A stirring and molding integrated apparatus for preparing an oxidation synthetic compound

Abstract

The application discloses a kind of stirring forming integrated equipment for preparing oxidizing composition, belongs to the field of powder mixing, including mixing part, hopper located at the discharge end below mixing part, screw feeding part for lifting and conveying material in hopper, granulating forming part located at the discharge end below screw feeding part;The mixing part includes base, mixing tank fixed on the upper end of base, discharge part fixed on the outside of mixing tank, tank cover located at the upper end of mixing tank, fastening part fixed on the outside of mixing tank to compress tank cover, mixing assembly connected in the inside of mixing tank;By conical hollow ring, it can guide the powder that "moves from upper layer to the center of stirring and moves from center to lower layer", the powder is guided into conical hollow ring, the flow cross section is reduced, the flow rate is relatively increased, which creates conditions for subsequent mechanical force application;When motor drives rotating rod to rotate, mixing paddle two rotates in conical hollow ring to realize forced axial and diffusion mixing.

Description

Technical Field

[0001] This invention relates to the field of powder mixing, and more specifically, to an integrated mixing and molding apparatus for preparing oxidative compounds. Background Technology

[0002] Oxide compounds are compounds formed by chemical bonds between oxygen and other chemical elements (mainly metallic elements, but also non-metallic elements). They have high hardness, excellent chemical stability, and good mechanical properties. For example, zirconium dioxide and silicon dioxide have become indispensable key basic materials in modern industry, especially in the field of optical coating, due to their excellent stability, hardness, and controllable optical properties.

[0003] The preparation process of oxide compounds includes multiple steps such as batching and mixing, pressing and molding, and sintering. Among them, mixing is a crucial step. By mixing and stirring the proportioned powders, the composition is ensured to be uniform, and the particles are further refined. Currently, vertical mixers are usually used in oxide production lines to complete the mixing and stirring of powders. Vertical mixers have a stirring paddle at the bottom of the chamber. The stirring paddle rotates to mix the powder, causing the powder to move towards the inner wall of the chamber, then upward along the inner wall, and then towards the center of the mixing. From the center, it moves downward to the bottom of the chamber, and then towards the inner wall of the chamber again, forming a circulating mixing flow.

[0004] Although it can achieve the function of mixing and stirring, the following problems still exist: In the process of "powder moving from the upper layer to the center of stirring and from the center to the lower layer and back to the bottom of the vessel", in the free fall area, the powder mainly relies on gravity flow, with almost no active shearing, diffusion or convection; particles of different compositions, densities or particle sizes have highly similar movement trajectories in this area, lacking the opportunity to interpenetrate and randomly distribute themselves; lightweight components (such as sintering aids and trace additives) may agglomerate due to adsorption or electrostatic effects and cannot be effectively dispersed during gravity fall; ultimately affecting the density and uniformity of the microstructure of the sintered body, which may lead to product defects, uneven strength or substandard optical properties. Summary of the Invention

[0005] To address the problems existing in the prior art, the purpose of this invention is to provide an integrated stirring and molding device for preparing oxidative compounds.

[0006] To solve the above problems, the present invention adopts the following technical solution.

[0007] An integrated stirring and molding device for preparing oxidative compounds includes a mixing section, a hopper located below the discharge end of the mixing section, a screw feeding section for lifting and conveying the material in the hopper, and a granulation and molding section located below the discharge end of the screw feeding section.

[0008] The mixing unit includes a base, a mixing tank fixed to the upper end of the base, a discharge part fixed to the outside of the mixing tank, a tank cover located at the upper end of the mixing tank, a fastening part fixed to the outside of the mixing tank to press the tank cover, and a mixing assembly connected to the inside of the mixing tank.

[0009] The mixing assembly includes multiple connecting rods fixed to the lower end of the tank cover, a conical hollow ring fixed to the lower end of the multiple connecting rods, a rotating ring rotatably connected to the lower end of the tank cover, multiple mixing blades integrally formed on the outside of the rotating ring, a vertical extension integrally formed on one end of the mixing blades, a rotating rod whose two ends are rotatably connected to the tank cover and the rotating ring respectively, mixing blades two and three fixed to the outside of the rotating rod, and a motor fixed to the upper end of the tank cover.

[0010] Furthermore, a driving component for driving the rotating ring is fixedly connected inside the base, and the output shaft of the driving component passes through the mixing tank and is connected to the rotating ring, while the output shaft of the first motor passes through the tank cover and is connected to the rotating rod.

[0011] Furthermore, the second mixing blade is located inside the conical hollow ring cavity, and the third mixing blade is located between the conical hollow ring and the first mixing blade.

[0012] Furthermore, the inner wall of the conical hollow ring is provided with an inclined surface one, a flat surface and an inclined surface two. A vortex mixing part is rotatably connected to the flat surface. The vortex mixing part includes a movable groove on the flat surface, a lower ring body rotatably connected to the movable groove, multiple rods connected to the upper end of the lower ring body, multiple mixing blades fixed to the outside of the multiple rods, an upper ring body rotatably connected to the lower end of the tank cover and connected to the other end of the multiple rods, and a drive part connected in the tank cover for driving the upper ring body to rotate.

[0013] Furthermore, the drive unit includes a gear 1 rotatably connected inside the can lid and a gear disc meshing with the gear 1, and the gear disc is fixed to the upper end of the upper ring body. A motor 2 is fixed to the upper end of the can lid, and the output shaft of the motor 2 is connected to the gear 1.

[0014] Furthermore, the upper ends of the multiple rods are rotatably connected to the lower end of the upper ring body, and the lower ends of the rods are rotatably connected to the upper end of the lower ring body. The can lid has a toothed groove inside, and multiple gears are rotatably connected inside the upper ring body. The multiple gears are respectively connected to the multiple rods, and the multiple gears mesh with the toothed groove.

[0015] Furthermore, a scraper is fixedly connected to the upper end of the lower ring body, one end of the scraper extends above the plane and the lower end of the scraper is in contact with the upper end of the plane.

[0016] Furthermore, the mixing tank is also connected to an interlaced shearing assembly, which includes an extended support fixed to the inner wall of the mixing tank, a shearing part one rotatably connected to one side of the extended support, two brackets fixed to the lower end of the tank cover, and a shearing part two rotatably connected between the two brackets. A motor three is fixed to the upper end of the tank cover, and the motor three is connected to the shearing part two through a transmission structure.

[0017] Furthermore, a drive shaft is rotatably connected inside the extended support section. One end of the drive shaft is fixedly connected to the shearing section and the other end is connected to the drive component inside the base. One of the brackets passes through the can lid and extends outward. The transmission structure includes two sprockets rotatably connected inside the bracket and a chain belt connecting the two sprockets. The two sprockets are respectively connected to the output shafts of the shearing section and the motor.

[0018] Furthermore, both shearing section one and shearing section two are located above the conical hollow ring, and shearing section one and shearing section two are perpendicular to each other.

[0019] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0020] (1) This scheme is equipped with a conical hollow ring, a rotating rod, mixing blade two and mixing blade three. The conical hollow ring can guide the powder moving from the upper layer to the center of the mixing and from the center to the lower layer. The powder is guided into the conical hollow ring, the flow cross section is reduced and the flow velocity is relatively increased, which creates conditions for subsequent application of mechanical force. When the motor drives the rotating rod to rotate, the mixing blade two rotates in the conical hollow ring to achieve forced axial and diffusion mixing. The mixing blade three rotates between the conical hollow ring and the mixing blade one, strongly dispersing the bottom agglomerates and achieving preliminary radial mixing. Since the material is subjected to active and strong mixing in two stages (bottom gap and falling ring) in each cycle, it can completely disperse the agglomerates and make them evenly dispersed. Therefore, the number of cycles and time required to achieve the predetermined uniformity will be significantly reduced.

[0021] (2) This scheme is equipped with a vortex mixing section. Multiple rods and mixing blades are driven by motor two to rotate. Multiple dynamic obstacles and micro-stirrs are set in the falling channel of the conical hollow ring, which breaks the laminar or plunger flow that the powder may form. This forces the powder to generate irregular vortices, collisions and penetrations in the radial, tangential and axial directions, thereby improving the intensity of diffusion mixing. During the downward movement of the powder, it is continuously intercepted, thrown and changed direction by the rotating rods and mixing blades. Its movement trajectory changes from a simple straight line to a complex spiral path. This increases the residence time and movement path length of the material in the core mixing zone (inside the conical hollow ring), making the mixing reaction (dispersion and homogenization) more complete.

[0022] (3) This scheme is equipped with gears and tooth grooves. When the upper ring rotates, the tooth grooves can drive the gear two inside the upper ring to rotate, realizing the revolution and rotation of multiple rods. The superposition of revolution and rotation makes the motion trajectory of the mixing blade four on each rod more complex. This creates a chaotic or turbulent flow field in the entire conical hollow ring, and the movement of powder particles is completely randomized, improving the uniform dispersion effect of mixing. The agglomerates in the conical hollow ring will be subjected to continuous tearing and impact from different angles, improving the crushing efficiency. The mixing intensity and speed will far exceed that of static or single-motion agitators.

[0023] (4) This design incorporates a staggered shearing assembly, which actively sweeps accumulated or biased powder towards the central area or other areas of the conical hollow ring inlet. The intense turbulence generated by the two shearing sections breaks up any stagnant areas that may form on the top free surface, eliminating dead zones at the top. This ensures that the material enters the core mixing zone in a more uniform annular distribution, maximizing the efficiency of the stirring paddle and rotating rod within the conical hollow ring. Before the powder enters the conical hollow ring, it undergoes a high-intensity shearing process, pre-dispersing large agglomerates. This allows the material to enter the subsequent revolution + rotation core zone in a finer and more homogeneous state, improving the mixing efficiency and quality of the core zone. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0025] Figure 2 This is a schematic diagram of the mixing section structure of the present invention;

[0026] Figure 3 This is a schematic diagram of the internal structure of the mixing tank of the present invention;

[0027] Figure 4 This is a schematic diagram of the mixing component structure of the present invention;

[0028] Figure 5 This is a cross-sectional view of the conical hollow ring of the present invention;

[0029] Figure 6 This is a partial structural diagram of the vortex mixing section of the present invention. Figure 1 ;

[0030] Figure 7 This is a partial structural diagram of the vortex mixing section of the present invention. Figure 2 ;

[0031] Figure 8 This is a schematic diagram of the structure of gear one, gear disk and gear two of the present invention;

[0032] Figure 9 This is a cross-sectional view of the can lid of the present invention;

[0033] Figure 10 This is a schematic diagram of the staggered shearing component structure of the present invention;

[0034] Figure 11 This is a schematic diagram of the sprocket and chain belt structure of the present invention.

[0035] Explanation of the labels in the diagram:

[0036] 1. Mixing section; 11. Base; 12. Mixing tank; 13. Discharge section; 14. Tank cover; 141. Toothed groove; 15. Fastening section; 2. Hopper; 3. Screw feeding section; 4. Granulation and forming section; 5. Mixing assembly; 51. Rotary ring; 52. Mixing blade one; 53. Vertical extension section; 54. Conical hollow ring; 541. Inclined surface one; 542. Plane; 543. Inclined surface two; 55. Connecting rod; 56. Rotating rod; 57. Mixing blade two; 571 58. Mixing blade 3; 6. Motor 1; 7. Vortex mixing section; 8. Movable groove; 9. Lower ring body; 10. Scraper; 11. Rod body; 12. Mixing blade 4; 13. Upper ring body; 14. Motor 2; 15. Gear disc; 16. Gear 1; 17. Gear 2; 18. Interlaced shearing assembly; 19. Extension support section; 10. Shearing section 1; 11. Drive shaft; 12. Bracket; 13. Shearing section 2; 14. Motor 3; 15. Sprocket; 16. Chain belt. Detailed Implementation

[0037] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0038] Please see Figures 1 to 11 An integrated mixing and molding device for preparing oxidized compounds includes a mixing section 1, a hopper 2 located below the discharge end of the mixing section 1, a screw feeding section 3 for lifting and conveying the material in the hopper 2, and a granulation and molding section 4 located below the discharge end of the screw feeding section 3.

[0039] The mixing unit 1 includes a base 11, a mixing tank 12 fixed to the upper end of the base 11, a discharge part 13 fixed to the outside of the mixing tank 12, a tank cover 14 located at the upper end of the mixing tank 12, a fastening part 15 fixed to the outside of the mixing tank 12 to press the tank cover 14, and a mixing assembly 5 connected to the inside of the mixing tank 12.

[0040] The mixing assembly 5 includes multiple connecting rods 55 fixed to the lower end of the tank cover 14, a conical hollow ring 54 fixed to the lower end of the multiple connecting rods 55, a rotating ring 51 rotatably connected to the lower end of the tank cover 14, multiple mixing blades 52 integrally formed on the outside of the rotating ring 51, a vertical extension 53 integrally formed on one end of the mixing blades 52, a rotating rod 56 whose two ends are respectively rotatably connected to the tank cover 14 and the rotating ring 51, and mixing blades 57 and 57 fixed to the outside of the rotating rod 56. 1. A motor 58 is fixed to the upper end of the can lid 14; a guide groove is provided inside the lower end of the rotating rod 56, and a guide rod is fixed to the upper end of the rotating ring 51. By inserting the guide rod into the guide groove, the lower end of the rotating rod 56 can contact the upper end of the rotating ring 51, and the lower end of the rotating rod 56 can rotate at the upper end of the rotating ring 51. This design makes it convenient to remove the rotating rod 56 along with the can lid 14 when the can lid 14 is opened, which facilitates the cleaning of the mixing blade 57, the mixing blade 571, and the conical hollow ring 54.

[0041] The base 11 is internally fixed with a drive component for driving the rotating ring 51 to rotate, and the output shaft of the drive component passes through the mixing tank 12 and is connected to the rotating ring 51. The output shaft of the motor 58 passes through the tank cover 14 and is connected to the rotating rod 56.

[0042] The second mixing blade 57 is located in the inner cavity of the conical hollow ring 54, and the third mixing blade 571 is located between the conical hollow ring 54 and the first mixing blade 52.

[0043] By adopting the above technical solution, after opening the can lid 14, the proportioned powder is placed into the mixing tank 12. The can lid 14 is pressed tightly onto the mixing tank 12 by the fastening part 15. The driving component inside the base 11 drives the rotating ring 51 to rotate. The driving component is driven by a motor. The rotation of the rotating ring 51 can drive the mixing blade 52 and the vertical extension part 53 to rotate, mixing and stirring the powder. The powder moves towards the inner wall of the mixing tank 12, moves upward along the inner wall of the mixing tank 12, and after reaching the upper layer, moves towards the center of the stirring. At this time, the powder is guided into the conical hollow ring 54, where the flow cross section decreases and the flow velocity relatively increases, creating conditions for subsequent application of mechanical force. The powder moves downward from the conical hollow ring 54 back to the bottom of the mixing tank 12. Driven by mixing blade 52, the material moves towards the inner wall, forming a circulating mixed flow. During this process, motor 58 drives rotor 56 to rotate, which in turn drives mixing blades 57 and 571 to rotate. Mixing blade 57 rotates within the conical hollow ring 54 to achieve forced axial and diffusion mixing, while mixing blade 571 rotates between the conical hollow ring 54 and mixing blade 52, strongly breaking up the bottom agglomerates and achieving preliminary radial mixing. Since the material is subjected to active and intense mixing in two stages (bottom gap and falling ring) during each cycle, the agglomerates can be thoroughly broken up and evenly dispersed, thus significantly reducing the number of cycles and time required to achieve the desired uniformity.

[0044] like Figures 4-8 As shown, the inner wall of the conical hollow ring 54 is provided with an inclined surface 541, a plane 542, and an inclined surface 543. A vortex mixing part 6 is rotatably connected to the plane 542. The vortex mixing part 6 includes a movable groove 61 opened on the plane 542, a lower ring body 62 rotatably connected to the movable groove 61, multiple rods 64 connected to the upper end of the lower ring body 62, multiple mixing blades 65 fixed to the outside of the multiple rods 64, an upper ring body 66 rotatably connected to the lower end of the can cover 14 and connected to the other end of the multiple rods 64, and a driving part connected to the can cover 14 for driving the upper ring body 66 to rotate.

[0045] The drive unit includes a gear 69 rotatably connected inside the can lid 14 and a gear disk 68 meshing with the gear 69. The gear disk 68 is fixed to the upper end of the upper ring body 66. A motor 67 is fixed to the upper end of the can lid 14, and the output shaft of the motor 67 is connected to the gear 69.

[0046] By adopting the above technical solution, the operation of motor 67 drives gear 69 and gear disc 68 to rotate. The rotation of gear disc 68 drives the upper ring 66 to rotate, and the rotation of upper ring 66 drives multiple rods 64 and lower ring 62 to rotate. Multiple dynamic obstacles and micro-stirrs are set in the falling channel of conical hollow ring 54, which breaks the laminar or plunger flow that the powder may form, forcing the powder to generate irregular eddies, collisions and penetrations in the radial, tangential and axial directions, thereby improving the intensity of diffusion mixing. During the downward movement of the powder, it is continuously intercepted, scattered and changed in direction by the rotating rods 64 and mixing blades 65. Its movement trajectory changes from a simple straight line to a complex spiral path. This increases the residence time and movement path length of the material in the core mixing zone (within conical hollow ring 54), making the mixing reaction (dispersion and homogenization) more complete.

[0047] like Figure 8 and Figure 9 As shown, the upper ends of the multiple rods 64 are rotatably connected to the lower ends of the upper ring 66, and the lower ends of the rods 64 are rotatably connected to the upper ends of the lower ring 62. The can lid 14 has a toothed groove 141 inside. The upper ring 66 has multiple gears 7 rotatably connected inside, and the multiple gears 7 are respectively connected to the multiple rods 64. The multiple gears 7 are all engaged with the toothed groove 141.

[0048] A scraper 63 is fixedly connected to the upper end of the lower ring body 62. One end of the scraper 63 extends above the plane 542 and the lower end of the scraper 63 is in contact with the upper end of the plane 542.

[0049] By adopting the above technical solution, when the upper ring 66 rotates, the toothed groove 141 can drive the gear 7 inside the upper ring 66 to rotate, realizing the revolution and rotation of multiple rods 64. The superposition of revolution and rotation makes the motion trajectory of the mixing blade 65 on each rod 64 more complex. This creates a chaotic or turbulent flow field in the entire conical hollow ring 54, and the movement of powder particles is completely randomized, improving the uniform dispersion effect of mixing. The agglomerates in the conical hollow ring 54 will be subjected to continuous tearing and impact from different angles, improving the crushing efficiency. The mixing intensity and speed will far exceed those of static or single-motion agitators.

[0050] like Figure 3 , Figure 10 and Figure 11 As shown, the mixing tank 12 is also connected to an interlaced shearing assembly 8, which includes an extended support 81 fixed to the inner wall of the mixing tank 12, a shearing part 1 82 rotatably connected to one side of the extended support 81, two brackets 84 fixed to the lower end of the tank cover 14, and a shearing part 2 85 rotatably connected between the two brackets 84. A motor 3 86 is fixed to the upper end of the tank cover 14, and the motor 3 86 is connected to the shearing part 2 85 through a transmission structure.

[0051] The extension support 81 is rotatably connected to a drive shaft 83. One end of the drive shaft 83 is fixed to the shearing part 82, and the other end is connected to the drive component inside the base 11. One of the brackets 84 passes through the can lid 14 and extends outward. The transmission structure includes two sprockets 87 rotatably connected in the bracket 84 and a chain belt 88 connecting the two sprockets 87. The two sprockets 87 are respectively connected to the output shaft of the shearing part 85 and the motor 86.

[0052] Both shear section 1 82 and shear section 2 85 are located above the conical hollow ring 54, and shear section 1 82 and shear section 2 85 are perpendicular to each other.

[0053] By adopting the above technical solution, the driving component inside the base 11 drives the transmission shaft 83 and the shearing section 82 to rotate. The driving component is driven by a motor. The shearing section 82 can shear the upper layer of powder. When the shearing section 82 rotates, it will push the upper layer of powder against the inner wall of the mixing tank 12. The motor 86 drives the sprocket 87 to rotate. The sprocket 87 and the chain belt 88 drive the shearing section 85 to rotate. When the shearing section 85 rotates, it will push the upper layer of powder against the rotating rod 56. This design can actively sweep the accumulated or biased powder into the conical hollow. In the central area or other areas of the inlet of ring 54, the strong turbulence generated by the two shear sections can break the stagnant zone that may be formed on the top free surface and eliminate the top dead corner; ensure that the material enters the core mixing zone in a more uniform annular distribution, and maximize the efficiency of the mixing blade 57 and rod 64 in the conical hollow ring 54; before the powder enters the conical hollow ring 54, it is subjected to a high-intensity shear, which pre-disperses large agglomerates; this allows the material to enter the subsequent revolution + rotation core zone in a finer and more homogeneous state, improving the mixing efficiency and quality of the core zone.

[0054] Instructions for use: After opening the can lid 14, place the proportioned powder into the mixing tank 12. Secure the can lid 14 to the mixing tank 12 using the fastening part 15. Control the drive component inside the base 11 to rotate the rotating ring 51. The drive component is driven by a motor. The rotation of the rotating ring 51 drives the mixing blade 52 and the vertical extension part 53 to rotate, mixing and stirring the powder. This causes the powder to move towards the inner wall of the mixing tank 12, then upwards along the inner wall, reaching the upper layer and moving towards the center of the mixing. At this point, the powder is guided into the conical hollow ring 54. The powder then moves downwards from the conical hollow ring 54 back to the bottom of the mixing tank 12, where it is driven by the mixing blade 52 to move towards the inner wall, forming a circulating mixing flow. During this process, the motor 58 drives the rotating rod 56 to rotate, which in turn drives the mixing blades 57 and 58. 1. The mixing blade 2 57 rotates within the conical hollow ring 54 to achieve forced axial and diffusion mixing. The mixing blade 3 571 rotates between the conical hollow ring 54 and the mixing blade 1 52, strongly breaking up the bottom agglomerates. The motor 2 67 drives the gear 1 69 and the gear disk 68 to rotate. The rotation of the gear disk 68 drives the upper ring body 66 to rotate. The rotation of the upper ring body 66 drives the multiple rods 64 and the lower ring body 62 to rotate. When the upper ring body 66 rotates, the tooth groove 141 can drive the gear 2 7 inside the upper ring body 66 to rotate, realizing the revolution and rotation of the multiple rods 64. At the same time, the driving component in the base 11 drives the transmission shaft 83 and the shearing part 1 82 to rotate. The motor 3 86 drives the sprocket 87 to rotate. Through the transmission of the sprocket 87 and the chain belt 88, the shearing part 2 85 is driven to rotate, sweeping the accumulated or biased powder towards the central area or other areas of the entrance of the conical hollow ring 54.

[0055] The above description is merely a preferred embodiment of the present invention; however, the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and its improved concepts, should be covered within the scope of protection of the present invention.

Claims

1. A mixing and molding integrated device for preparing oxidative compounds, comprising a mixing section (1), a hopper (2) located below the discharge end of the mixing section (1), a screw feeding section (3) for lifting and conveying the material in the hopper (2), and a granulation and molding section (4) located below the discharge end of the screw feeding section (3), characterized in that: The mixing unit (1) includes a base (11), a mixing tank (12) fixed to the upper end of the base (11), a discharge part (13) fixed to the outside of the mixing tank (12), a tank cover (14) located at the upper end of the mixing tank (12), a fastening part (15) fixed to the outside of the mixing tank (12) to press the tank cover (14) tight, and a mixing assembly (5) connected to the inside of the mixing tank (12). The mixing assembly (5) includes multiple connecting rods (55) fixed to the lower end of the can cover (14), a conical hollow ring (54) fixed to the lower end of the multiple connecting rods (55), a rotating ring (51) rotatably connected to the lower end of the can cover (14), multiple mixing blades (52) integrally formed outside the rotating ring (51), a vertical extension (53) integrally formed at one end of the mixing blades (52), a rotating rod (56) rotatably connected to the can cover (14) and the rotating ring (51) at both ends respectively, mixing blades (57) and mixing blades (571) fixed to the outside of the rotating rod (56), and a motor (58) fixed to the upper end of the can cover (14). The mixing tank (12) is also connected to an interlaced shearing assembly (8), which includes an extension support (81) fixed to the inner wall of the mixing tank (12), a shearing part one (82) rotatably connected to one side of the extension support (81), two supports (84) fixed to the lower end of the tank cover (14), and a shearing part two (85) rotatably connected between the two supports (84). A motor three (86) is fixed to the upper end of the tank cover (14), and the motor three (86) is connected to the shearing part two (85) through a transmission structure. The base (11) is internally fixed with a drive component for driving the rotating ring (51) to rotate, and the output shaft of the drive component passes through the mixing tank (12) and is connected to the rotating ring (51). The output shaft of the motor (58) passes through the tank cover (14) and is connected to the rotating rod (56). The mixing blade two (57) is located in the inner cavity of the conical hollow ring (54), and the mixing blade three (571) is located between the conical hollow ring (54) and the mixing blade one (52); The inner wall of the conical hollow ring (54) is provided with an inclined surface one (541), a plane (542) and an inclined surface two (543). A vortex mixing part (6) is rotatably connected to the plane (542). The vortex mixing part (6) includes a movable groove (61) opened on the plane (542), a lower ring body (62) rotatably connected to the movable groove (61), multiple rods (64) connected to the upper end of the lower ring body (62), multiple mixing blades (65) fixed to the outside of the multiple rods (64), an upper ring body (66) rotatably connected to the lower end of the can cover (14) and connected to the other end of the multiple rods (64), and a drive part connected in the can cover (14) for driving the upper ring body (66) to rotate.

2. The integrated stirring and molding apparatus for preparing oxidative compounds according to claim 1, characterized in that: The extension support (81) is rotatably connected to a drive shaft (83). One end of the drive shaft (83) is fixed to the shearing part (82), and the other end is connected to the drive component inside the base (11). One of the brackets (84) passes through the can lid (14) and extends outward. The transmission structure includes two sprockets (87) rotatably connected in the bracket (84) and a chain belt (88) connecting the two sprockets (87). The two sprockets (87) are respectively connected to the output shafts of the shearing part (85) and the motor (86).

3. The integrated stirring and molding equipment for preparing oxidative compounds according to claim 2, characterized in that: Both shear section one (82) and shear section two (85) are located above the conical hollow ring (54), and shear section one (82) and shear section two (85) are perpendicular to each other.

4. The integrated stirring and molding apparatus for preparing oxidative compounds according to claim 1, characterized in that: The drive unit includes a gear 1 (69) rotatably connected inside the can lid (14) and a gear disk (68) meshing with the gear 1 (69), and the gear disk (68) is fixed to the upper end of the upper ring body (66). The upper end of the can lid (14) is fixedly connected to a motor 2 (67), and the output shaft of the motor 2 (67) is connected to the gear 1 (69).

5. The integrated stirring and molding apparatus for preparing oxidative compounds according to claim 4, characterized in that: The upper ends of the multiple rods (64) are rotatably connected to the lower ends of the upper ring (66), and the lower ends of the rods (64) are rotatably connected to the upper ends of the lower ring (62). The can lid (14) has a toothed groove (141) inside. The upper ring (66) is rotatably connected to multiple gears (7), and the multiple gears (7) are respectively connected to the multiple rods (64). The multiple gears (7) are all meshed with the toothed groove (141).

6. The integrated stirring and molding apparatus for preparing oxidative compounds according to claim 5, characterized in that: A scraper (63) is fixedly connected to the upper end of the lower ring body (62). One end of the scraper (63) extends above the plane (542) and the lower end of the scraper (63) is in contact with the upper end of the plane (542).

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