TPE colloidal particle stirring device
By improving the structure of the mixing components and integrating the components, the problem of uneven material distribution in traditional TPE granule mixing devices has been solved, achieving more efficient mixing and cooling effects, and improving production efficiency and product quality.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- DONG GUAN SHI JIE JIA SU JIAO YOU XIAN GONG SI
- Filing Date
- 2025-04-22
- Publication Date
- 2026-05-01
AI Technical Summary
Traditional TPE granule mixing devices have a simple mixing blade structure, which leads to uneven distribution of materials in the mixing tank, especially near the tank wall where dead corners are easily formed, resulting in unsatisfactory mixing effect.
The mixing assembly employs a combination structure of mixing rollers, rotating frame, and mixing blades, including vertical and inclined sections, combined with multiple mixing scrapers to ensure uniform mixing of materials within the mixing tank. Furthermore, through the integrated design of extrusion, cooling, and pelletizing components, continuous operation from mixing to pelletizing is achieved.
It improves the uniformity and efficiency of mixing, reduces material clumping and adhesion on the tank wall, ensures uniform material distribution and flowability, and improves production efficiency and product quality.
Smart Images
Figure CN224183657U_ABST
Abstract
Description
TPE granule mixing device Technical Field
[0001] This utility model relates to the technical field of material handling equipment for granule production, and in particular to a TPE granule mixing device. Background Technology
[0002] TPE (thermoplastic elastomer) granule mixing equipment is widely used in many industrial fields, especially in the plastics, rubber, and chemical industries. Traditional TPE granule mixing equipment typically includes basic components such as a mixing tank, a mixing motor, and mixing blades. These devices use a mixing motor to drive the mixing blades to rotate, achieving material mixing and agitation. The mixing blades in traditional mixing equipment have a relatively simple structure, usually a planar structure or a simple spiral structure. This structure leads to uneven material distribution within the mixing tank, especially near the tank walls where dead zones can easily form, resulting in unsatisfactory mixing effects. Summary of the Invention
[0003] Therefore, the purpose of this utility model is to provide a TPE granule mixing device for uniform mixing.
[0004] The present invention adopts the following technical solution:
[0005] A TPE granule mixing device includes a mixing assembly; the mixing assembly includes a mixing tank, a mixing motor mounted on the mixing tank, a mixing roller mounted on the mixing motor, a rotating frame mounted on the mixing roller, a mixing scraper plate with one end mounted on the rotating frame and the other end extending toward the side wall of the mixing tank, and mixing blades wound around the mixing roller; the rotating frame includes a vertical section mounted on the mixing roller and an inclined section with one end mounted on the mixing roller and the other end connected to the free end of the vertical section.
[0006] Furthermore, there are multiple stirring scraper plates, which are respectively disposed on the vertical section and the inclined section.
[0007] Furthermore, the stirring assembly also includes a stirring inlet disposed on the stirring tank and a stirring outlet disposed on the stirring tank at the end opposite to the stirring inlet.
[0008] Furthermore, the TPE granule mixing device also includes an extrusion assembly disposed on the mixing outlet; the extrusion assembly includes an extrusion can mounted on the mixing outlet, an extrusion drive motor mounted on the extrusion can, and an extruder mounted on the extrusion drive motor.
[0009] Furthermore, the extrusion drive motor also includes a rotating rod; the extrusion component includes an extrusion roller mounted on the rotating rod and extrusion blades wound on the extrusion roller; the diameter of the extrusion roller gradually increases from the side near the rotating rod to the side away from the rotating rod; the extrusion assembly also includes an extrusion feed port disposed on the extrusion tank and an extrusion discharge port disposed on the extrusion tank; the extrusion feed port is configured to communicate with the stirring discharge.
[0010] Furthermore, the TPE granule mixing device also includes a cooling assembly disposed on one side of the extrusion outlet; the cooling assembly includes a cooling chamber with openings on both sides, a cooling guide disposed in the cooling chamber, and a cooling component disposed in the cooling chamber; the opening on one side of the cooling chamber is positioned opposite to the extrusion outlet.
[0011] Furthermore, the cooling guide includes a support rod mounted on the cooling chamber and a guide rod mounted on the support rod for guiding the strip material out of the extrusion outlet; the cooling component includes a cooling fan disposed on one side of the cooling chamber, an air outlet disposed on the other side of the cooling fan, and an exhaust fan mounted on the air outlet.
[0012] Furthermore, the cooling component also includes a water-cooling tank disposed on the cooling chamber and cooling water disposed in the water-cooling tank; the water-cooling tank is disposed along the length of the cooling chamber.
[0013] Furthermore, the TPE granule mixing device also includes a material trimming assembly disposed on the cooling chamber on the side opposite to the extrusion inlet; the material trimming assembly includes a trimming port disposed on the cooling chamber, a trimming drive motor disposed on the cooling chamber, and a trimming cutter mounted on the trimming drive motor; the trimming drive motor is mounted at the bottom of the cooling chamber, and the trimming cutter is mounted on the trimming drive motor and extends from the trimming port toward the cooling chamber.
[0014] Furthermore, the TPE granule mixing device also includes a pelletizing assembly installed on one side of the material trimming assembly; the pelletizing assembly includes a pelletizing conveyor belt, a pelletizing lifting component installed on the pelletizing conveyor belt, a pelletizing drive motor installed on the lifting component, and a pelletizing cutter installed on the pelletizing drive motor.
[0015] The beneficial effects of this utility model are as follows:
[0016] The present invention relates to a TPE granule mixing device, wherein the combined structure of the mixing roller, rotating frame and mixing blade in the mixing assembly, especially the structure of the vertical section and the inclined section, can effectively turn the material and ensure that the material is uniformly mixed in the mixing tank; the mixing blades threaded on the mixing roller can effectively push the material to move along the axial direction, further improving the uniformity and efficiency of mixing. Attached Figure Description
[0017] Figure 1 is a perspective view of a TPE granule mixing device according to an embodiment of the present invention;
[0018] Figure 2 is a three-dimensional schematic diagram of the stirring components of the TPE granule stirring device in Figure 1;
[0019] Figure 3 is an exploded view of the stirring assembly in Figure 2;
[0020] Figure 4 is a three-dimensional schematic diagram of the extrusion assembly of the TPE granule mixing device in Figure 1;
[0021] Figure 5 is an exploded view of the extrusion assembly in Figure 4;
[0022] Figure 6 is a three-dimensional schematic diagram of the cooling component and material trimming component of the TPE granule mixing device in Figure 1.
[0023] Figure 7 is an exploded view of the cooling assembly and material trimming assembly in Figure 6;
[0024] Figure 8 is a three-dimensional schematic diagram of the pelletizing component of the TPE granule mixing device in Figure 1;
[0025] Figure 9 is an exploded view of the pelletizing assembly in Figure 8.
[0026] 10. Mixing assembly; 11. Mixing tank; 12. Mixing motor; 13. Mixing roller; 14. Rotating frame; 15. Mixing scraper; 16. Mixing blade; 140. Vertical section; 141. Inclined section; 17. Mixing inlet; 18. Mixing outlet; 20. Extrusion assembly; 21. Extrusion tank; 22. Extrusion drive motor; 23. Extruded part; 24. Rotating rod; 230. Extrusion roller; 231. Extrusion blade; 25. Extrusion inlet; 26. Extrusion outlet 30. Cooling assembly; 31. Cooling chamber; 32. Cooling guide; 33. Cooling component; 320. Support rod; 321. Guide rod; 330. Cooling fan; 331. Air outlet; 332. Exhaust fan; 333. Water cooling tank; 40. Material trimming assembly; 41. Trimming port; 42. Trimming drive motor; 43. Trimming cutter; 50. Pelletizing assembly; 51. Pelletizing conveyor belt; 52. Pelletizing lifting component; 53. Pelletizing drive motor; 54. Pelletizing cutter. Detailed Implementation
[0027] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.
[0028] In the description of this utility model, it should be noted that the terms "vertical direction," "up," "down," and "horizontal," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model. In addition, "first," "second," "third," and "fourth" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.
[0029] In the description of this utility model, it should also be noted that, unless otherwise explicitly specified and limited, the terms "set," "install," "connect," and "link" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or a connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.
[0030] Please refer to Figures 1 to 9, which illustrate a TPE granule mixing device according to one embodiment of the present invention. The device includes a mixing assembly 10. The mixing assembly 10 includes a mixing tank 11, a mixing motor 12 mounted on the mixing tank 11, a mixing roller 13 mounted on the mixing motor 12, a rotating frame 14 mounted on the mixing roller 13, a mixing scraper 15 with one end mounted on the rotating frame 14 and the other end extending towards the side wall of the mixing tank 11, and mixing blades 16 wound around the mixing roller 13. The rotating frame 14 includes a vertical section 140 mounted on the mixing roller 13 and an inclined section 141 with one end mounted on the mixing roller 13 and the other end connected to the free end of the vertical section 140. In this embodiment, the material is TPE plastic granules.
[0031] The working principle of the TPE granule mixing device of this utility model is as follows: When the TPE granule mixing device is started, the mixing motor 12 starts to work, driving the mixing roller 13 to rotate, which in turn drives the rotating frame 14, the mixing scraper 15 and the mixing blade 16 to rotate together; through the structure of the vertical section 140 and the inclined section 141, it can effectively turn the material, especially the material near the wall; as the rotating frame 14 rotates, it can continuously remove the residual material on the inner wall of the tank; through its spiral-shaped mixing blade 16, it can effectively push the material to move axially, so that the material is evenly mixed in the tank.
[0032] Compared to existing technologies, the TPE granule mixing device of this invention, with its combined structure of the mixing roller 13, rotating frame 14, and mixing blades 16 in the mixing assembly 10, especially the structure of the vertical section 140 and the inclined section 141, can effectively turn the material, ensuring uniform mixing of the material in the mixing tank 11; the mixing blades 16, threaded around the mixing roller 13, can effectively push the material to move axially, further improving the uniformity and efficiency of mixing; the mixing scraper 15, with one end installed on the rotating frame 14 and the other end extending towards the side wall of the mixing tank 11, can continuously remove residual material on the inner wall of the tank, reducing material waste, while preventing material from clumping and adhering on the tank wall, improving production efficiency and product quality; through the structure of the vertical section 140 and the inclined section 141, the material can be mixed from multiple directions, effectively improving the distribution of the material in the tank, ensuring that all parts of the material are fully mixed.
[0033] Referring to Figures 2 and 3, there are multiple agitator scrapers 15, which are respectively arranged on the vertical section 140 and the inclined section 141. Multiple agitator scrapers 15 can more comprehensively cover the inner wall of the mixing tank 11, ensuring that residual material on the inner wall of the tank is removed from multiple angles and directions. By setting agitator scrapers 15 on the vertical section 140 and the inclined section 141 respectively, dead corners of material on the tank wall can be effectively reduced, ensuring uniform distribution and complete mixing of the material. During rotation, multiple agitator scrapers 15 can not only remove residual material from the inner wall of the tank, but also agitate the material from multiple directions and angles, further improving the uniformity of mixing. The continuous scraping action of multiple agitator scrapers 15 can prevent material from clumping on the inner wall of the tank, ensuring that the material maintains good fluidity throughout the mixing process. Multiple agitator scrapers 15 can continuously remove residual material from the inner wall of the tank, reducing the cleaning time required due to material adhesion and clumping, thereby improving production efficiency.
[0034] The mixing assembly 10 also includes a mixing inlet 17 disposed on the mixing tank 11, and a mixing outlet 18 disposed on the mixing tank 11 at the end opposite to the mixing inlet 17. By setting the mixing inlet 17 and mixing outlet 18, continuous feeding and discharging of materials can be achieved, enabling the mixing device to operate continuously and improving production efficiency. The reasonable layout of the mixing inlet 17 and mixing outlet 18 ensures that the materials are evenly distributed when entering and leaving the mixing tank 11, avoiding excessive or insufficient materials in some areas, thereby improving the uniformity of mixing. The materials enter the mixing tank 11 through the mixing inlet 17, and after being mixed, are discharged through the mixing outlet 18. This process can form a good material circulation, ensuring that the materials are fully mixed in the mixing tank 11. The reasonable setting of the mixing inlet 17 and mixing outlet 18 can reduce dead zones in the mixing tank 11, ensuring that each part of the material is effectively mixed. The setting of the mixing inlet 17 and mixing outlet 18 makes the feeding and discharging process more convenient. Operators can directly add materials through the inlet and promptly discharge the mixed materials through the mixing outlet 18, reducing manual intervention.
[0035] Referring to Figures 4 and 5, the TPE granule mixing device also includes an extrusion assembly 20 disposed on the mixing outlet 18. The extrusion assembly 20 includes an extrusion tank 21 mounted on the mixing outlet 18, an extrusion drive motor 22 mounted on the extrusion tank, and an extruder 23 mounted on the extrusion drive motor 22. Integrating the mixing device and the extrusion assembly 20 together enables continuous operation from mixing to extrusion, improving production efficiency, reducing intermediate steps, and lowering production costs. The integrated structure makes the entire device more compact, occupies less space, and is suitable for use in limited production environments. By setting up the extrusion assembly 20, the mixed TPE granules can be efficiently extruded, ensuring that the material maintains good flowability and uniformity during the extrusion process. The integrated structure can reduce material loss and waste during the transfer process, improving material utilization. The extrusion assembly 20 can ensure that the mixed material is evenly distributed during the extrusion process, avoiding quality problems caused by uneven material distribution. Through the extrusion assembly 20, the temperature of the material during the extrusion process can be better controlled, ensuring the quality and performance of the final product.
[0036] The extrusion drive motor 22 also includes a rotating rod 24; the extruder 23 includes an extrusion roller 230 mounted on the rotating rod 24 and an extrusion blade 231 wound on the extrusion roller 230; the diameter of the extrusion roller 230 on the side near the rotating rod 24 gradually increases towards the side away from the rotating rod 24; the extrusion assembly 20 also includes an extrusion feed port 25 provided on the extrusion tank 21 and an extrusion discharge port 26 provided on the extrusion tank; the extrusion feed port 25 is connected to the mixing discharge port 18. The extrusion inlet 25 is connected to the mixing outlet 18, ensuring that the mixed material can continuously and stably enter the extrusion tank 21, reducing intermediate steps and improving production efficiency. This feeding method ensures that the material is evenly distributed when entering the extrusion tank 21, avoiding excessive or insufficient material in some areas, thereby improving the uniformity of extrusion. The diameter of the extrusion roller 230 gradually increases from the side near the rotating rod 24 to the side away from the rotating rod 24. This structure enables progressive extrusion from low pressure to high pressure, ensuring that the material is gradually compacted during the extrusion process, reducing voids and improving extrusion efficiency. The extrusion blades 231 are wound around the extrusion roller 230, which can effectively push the material to move axially, ensuring the flowability and uniformity of the material during the extrusion process. The progressive extrusion structure can better control the temperature of the material during the extrusion process, avoiding material degradation or performance changes caused by temperature fluctuations, ensuring the quality and performance of the final product. The progressive structure of the extrusion roller 230 can reduce the agglomeration and adhesion of the material during the extrusion process, ensuring the flowability of the material and improving the uniformity and consistency of the product.
[0037] Referring to Figures 6 and 7, the TPE granule mixing device also includes a cooling component 30 disposed on one side of the extrusion outlet 26; the cooling component 30 includes a cooling chamber 31 with openings on both sides, a cooling guide 32 disposed in the cooling chamber 31, and a cooling component 33 disposed in the cooling chamber 31; the opening on one side of the cooling chamber 31 is opposite to the extrusion outlet 26. By incorporating the cooling component 30, the high-temperature material discharged from the extrusion outlet 26 can be rapidly cooled, preventing changes or degradation in material properties due to excessive temperature. The cooling guide 32 ensures uniform distribution of material within the cooling chamber 31, allowing each part of the material to be effectively cooled, avoiding localized overheating or overcooling, thereby improving the cooling effect. Rapid and uniform cooling better preserves the physical and chemical properties of the material, ensuring the quality of the final product. During the cooling process, the material temperature drops rapidly, reducing its stickiness and agglomeration, ensuring its fluidity and uniformity in subsequent processing. The structure of the cooling component 30 allows material to continuously enter the cooling chamber 31 from the extrusion outlet 26, enabling continuous operation from extrusion to cooling and improving production efficiency. The cooling component 30 is directly connected to the extrusion component 20, reducing intermediate steps in the cooling process and improving the compactness and efficiency of the overall production process.
[0038] The cooling guide 32 includes a support rod 320 mounted on the cooling chamber 31 and a guide rod 321 mounted on the support rod 320 for guiding the strip material coming out of the extrusion outlet; the cooling component 33 includes a cooling fan 330 disposed on one side of the cooling chamber 31, an air outlet 331 disposed on the other side of the cooling fan 330, and an exhaust fan 332 mounted on the air outlet 331. The combination of cooling fan 330 and exhaust fan 332 can generate a strong airflow, accelerate the air circulation in the cooling chamber 31, and quickly remove the heat from the material to achieve efficient cooling. The guide rod 321 can ensure that the material is evenly distributed in the cooling chamber 31, so that each part of the material can be effectively cooled, avoiding local overheating or overcooling, thereby improving the cooling effect. Rapid and uniform cooling can better maintain the physical and chemical properties of the material and ensure the quality of the final product. During the cooling process, the temperature of the material drops rapidly, which can reduce the stickiness and agglomeration of the material and ensure the fluidity and uniformity of the material in subsequent processing. The structure of the cooling component 30 allows the material to continuously enter the cooling chamber 31 from the extrusion outlet 26, realizing continuous operation from extrusion to cooling and improving production efficiency. The cooling component 30 is directly connected to the extrusion component 20, reducing intermediate links in the material cooling process and improving the compactness and efficiency of the overall production process.
[0039] The cooling component 33 also includes a water-cooled tank 333 disposed on the cooling chamber 31 and cooling water disposed within the water-cooled tank 333; the water-cooled tank 333 is disposed along the length of the cooling chamber 31. The cooling water in the water-cooled tank 333 has a high heat capacity, which can quickly absorb and remove heat from the material, achieving efficient cooling; the water-cooled tank 333 is disposed along the length of the cooling chamber 31, which can ensure uniform temperature distribution throughout the cooling area, avoid local overheating, and thus improve the cooling effect; rapid and uniform cooling can prevent degradation and performance changes of high-temperature materials, ensuring the quality and performance of the final product; during the cooling process, the temperature of the material drops rapidly, which can reduce the viscosity and agglomeration of the material, ensuring the fluidity and uniformity of the material in subsequent processing; the structure of the water-cooled tank 333 allows the material to continuously enter the cooling chamber 31 from the extrusion outlet 26, realizing continuous operation from extrusion to cooling, improving production efficiency; the cooling component 30 is directly connected to the extrusion component 20, reducing intermediate steps in the material cooling process and improving the compactness and efficiency of the overall production process.
[0040] The TPE granule mixing device also includes a material trimming assembly 40 disposed on the cooling chamber 31 on the side opposite to the extrusion feed port 25; the material trimming assembly 40 includes a trimming port 41 disposed on the cooling chamber 31, a trimming drive motor 42 disposed on the cooling chamber 31, and a trimming cutter 43 mounted on the trimming drive motor 42; the trimming drive motor 42 is mounted at the bottom of the cooling chamber 31, and the trimming cutter 43 is mounted on the trimming drive motor 42 and extends from the trimming port 41 toward the cooling chamber 31. The trimming and cutting blade 43 can precisely trim the cooled material, ensuring consistent shape and size, and improving product qualification rate. Precise trimming reduces waste caused by inconsistent shape or size, lowering production costs. The material trimming component 40 can be directly integrated with the cooling component 30 to achieve continuous operation from cooling to trimming, reducing intermediate steps and improving production efficiency. The trimming drive motor 42 can be integrated with the control system of the cooling component 30 to achieve automated trimming operation, reducing manual intervention and further improving production efficiency. The trimming and cutting blade 43 can remove burrs and uneven parts from the material surface, improving the surface quality, appearance, and performance of the product. During the trimming process, it can reduce material adhesion and agglomeration, ensuring the fluidity and uniformity of the material in subsequent processing.
[0041] Referring to Figures 8 and 9, the TPE granule mixing device also includes a pelletizing assembly 50 installed on one side of the material trimming assembly 40; the pelletizing assembly 50 includes a pelletizing conveyor belt 51, a pelletizing lifting member 52 installed on the pelletizing conveyor belt, a pelletizing drive motor 53 installed on the lifting member, and a pelletizing cutter 54 installed on the pelletizing drive motor 53. The pelletizing assembly 50 is directly connected to the material trimming assembly 40, enabling continuous operation from trimming to pelletizing, reducing intermediate steps and improving production efficiency. The combination of the pelletizing conveyor belt 51, pelletizing lifting component 52, and pelletizing drive motor 53 enables automated pelletizing, reducing manual intervention and improving production efficiency and consistency. The pelletizing cutter 54 is mounted on the pelletizing drive motor 53, allowing precise control of the cutting position and size to ensure consistent and uniform pelleting. The pelletizing lifting component 52 can adjust the cutting height, and the pelletizing drive motor 53 can adjust the cutting speed and force, flexibly adjusting the pelletizing parameters according to different production needs to meet the process requirements of different products. The structure of the pelletizing assembly 50 ensures that each pellet is the same size, reducing the generation of irregularly shaped particles and improving product uniformity and quality. Precise cutting reduces waste, increases material utilization, and lowers production costs.
[0042] The above description merely illustrates the preferred technical solution of this utility model, and while the description is relatively specific and detailed, it should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and this utility model also intends to include these modifications and variations.
Claims
1. A TPE granule mixing device, characterized in that, The system includes a stirring assembly; the stirring assembly includes a stirring tank, a stirring motor mounted on the stirring tank, a stirring roller mounted on the stirring motor, a rotating frame mounted on the stirring roller, a stirring scraper plate with one end mounted on the rotating frame and the other end extending toward the side wall of the stirring tank, and stirring blades wound around the stirring roller; the rotating frame includes a vertical section mounted on the stirring roller and an inclined section with one end mounted on the stirring roller and the other end connected to the free end of the vertical section.
2. The TPE bead stirring device of claim 1, wherein, There are multiple stirring scraper plates, which are respectively disposed on the vertical section and the inclined section.
3. The TPE bead mixing apparatus of claim 2, wherein, The stirring assembly further includes a stirring inlet disposed on the stirring tank and a stirring outlet disposed on the stirring tank at one end opposite to the stirring inlet.
4. The TPE bead mixing apparatus of claim 3, wherein, The TPE granule mixing device further includes an extrusion assembly disposed on the mixing outlet; the extrusion assembly includes an extrusion can mounted on the mixing outlet, an extrusion drive motor mounted on the extrusion can, and an extruder mounted on the extrusion drive motor.
5. The TPE bead mixing apparatus of claim 4, wherein, The extrusion drive motor further includes a rotating rod; the extrusion component includes an extrusion roller mounted on the rotating rod and extrusion blades wound on the extrusion roller; the diameter of the extrusion roller gradually increases from the side near the rotating rod to the side away from the rotating rod; the extrusion assembly further includes an extrusion feed port disposed on the extrusion tank and an extrusion discharge port disposed on the extrusion tank; the extrusion feed port is configured to communicate with the stirring discharge.
6. The TPE granule mixing device according to claim 5, characterized in that, The TPE granule mixing device further includes a cooling component disposed on one side of the extrusion outlet; the cooling component includes a cooling chamber with openings on both sides, a cooling guide disposed in the cooling chamber, and a cooling component disposed in the cooling chamber; the opening on one side of the cooling chamber is positioned opposite to the extrusion outlet.
7. The TPE granule mixing device according to claim 6, characterized in that, The cooling guide includes a support rod installed on the cooling chamber and a guide rod installed on the support rod for guiding the strip material out of the extrusion outlet; the cooling component includes a cooling fan disposed on one side of the cooling chamber, an air outlet disposed on the other side of the cooling fan, and an exhaust fan installed on the air outlet.
8. The TPE bead mixing apparatus of claim 7, wherein, The cooling component further includes a water-cooled tank disposed on the cooling chamber and cooling water disposed in the water-cooled tank; the water-cooled tank is disposed along the length of the cooling chamber.
9. The TPE bead mill agitator of claim 8, wherein, The TPE granule mixing device further includes a material trimming assembly disposed on the cooling chamber on the side opposite to the extrusion inlet; the material trimming assembly includes a trimming port disposed on the cooling chamber, a trimming drive motor disposed on the cooling chamber, and a trimming cutter mounted on the trimming drive motor; the trimming drive motor is mounted at the bottom of the cooling chamber, and the trimming cutter is mounted on the trimming drive motor and extends from the trimming port toward the cooling chamber.
10. The TPE bead mill apparatus of claim 9, wherein, The TPE granule mixing device further includes a pelletizing assembly installed on one side of the material trimming assembly; the pelletizing assembly includes a pelletizing conveyor belt, a pelletizing lifting component installed on the pelletizing conveyor belt, a pelletizing drive motor installed on the lifting component, and a pelletizing cutter installed on the pelletizing drive motor.