Heat dissipation device for iron-carbon nano composite material production
By utilizing the cooperation of the heat dissipation mechanism and the main shaft in the heat dissipation device for producing iron-carbon nanocomposite materials, an efficient heat dissipation effect is achieved during the stirring process, solving the problem of poor heat dissipation of electric fans in the prior art.
Patent Information
- Application Number
- CN202422278654.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-19
- Publication Date
- 2025-10-28
- Estimated Expiration
- 2034-09-19
AI Technical Summary
The existing heat dissipation device cannot effectively discharge the heat inside the container by adding an electric fan, resulting in poor heat dissipation effect.
A heat dissipation device for the production of iron-carbon nanocomposite materials was designed. The heat dissipation mechanism and the main shaft were combined. The main shaft drove the stirring blades to stir and mix, while the speed increaser drove the fan blades to rotate at high speed, forming a negative pressure to conduct heat flow and achieve heat dissipation and cooling.
It effectively reduces the involvement of heat-generating motor equipment, improves heat dissipation efficiency, and ensures that the composite materials inside the mixing barrel can dissipate heat in time during the mixing process.
Smart Images
Figure CN223484600U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of composite material production technology, specifically a heat dissipation device for the production of iron-carbon nanocomposite materials. Background Technology
[0002] Nanocomposite materials are composite materials composed of two or more materials, at least one of which exists at the nanoscale. One method for preparing these materials is the sol-gel method, which uses inorganic substances or metal alkoxides as precursors. These raw materials are uniformly mixed in the liquid phase and subjected to hydrolysis and condensation chemical reactions to form a stable, transparent sol system in solution. During the synthesis of nanocomposite materials, the high specific surface area and activity of nanomaterials often lead to exothermic phenomena. This is because nanomaterials possess extremely high surface energy, which is released as heat during their formation or synthesis.
[0003] Currently, existing heat dissipation devices typically use electric fans to dissipate heat from inside the container. However, since electric fans require a drive motor, and the drive motor itself generates heat, the heat inside the container cannot be effectively dissipated. Utility Model Content
[0004] To address the problem of insufficient heat dissipation in existing devices, this invention provides a heat dissipation device for the production of iron-carbon nanocomposite materials.
[0005] In view of the above problems, the technical solution proposed by this utility model is as follows:
[0006] A heat dissipation device for the production of iron-carbon nanocomposite materials includes a mixing cylinder. Support frames are installed at both ends of the mixing cylinder. A circular hole is provided on one side of each support frame. A heat dissipation mechanism is inserted into the circular hole. The heat dissipation mechanism includes a cylinder. One end of the mixing cylinder is connected to the cylinder. A circular frame is installed inside the cylinder. A fan blade is rotatably connected inside the circular frame. A speed increaser is installed on one side of the cylinder. The output end of the speed increaser is drivenly connected to one side of the fan blade. A main shaft is rotatably connected inside the mixing cylinder. One end of the main shaft is connected to the input end of the speed increaser.
[0007] Furthermore, a stirring blade is fitted onto the outer wall of the main shaft, and the outer wall of the stirring blade is provided with comb teeth, one side of which is in contact with the inner wall of the mixing cylinder.
[0008] The beneficial effect of adopting the above-mentioned further solution is that the main shaft drives the stirring blades to rotate, so that the comb teeth on the outside of the stirring blades can fully stir and mix the composite material inside the mixing cylinder.
[0009] Furthermore, a low-speed motor is installed on the outer wall of the support frame, and a coupling is fitted on the output end of the low-speed motor. The low-speed motor is connected to one end of the main shaft through the coupling.
[0010] The beneficial effect of adopting the above-mentioned further solution is that by driving the coupling through the output end of the low-speed motor, the main shaft can rotate synchronously with the coupling.
[0011] Furthermore, the mixing cylinder has a feed inlet at its top, and a feed box is provided at the top of the feed inlet. The feed box includes a hopper, and the bottom of the hopper is connected to the feed box. The bottom of the feed box is connected to the top of the feed inlet.
[0012] The advantage of adopting the above-mentioned further solution is that, through the connection between the hopper and the hopper, it is convenient to inject an appropriate amount of composite material into the inlet.
[0013] Furthermore, a box plate is engaged with the top of the hopper, and handles are installed on both sides of the top of the box plate.
[0014] The advantage of adopting the above-mentioned further solution is that the top of the hopper can be covered by the cooperation of the box plate and the handle.
[0015] Furthermore, a collection box is provided at the bottom of the mixing cylinder. The collection box includes a box body, and an electric push rod is installed at the bottom of the inner part of the box body. The output end of the electric push rod is connected to a sealing plate.
[0016] The beneficial effect of adopting the above-mentioned further solution is that by pushing the sealing plate through the output end of the electric push rod, the sealing plate can seal the discharge port, thus keeping the bottom of the box tight.
[0017] Furthermore, the bottom end of the mixing cylinder is provided with a discharge port that matches the sealing plate.
[0018] The advantage of adopting the above-mentioned further solution is that the setting of the discharge port facilitates the discharge of the composite material after it has been stirred inside the mixing drum.
[0019] Furthermore, a filter screen is installed at one end of the cylinder, and a gap is provided between the filter screen and the fan blade.
[0020] The beneficial effect of adopting the above-mentioned further solution is that the filter screen 5005 makes it easier to block external impurities from entering the mixing drum.
[0021] Compared with the prior art, the beneficial effects of the present invention are:
[0022] This heat dissipation device for the production of iron-carbon nanocomposite materials, through the cooperation of the heat dissipation mechanism and the main shaft, enables the device to perform heat dissipation while mixing and stirring the composite material, effectively reducing the intervention of heat-generating motor equipment, thereby improving heat dissipation efficiency. Specifically, by causing the main shaft inside the mixing cylinder to rotate, the main shaft drives the stirring blades to perform stirring action and supplies kinetic energy to the speed increaser. Through the speed increaser's speed change process, its output end can drive the fan blades to rotate at high speed, thereby guiding the airflow inside the cylinder and creating a negative pressure inside the mixing cylinder, thereby driving the hot airflow and achieving the function of heat dissipation and cooling. Attached Figure Description
[0023] Figure 1 A perspective view of a heat dissipation device for the production of iron-carbon nanocomposite materials provided by this utility model;
[0024] Figure 2 A cross-sectional view of a heat dissipation device for the production of iron-carbon nanocomposite materials provided by this utility model;
[0025] Figure 3 A cross-sectional view of a heat dissipation device for the production of iron-carbon nanocomposite materials provided by this utility model;
[0026] Figure 4 A schematic diagram of the feed box of a heat dissipation device for the production of iron-carbon nanocomposite materials provided by this utility model;
[0027] Figure 5 This is a schematic diagram of the heat dissipation mechanism of a heat dissipation device for the production of iron-carbon nanocomposite materials provided by this utility model.
[0028] In the diagram: 100, mixing cylinder; 200, support frame; 300, collection box; 3001, box body; 3002, electric push rod; 400, feed box; 4001, hopper; 4002, material box; 4003, box plate; 4004, handle; 500, heat dissipation mechanism; 5001, cylinder; 5002, circular frame; 5003, fan blade; 5004, speed increaser; 5005, filter screen; 600, sealing plate; 700, main shaft; 800, stirring blade; 900, low-speed motor; 1000, coupling. Detailed Implementation
[0029] 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.
[0030] Example 1
[0031] Please see Figure 1-Figure 5 This utility model provides a technical solution: a heat dissipation device for the production of iron-carbon nanocomposite materials, including a mixing cylinder 100, with support frames 200 installed at both ends of the mixing cylinder 100. A circular hole is provided on one side of the support frame 200, and a heat dissipation mechanism 500 is inserted into the hole. The heat dissipation mechanism 500 includes a cylinder 5001, with one end of the mixing cylinder 100 connected to the cylinder 5001. A circular frame 5002 is installed inside the cylinder 5001, and a fan blade 5003 is rotatably connected inside the circular frame 5002. A speed increaser 5004 is installed on one side of the inside of the cylinder 5001, and the output end of the speed increaser 5004 is connected to the fan blade 5003. One side of the 003 is connected to the drive, and the main shaft 700 is rotatably connected inside the mixing cylinder 100. One end of the main shaft 700 is connected to the input end of the speed increaser 5004. By causing the main shaft 700 inside the mixing cylinder 100 to rotate, the main shaft 700 drives the stirring blade 800 to perform stirring action, and at the same time supplies kinetic energy to the speed increaser 5004. Through the speed change processing of the speed increaser 5004, its output end can drive the fan blade 5003 to rotate at high speed, thereby guiding the airflow inside the cylinder 5001 and causing a negative pressure to be formed inside the mixing cylinder 100, thereby driving the hot airflow and realizing the function of heat dissipation and cooling.
[0032] 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.
[0033] Example 2
[0034] Please see Figure 1-Figure 5As an embodiment of this utility model, further, a stirring blade 800 is fitted onto the outer wall of the main shaft 700. The outer wall of the stirring blade 800 has comb teeth, one side of which is in contact with the inner wall of the mixing cylinder 100. The main shaft 700 drives the stirring blade 800 to rotate, allowing the comb teeth on the outer side of the stirring blade 800 to fully stir and mix the composite material inside the mixing cylinder 100. A low-speed motor 900 is installed on the outer wall of the support frame 200. A coupling 1000 is fitted onto the output end of the low-speed motor 900. The low-speed motor 900 is connected to one end of the main shaft 700 via the coupling 1000, and the output end of the low-speed motor 900 drives the coupling 1000, thus... The main shaft 700 can rotate synchronously with the coupling 1000. The top of the mixing cylinder 100 is provided with a feed port, and the top of the feed port is provided with a feed box 400. The feed box 400 includes a hopper 4001. The bottom of the hopper 4001 is connected to a material box 4002. The bottom of the material box 4002 is connected to the top of the feed port. Through the connection between the hopper 4001 and the material box 4002, it is convenient to inject an appropriate amount of composite material into the feed port. The top of the hopper 4001 is engaged with a box plate 4003. Handles 4004 are installed on both sides of the top of the box plate 4003. Through the cooperation of the box plate 4003 and the handles 4004, the top of the hopper 4001 can be covered.
[0035] Example 3
[0036] Please see Figure 1-Figure 5 As an embodiment of this utility model, the bottom of the mixing cylinder 100 is provided with a collection box 300. The collection box 300 includes a box body 3001. An electric push rod 3002 is installed at the bottom of the inner part of the box body 3001. The output end of the electric push rod 3002 is connected to a sealing plate 600. The sealing plate 600 is pushed by the output end of the electric push rod 3002, so that the sealing plate 600 can seal the discharge port, making the bottom of the box body 3001 tight. The bottom end of the mixing cylinder 100 is provided with a discharge port that matches the sealing plate 600. The discharge port facilitates the discharge of the composite material after stirring inside the mixing cylinder 100. A filter screen 5005 is installed at one end of the cylinder 5001. A gap is provided between the filter screen 5005 and the fan blade 5003. The filter screen 5005 facilitates the blocking of external impurities from entering the mixing cylinder 100.
[0037] Specifically, the working principle of this heat dissipation device for the production of iron-carbon nanocomposite materials is as follows: First, the device is moved to the designated working area and started for operational testing. After ensuring normal operation, an appropriate amount of composite material is poured into the hopper 4001. The connection between the hopper 4001 and the material box 4002 facilitates the injection of an appropriate amount of composite material into the inlet. The low-speed motor 900 is started, causing its output to drive the main shaft 700 to rotate. This rotation of the main shaft 700 inside the mixing cylinder 100 drives the stirring blades 80... While the mixing action is being performed, the speed increaser 5004 is supplied with kinetic energy. Through the speed change of the speed increaser 5004, its output end can drive the fan blade 5003 to rotate at high speed, thereby guiding the airflow inside the cylinder 5001 and causing a negative pressure to be formed inside the mixing cylinder 100, thereby driving the hot airflow and realizing the function of heat dissipation and cooling. Next, by activating the electric push rod 3002, its output end drives the sealing plate 600 to move down until the discharge port at the bottom of the mixing cylinder 100 opens, thereby facilitating the discharge of the mixed composite material, which falls into the inside of the box 3001, thus completing the collection and processing.
Claims
1. A heat dissipation device for the production of iron-carbon nanocomposite materials, characterized in that, The device includes a mixing cylinder (100), with support frames (200) installed at both ends of the mixing cylinder (100). A circular hole is provided on one side of the support frame (200), and a heat dissipation mechanism (500) is inserted and connected inside the circular hole. The heat dissipation mechanism (500) includes a cylinder (5001), with one end of the mixing cylinder (100) connected to the cylinder (5001). A circular frame (5002) is installed inside the cylinder (5001), and a fan blade (5003) is rotatably connected inside the circular frame (5002). A speed increaser (5004) is installed on one side of the inside of the cylinder (5001), and the output end of the speed increaser (5004) is connected to one side of the fan blade (5003). A main shaft (700) is rotatably connected inside the mixing cylinder (100), and one end of the main shaft (700) is connected to the input end of the speed increaser (5004).
2. The heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 1, characterized in that, The outer wall of the main shaft (700) is fitted with a stirring blade (800), and the outer wall of the stirring blade (800) is provided with comb teeth, one side of which is in contact with the inner wall of the mixing cylinder (100).
3. The heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 1, characterized in that, A low-speed motor (900) is installed on the outer wall of the support frame (200). A coupling (1000) is fitted on the output end of the low-speed motor (900). The low-speed motor (900) is connected to one end of the main shaft (700) through the coupling (1000).
4. The heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 1, characterized in that, The mixing cylinder (100) has an inlet at the top, and a feed box (400) is provided at the top of the inlet. The feed box (400) includes a hopper (4001), and the bottom end of the hopper (4001) is connected to a feed box (4002). The bottom end of the feed box (4002) is connected to the top end of the inlet.
5. A heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 4, characterized in that, The top of the hopper (4001) is engaged with a box plate (4003), and handles (4004) are respectively installed on both sides of the top of the box plate (4003).
6. A heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 1, characterized in that, The bottom of the mixing cylinder (100) is provided with a collection box (300), the collection box (300) includes a box body (3001), an electric push rod (3002) is installed at the bottom of the inner side of the box body (3001), and the output end of the electric push rod (3002) is connected to a sealing plate (600).
7. A heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 6, characterized in that, The bottom end of the mixing cylinder (100) is provided with a discharge port that matches the sealing plate (600).
8. A heat dissipation device for the production of iron-carbon nanocomposite materials according to claim 1, characterized in that, A filter screen (5005) is installed at one end of the cylinder (5001), and a gap is provided between the filter screen (5005) and the fan blade (5003).