Production device of high-thermal-conductivity material
By combining a quantitative feeding mechanism with stirring blades, the problem of uneven mixing of raw materials and auxiliary materials is solved, improving the production efficiency and quality of high thermal conductivity materials and realizing automated production.
Patent Information
- Application Number
- CN202423275957.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-30
- Publication Date
- 2026-01-27
- Estimated Expiration
- 2034-12-30
AI Technical Summary
In the current production process of high thermal conductivity materials, the raw materials and auxiliary materials are not mixed evenly, resulting in low production efficiency.
The system employs a combination of a quantitative feeding mechanism and stirring blades to precisely control the amount of auxiliary materials added and mix them evenly, while a heating plate heats the raw materials.
It has improved the production efficiency and product quality of high thermal conductivity materials, reduced labor intensity, and enabled automated production.
Smart Images
Figure CN223832306U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of high thermal conductivity material production technology, specifically to a production device for high thermal conductivity materials. Background Technology
[0002] Production equipment for high thermal conductivity materials typically involves sophisticated equipment and advanced technology. The purchase and maintenance costs of this equipment are high, the production process is complex, and it requires precise control of parameters such as temperature and pressure, resulting in relatively low production efficiency. The production technology requirements are high, requiring professional technicians to operate and monitor the equipment, which places high demands on the skills of the operators. Raw materials are usually expensive, which increases production costs. The production process may also generate harmful substances that pollute the environment, requiring corresponding environmental protection measures.
[0003] In the current process of pre-processing raw materials for high thermal conductivity materials, all raw materials and auxiliary materials are added into the reactor at once, resulting in uneven mixing of the raw materials and auxiliary materials and low production efficiency of high thermal conductivity materials. Utility Model Content
[0004] To address this issue, this invention provides a production apparatus for high thermal conductivity materials, which solves the problem that during the pretreatment of raw materials for high thermal conductivity materials, all raw materials and auxiliary materials are added into the reaction vessel at once, resulting in uneven mixing of the raw materials and auxiliary materials and low production efficiency of high thermal conductivity materials.
[0005] To achieve the above objectives, this utility model provides the following technical solution: a production device for high thermal conductivity materials, comprising a reaction vessel body, wherein a partition is fixedly provided inside the reaction vessel body, and a quantitative feeding mechanism is provided inside the reaction vessel body;
[0006] The quantitative feeding mechanism includes a transfer shell located inside the reactor body. The transfer shell passes through a partition and is fixedly connected to the partition. A conveying shell is located inside the transfer shell. A transmission rod is fixedly mounted on one side of the conveying shell. The transmission rod extends out of the transfer shell and is connected to the side wall of the transfer shell via a bearing. A gear is fixedly mounted on the outside of the transmission rod. A toothed plate is provided on one side of the gear. The gear meshes with the toothed plate. A slide rod is fixedly mounted on one side of the toothed plate. A connecting frame is fixedly connected to one end of the slide rod. A pulley is connected to one side of the connecting frame via a bearing. A spring is mounted on the outside of the slide rod.
[0007] Preferably, a connecting plate is fixedly provided at the top of the inner cavity of the reactor body, and the sliding rod passes through the connecting plate and is slidably connected to the connecting plate.
[0008] Preferably, a fixing plate is fixedly provided at the top of the inner cavity of the reactor body, and the fixing plate is connected to the transmission rod through a bearing.
[0009] Preferably, a motor is fixedly installed on the top of the reactor body, a drive shaft is fixedly connected to the output end of the motor, a protruding plate is fixedly sleeved on the outside of the drive shaft, the protruding plate is in contact with the pulley, the drive shaft passes through the partition and is connected to the partition through a bearing, and multiple stirring blades are fixedly connected to the outside of the drive shaft.
[0010] Preferably, a heating plate is embedded in the inner wall of the reactor body.
[0011] Preferably, a plurality of support rods are fixedly provided on the top of the reactor body, an auxiliary material tank is fixedly provided on the top of the plurality of support rods, a feed pipe is fixedly provided at the bottom of the auxiliary material tank, and the feed pipe passes through the reactor body and is fixedly connected to the transfer shell.
[0012] Preferably, the auxiliary material tank is provided with a first feed pipe at the top.
[0013] Preferably, a second feed pipe is fixedly provided at the top of the reactor body, and a discharge port is fixedly provided at the bottom of the reactor body.
[0014] Preferably, support columns are fixedly provided at the four corners of the bottom of the reactor body.
[0015] The present invention has the following advantages:
[0016] By combining the quantitative feeding mechanism and the stirring blades, it is possible to ensure that the raw materials and auxiliary materials are uniformly mixed in the reactor. The quantitative feeding mechanism precisely controls the amount of auxiliary materials added, avoiding the problem of uneven mixing caused by adding raw materials and auxiliary materials all at once in the traditional method. This improves the production efficiency and product quality of high thermal conductivity materials, has a high degree of automation, and reduces labor intensity. Attached Figure Description
[0017] To more clearly illustrate the embodiments of this utility model or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings in the following description are merely exemplary, and those skilled in the art can derive other embodiments based on the provided drawings without creative effort.
[0018] The structures, proportions, sizes, etc. illustrated in this specification are only for the purpose of assisting those skilled in the art in understanding and reading the content disclosed herein, and are not intended to limit the implementation conditions of this utility model. Therefore, they have no substantial technical significance. Any modifications to the structure, changes in the proportions, or adjustments to the size, without affecting the effects and objectives that this utility model can produce, should still fall within the scope of the technical content disclosed in this utility model.
[0019] Figure 1A schematic diagram of the overall structure of this utility model;
[0020] Figure 2 A cross-sectional view of the overall structure provided for this utility model;
[0021] Figure 3 A perspective view of the quantitative feeding mechanism provided by this utility model;
[0022] Figure 4 A cross-sectional view of the transfer shell provided by this utility model;
[0023] Figure 5 Provided by this utility model Figure 2 Enlarged view of the structure of section A in the middle.
[0024] In the diagram: 1. Reactor body; 2. Discharge port; 3. Support column; 4. Auxiliary material tank; 5. First feed pipe; 6. Support rod; 7. Motor; 8. Second feed pipe; 9. Convex plate; 10. Baffle plate; 11. Drive shaft; 12. Stirring blade; 13. Heating plate; 14. Pulley; 15. Connecting frame; 16. Slide rod; 17. Spring; 18. Connecting plate; 19. Toothed plate; 20. Transfer shell; 21. Feed pipe; 22. Fixing plate; 23. Gear; 24. Drive rod; 25. Conveying shell. Detailed Implementation
[0025] The following specific embodiments illustrate the implementation of this utility model. Those skilled in the art can easily understand other advantages and effects of this utility model from the content disclosed in this specification. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.
[0026] See attached document Figure 1 -Appendix Figure 5 The present invention provides a production device for high thermal conductivity materials, including a reaction vessel body 1, a partition 10 fixedly provided inside the reaction vessel body 1, and a quantitative feeding mechanism provided inside the reaction vessel body 1.
[0027] The quantitative feeding mechanism includes a transfer shell 20, which is located inside the reactor body 1. The transfer shell 20 passes through and is fixedly connected to the partition 10. A conveying shell 25 is located inside the transfer shell 20. A transmission rod 24 is fixedly mounted on one side of the conveying shell 25. The transmission rod 24 extends out of the transfer shell 20 and is connected to the side wall of the transfer shell 20 via a bearing. A gear 23 is fixedly sleeved on the outside of the transmission rod 24. A toothed plate 19 is provided on one side of the gear 23, and the gear 23 meshes with the toothed plate 19. A sliding rod 16 is fixedly mounted on one side of the toothed plate 19. A connecting frame 15 is fixedly connected to one end of the sliding rod 16, and a sliding rod 16 is connected to one side of the connecting frame 15 via a bearing. The reactor body 14 has a wheel 14, a spring 17 is sleeved on the outside of the slide rod 16, a connecting plate 18 is fixedly installed at the top of the inner cavity of the reactor body 1, the slide rod 16 passes through the connecting plate 18 and is slidably connected to the connecting plate 18, a fixing plate 22 is fixedly installed at the top of the inner cavity of the reactor body 1, the fixing plate 22 is connected to the transmission rod 24 through a bearing, a motor 7 is fixedly installed at the top of the reactor body 1, a transmission shaft 11 is fixedly connected to the output end of the motor 7, a protruding plate 9 is fixedly sleeved on the outside of the transmission shaft 11, the protruding plate 9 is in contact with the pulley 14, the transmission shaft 11 passes through the partition plate 10 and is connected to the partition plate 10 through a bearing, and multiple stirring blades 12 are fixedly connected to the outside of the transmission shaft 11.
[0028] In this embodiment, the motor 7 is started, and the motor 7 controls the transmission shaft 11 to rotate. The transmission shaft 11 drives the stirring blade 12 to rotate. The stirring blade 12 stirs the raw materials inside the reactor body 1. The rotation of the transmission shaft 11 drives the convex plate 9 to rotate. The rotation of the convex plate 9 pushes the pulley 14 to move. The pulley 14 pushes the connecting frame 15 to move. The moving connecting frame 15 drives the sliding rod 16 to move. The spring 17 outside the sliding rod 16 is compressed. The sliding rod 16 drives the toothed plate 19 to move. The toothed plate 19 drives the gear 23 to rotate. The gear 23 drives the transmission rod 24 to rotate. The transmission rod 24 drives the conveying shell 25 to rotate. The auxiliary material in the conveying shell 25 is discharged into the reactor body 1 through the bottom of the transfer shell 20 and mixed with the raw material. The auxiliary material is fed intermittently by the quantitative feeding mechanism. The raw material and auxiliary material are mixed evenly by the rotation of the stirring blade 12.
[0029] In order to achieve the purpose of heating, the device adopts the following technical solution: a heating plate 13 is embedded in the inner wall of the reactor body 1, and the heating plate 13 heats the raw materials and auxiliary materials inside the reactor body 1.
[0030] In order to achieve the purpose of supplying auxiliary materials, the device adopts the following technical solution: multiple support rods 6 are fixedly provided on the top of the reactor body 1, and an auxiliary material tank 4 is fixedly provided on the top of the multiple support rods 6. A feeding pipe 21 is fixedly provided at the bottom of the auxiliary material tank 4. The feeding pipe 21 passes through the reactor body 1 and is fixedly connected to the transfer shell 20. A first feed pipe 5 is provided on the top of the auxiliary material tank 4. Auxiliary materials are added into the auxiliary material tank 4 through the first feed pipe 5, and the auxiliary materials enter the transfer shell 20 through the feeding pipe 21.
[0031] In order to achieve the purpose of feeding and discharging, the device adopts the following technical solution: a second feed pipe 8 is fixedly provided at the top of the reactor body 1, and a discharge port 2 is fixedly provided at the bottom of the reactor body 1. Raw materials are added into the reactor body 1 through the second feed pipe 8, and the mixed materials are discharged through the discharge port 2.
[0032] To achieve the purpose of support, the device adopts the following technical solution: support columns 3 are fixedly provided at the four corners of the bottom of the reactor body 1, and the support columns 3 have the function of supporting the reactor body 1.
[0033] The usage process of this utility model is as follows: When using this utility model, auxiliary materials are added into the auxiliary material tank 4 through the first feed pipe 5. The auxiliary materials enter the transfer shell 20 through the feed pipe 21 and fill the conveying shell 25. Raw materials are added into the reactor body 1 through the second feed pipe 8. The raw materials inside the reactor body 1 are heated by the heating plate 13 to melt the raw materials. The motor 7 is started, and the motor 7 controls the transmission shaft 11 to rotate. The transmission shaft 11 drives the stirring blade 12 to rotate. The stirring blade 12 stirs the raw materials inside the reactor body 1. The rotation of the transmission shaft 11 will drive the convex plate 9 to rotate. Rotation will drive pulley 14 to move, pulley 14 will drive connecting frame 15 to move, connecting frame 15 will move and drive slide rod 16 to move, spring 17 outside slide rod 16 will be compressed, slide rod 16 will drive toothed plate 19 to move, toothed plate 19 will drive gear 23 to rotate, gear 23 will drive transmission rod 24 to rotate, transmission rod 24 will drive material conveying shell 25 to rotate, so that the auxiliary material in material conveying shell 25 will be discharged into the reactor body 1 through the bottom of material transfer shell 20 and mixed with the raw material. The auxiliary material is fed intermittently by the quantitative feeding mechanism, and the raw material and auxiliary material are mixed evenly by the rotation of stirring blade 12. Finally, it is discharged through discharge port 2.
[0034] The above description is merely a preferred embodiment of this utility model. Any person skilled in the art may modify this utility model or modify it into an equivalent technical solution using the technical solutions described above. Therefore, any simple modifications or equivalent substitutions made based on the technical solutions of this utility model are within the scope of protection claimed by this utility model.
Claims
1. A production apparatus for high thermal conductivity materials, comprising a reaction vessel body (1), characterized in that: The reactor body (1) is fixedly provided with a partition (10), and the reactor body (1) is provided with a quantitative feeding mechanism; The quantitative feeding mechanism includes a transfer shell (20), which is located inside the reactor body (1). The transfer shell (20) passes through the partition (10) and is fixedly connected to the partition (10). The transfer shell (20) is provided with a conveying shell (25) inside. A transmission rod (24) is fixedly provided on one side of the conveying shell (25). The transmission rod (24) extends out of the transfer shell (20) and is connected to the side wall of the transfer shell (20) through a bearing. A gear (23) is fixedly sleeved on the outside of the transmission rod (24). A toothed plate (19) is provided on one side of the gear (23). The gear (23) meshes with the toothed plate (19). A slide rod (16) is fixedly provided on one side of the toothed plate (19). A connecting frame (15) is fixedly connected to one end of the slide rod (16). A pulley (14) is connected to one side of the connecting frame (15) through a bearing. A spring (17) is sleeved on the outside of the slide rod (16).
2. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: The reactor body (1) has a connecting plate (18) fixedly installed at the top of its inner cavity. The slide rod (16) passes through the connecting plate (18) and is slidably connected to the connecting plate (18).
3. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: A fixing plate (22) is fixedly provided at the top of the inner cavity of the reactor body (1), and the fixing plate (22) is connected to the transmission rod (24) by a bearing.
4. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: The reactor body (1) is fixedly equipped with a motor (7) at the top. The output end of the motor (7) is fixedly connected to a drive shaft (11). A protruding plate (9) is fixedly sleeved on the outside of the drive shaft (11). The protruding plate (9) is in contact with a pulley (14). The drive shaft (11) passes through a partition (10) and is connected to the partition (10) through a bearing. Multiple stirring blades (12) are fixedly connected to the outside of the drive shaft (11).
5. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: A heating plate (13) is embedded in the inner wall of the reactor body (1).
6. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: The reactor body (1) is fixedly provided with multiple support rods (6) at the top, and the multiple support rods (6) are fixedly provided with auxiliary material tanks (4) at the top. The auxiliary material tanks (4) are fixedly provided with feed pipes (21) at the bottom. The feed pipes (21) pass through the reactor body (1) and are fixedly connected to the transfer shell (20).
7. The production apparatus for a high thermal conductivity material according to claim 6, characterized in that: The auxiliary material tank (4) is provided with a first feed pipe (5) at the top.
8. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: The reactor body (1) is fixedly provided with a second feed pipe (8) at the top and a discharge port (2) at the bottom.
9. The production apparatus for a high thermal conductivity material according to claim 1, characterized in that: The reactor body (1) has support columns (3) fixed at the four corners of its bottom.