. A positioning rod is also provided in the mixing tank 1. The two ends of the arc plate are respectively sleeved on the screw rod 3321 and the positioning rod, and the two ends of the arc plate are respectively connected to the bottom. The two pipe sleeves are respectively sleeved on the screw rod 3321 and the positioning rod. The bottom ends of the two pipe sleeves are connected to the pressing ring 31. The screw rod 3321 is provided with a section of thread groove, and one end of the arc plate is connected to the screw rod 3321. The threaded groove on the rod 3321 is installed in a matching manner, and an elastic member 3323 is connected to the upper end of the arc plate. The upper end of the elastic member 3323 is movably pressed against the inner wall of the upper end of the mixing tank 1 through a pressure plate. By arranging the extrusion rod sleeve 3322, the screw rod 3321 and the elastic member 3323, the driving member 33 rotates clockwise to drive stirring, and counterclockwise rotation is used to drive the pressure ring 31 to automatically press down, so that material stirring can be achieved while material is being transported, and production costs can be reduced through one drive. Moreover, through the elastic member 3323, after ensuring that the pressure ring 31 is reset, the driving member 33 rotates clockwise to drive the material stirring without affecting the position of the pressure ring 31. When the driving member 33 rotates counterclockwise, the elastic member 3323 is used to extrude the rod sleeve 3322 and engage with the thread on the screw rod 3321, so that reverse stirring is achieved while driving the pressure ring 31 to press down to transport the material.

[0029] Specifically, in the initial state, the arc plate of the extrusion rod sleeve 3322 and the thread on the screw rod 3321 are in a virtual connection state, the upper end of the elastic member 3323 is pressed against the inner wall of the mixing tank 1 and the spring is in a compressed state, squeezing the arc plate in real time to ensure that the arc plate and the thread on the screw rod 3321 are in virtual connection. When the screw rod 3321 rotates clockwise, the thread will not drive the arc plate and the two pipe sleeves to move. When the material in the mixing tank 1 is stirred evenly and needs to be discharged, the driving member 33 rotates counterclockwise, driving the screw rod 3321 to rotate counterclockwise, and the arc plate and the screw rod 3321 are in a state of virtual connection. Under the extrusion of the elastic member 3323, the thread always acts on the arc plate. When the screw rod 3321 rotates counterclockwise, the arc plate and the thread on the screw rod 3321 act to drive the arc plate and the two pipe sleeves to move on the screw rod 3321 and the positioning rod. The arc plate and the two pipe sleeves move downward, driving the pressure ring 31 to press down, realizing positive pressure discharge in the mixing tank 1. When the quantitative material output is completed, when the driving member 33 rotates clockwise, the screw rod 3321 drives the extrusion rod sleeve 3322 to reset. When the pressure ring 31 is reset to the initial state, the driving member 33 rotates clockwise without affecting the position of the pressure ring 31.

[0030] It should be noted that the number of revolutions of the screw rod 3321 and the moving distance of the pressure ring 31 are recorded, and the moving distance of the pressure ring 31 and the discharged material are recorded, and the data is calculated. According to the determination of the material conveying amount, the number of revolutions of the screw rod 3321 is calculated to ensure that the number of revolutions of the screw rod 3321 matches the discharge amount of the material pressed down by the driving pressure ring 31. The driving member 33 in this example is driven by the PLC control system. When the thresholds of each data are calculated and the driving thresholds are transmitted to the PLC control system, precise control of the driving member 33 is achieved, and the material delivery can also be precisely controlled.

[0031] Example 3: Reference Figure 7 - Fig.10, which is the third embodiment of the present invention. This embodiment is different from the first embodiment. During the implementation of the first embodiment, it was found that the feed end of the glue tank 2 was set on one side. When the discharge pipe 13 was unloading, the material would accumulate on one side of the glue tank 2. The material of the colloidal slurry needed to flow slowly and evenly into the glue tank 2, resulting in the material not being able to be quickly and evenly spread in the glue tank 2. In order to solve the above problem, this embodiment arranges a spiral mixer 21 in the glue tank 2, and the main rotating rod 323 passes through the bottom end of the mixing tank 1 through a bearing. The bottom end of the main rotating rod 323 is sleeved with a vertical bevel gear, and the spiral One end of the spiral mixer 21 is sleeved with a transverse bevel gear meshing with the vertical bevel gear. When the main rotating rod 323 rotates, it stirs and mixes the materials in the mixing tank 1 and drives the spiral mixer 21 to rotate through the bevel gear. The material can be quickly and evenly spread in the gluing tank 2, and the gluing roller can be quickly applied. In the process of gluing, the main rotating rod 323 can always drive the spiral mixer 21 to rotate, and stir the material in the gluing tank 2 in real time to prevent the material from settling, stratifying or solidifying, thereby increasing the material quality during gluing and improving the processing quality of the molecular sieve rotor core.

[0032] Finally, it should be noted that the above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A molecular sieve rotor core processing and mixing device, comprising a mixing tank (1), a glue tank (2) being connected below the mixing tank (1), characterized in that: The mixing tank (1) is connected to a measuring cylinder (11) at the top, and a stirring device (3) is provided in the mixing tank (1); The stirring device (3) comprises a pressure ring (31) which is sealed against the inner wall of the mixing tank (1), and the pressure ring (31) can perform piston movement along the inner wall of the mixing tank (1), a stirring member (32) which is sealedly connected to the pressure ring (31) via a bearing, and a driving member (33) which drives the stirring member (32) to rotate, wherein the stirring member (32) comprises a stirring rod (321) which can be extended and retracted vertically, and when the pressure ring (31) moves vertically toward the bottom end of the mixing tank (1), a positive pressure is generated in the tank, which is used to transport the material in the tank to the glue tank (2), and when the pressure ring (31) presses downward, the stirring member (32) rotates to flatten the material in the tank.

2. A molecular sieve rotor core processing and mixing device according to claim 1, characterized in that: The stirring member (32) comprises stirring blades (322), a main rotating rod (323), spiral blades (324), an upper telescopic rod (325) and a driving plate (326); the stirring blades (322) are mounted in a circular array on the stirring rod (321); one end of the stirring rod (321) is connected to the driving plate (326); the center of the driving plate (326) is connected to the main rotating rod (323) via a bearing; the upper end of the main rotating rod (323) is connected to the upper telescopic rod (325); the main rotating rod (323) is telescopic and has spiral blades (324) mounted on its surface.

3. A molecular sieve rotor core processing and mixing device according to claim 2, characterized in that: The driving member (33) comprises a main driving motor (331), a driving rod (332), an outer driving ring (333) and an inner driving ring (334); the driving end of the main driving motor (331) is connected to the driving rod (332); the inner driving ring (334) is sleeved on the driving rod (332); the outer driving ring (333) is mounted on the driving rod (332) via a bracket; the upper end of the driving plate (326) is connected to a driving ring sleeve (3261); and the upper end of the driving ring sleeve (3261) is sleeved on a driving gear ring (3262).

4. A molecular sieve rotor core processing and mixing device according to claim 3, characterized in that: A linkage gear (3251) is sleeved on the top end of the upper telescopic rod (325), a circle of tooth grooves (3331) is provided on the inner ring of the outer driving ring (333), the linkage gear (3251) is meshed with the tooth grooves (3331), a section of arc-shaped rack (3332) is provided below the tooth grooves (3331), the arc-shaped rack (3332) is fixed to the inner wall of the outer driving ring (333), a half circle of driving rack (3341) is provided on the outer wall of the inner driving ring (334), and the driving gear ring (3262) is intermittently meshed with the arc-shaped rack (3332) and the driving rack (3341) respectively.

5. A molecular sieve rotor core processing and mixing device according to claim 4, characterized in that: A plurality of stirring blades (322) and stirring rods (321) are provided, and the plurality of stirring rods (321) are fixed on the driving plate (326).

6. A molecular sieve rotor core processing and mixing device according to claim 5, characterized in that: A telescopic tube sleeve (12) is arranged in the mixing tank (1), and the upper end of the telescopic tube sleeve (12) is connected to the measuring cylinder (11).

7. A molecular sieve rotor core processing and mixing device according to claim 6, characterized in that: A discharge pipe (13) is eccentrically arranged at the bottom end of the mixing tank (1), and the discharge pipe (13) is connected to the glue tank (2).

8. A molecular sieve rotor core processing and mixing device according to claim 7, characterized in that: The outer wall of the pressure ring (31) is covered with a sealing ring (311), and the pressure ring (31) is fitted to the inner wall of the mixing tank (1) via the sealing ring (311).

9. A molecular sieve rotor core processing and mixing device according to claim 8, characterized in that: The bottom end of the driving rod (332) is connected to a screw rod (3321), an extrusion rod sleeve (3322) is sleeved on the screw rod (3321), the inner wall of the upper end of the extrusion rod sleeve (3322) is matched with the thread on the screw rod (3321), and the upper end of the extrusion rod sleeve (3322) is connected to an elastic member (3323).

10. A molecular sieve rotor core processing and mixing device according to claim 9, characterized in that: A spiral mixer (21) is arranged in the glue tank (2), a main rotating rod (323) passes through the bottom end of the mixing tank (1) via a bearing, a vertical bevel gear is sleeved on the bottom end of the main rotating rod (323), and a transverse bevel gear meshing with the vertical bevel gear is sleeved on one end of the spiral mixer (21).

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