Conveying device with intelligent cooling function
By using a conveying device with intelligent cooling function and optimizing the material conveying path with magnetic thermal materials and temperature sensors, the problems of long material conveying path and uneven pyrolysis in the oxygen-free carbonization rotary kiln are solved, and efficient heat energy utilization and rapid carbonization are achieved.
Patent Information
- Application Number
- CN202511915546.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-12-18
- Publication Date
- 2026-01-23
AI Technical Summary
The existing oxygen-free carbonization rotary kiln has an excessively long material conveying path, uneven pyrolysis reaction, high mechanical loss, low thermal energy utilization, and the traditional structure results in a long carbonization cycle.
An intelligent cooling conveying device is adopted, which includes a control box, a first conveying cylinder, a second conveying cylinder, a drive assembly, and a temperature control assembly. It achieves intelligent preheating and cooling of materials through a magnetothermal material preheating plate and a temperature sensor. Combined with a stirring assembly and a filtering assembly, the material conveying path is optimized to improve thermal energy utilization and conveying efficiency.
It enables rapid heating and conveying of materials, reduces heat loss, avoids material blockage, improves heat utilization and conveying efficiency, and shortens the carbonization cycle.
Smart Images
Figure CN121376449A_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of conveying devices, in particular to a conveying device with intelligent cooling function. BACKGROUND
[0002] A carbonization furnace is an industrial equipment that converts carbon-containing materials (such as wood, straw, coconut shell, etc.) into carbon materials through high-temperature pyrolysis technology. As a core equipment for biomass energy conversion, its technology is being optimized to overcome the defects of traditional structure. The existing oxygen-free carbonization rotary furnace generally adopts a single furnace body plus spiral blade conveying structure, which results in a long material conveying path (usually more than 15 meters), uneven pyrolysis reaction, long carbonization cycle, and low thermal energy utilization rate due to mechanical loss caused by friction between the spiral blade and the furnace wall. SUMMARY
[0003] The present application aims to provide a conveying device with intelligent cooling function to solve the problems in the prior art.
[0004] To achieve the above-mentioned purpose, the present application provides the following technical scheme: a control box, a first conveying cylinder, a second conveying cylinder, a driving assembly, and a temperature control assembly are provided, the control box is electrically connected with the driving assembly, the first conveying cylinder and the second conveying cylinder are mutually nested, and the first conveying cylinder and the second conveying cylinder are installed on the driving assembly. The discharge end of the first conveying cylinder is located in the second conveying cylinder, and the feed end of the first conveying cylinder and the discharge end of the second conveying cylinder are located on the same side. The temperature control assembly includes a temperature control cylinder and a heating component, the heating component is installed on the temperature control cylinder, and the temperature control cylinder is inserted into the first conveying cylinder and the second conveying cylinder.
[0005] Supporting members are installed at both ends of the temperature control cylinder, temperature sensing elements for detecting temperature are installed on the first conveying cylinder and the second conveying cylinder, and the heating component and the temperature sensing elements are electrically connected with the control system. The temperature sensing elements are temperature sensors that detect the temperature in the first conveying cylinder and the second conveying cylinder and feed back the temperature data to the control system.
[0006] The heating component includes a coil and a preheating plate, the preheating plate is provided in multiple groups, the multiple groups of preheating plates and the coil are arranged on the temperature control cylinder, the preheating plate is made of magnetic heat material, and the coil is electrically connected with the control system.
[0007] During the material conveying process through the first and second conveyor cylinders, the control system energizes the coil to generate a magnetic field. The magnetic field generated by the coil causes the magnetic moment in the preheating plate to increase in an orderly manner, the magnetic entropy to decrease, and the temperature to rise. The preheating plate releases heat to the outside. Multiple sets of preheating plates preheat the material simultaneously and work with the temperature sensing element to preheat the material to the set temperature, so that the material can be heated to the set temperature more quickly and with higher heating efficiency.
[0008] After the material is conveyed through the first and second conveyor cylinders, the control system de-energizes the coil, the magnetic moment in the preheating plate decreases in an orderly manner, the magnetic entropy increases, the temperature drops, and heat is absorbed from the outside. The preheating plate intelligently cools the first and second conveyor cylinders so that they can convey the material again in the next operation.
[0009] The first and second conveying cylinders are inclined and there is an included angle between them. The first and second conveying cylinders are sealed together.
[0010] When the first and second conveying cylinders are inclined, the material enters from the feed end of the first conveying cylinder. The drive assembly drives the first and second conveying cylinders to rotate respectively. The material gradually moves to the right from the first conveying cylinder and enters the second conveying cylinder. As the second conveying cylinder rotates, the material gradually moves to the left through the position between the first and second conveying cylinders and is discharged from the discharge end of the second conveying cylinder.
[0011] The first and second conveying cylinders are horizontally arranged and are sealed together. Both the first and second conveying cylinders are equipped with stirring components on their inner walls.
[0012] When the first and second conveying cylinders are horizontally positioned, the material enters from the feed end of the first conveying cylinder. The drive assembly drives the first and second conveying cylinders to rotate, and both the first and second conveying cylinders drive the stirring assembly to rotate. The stirring assembly in the first conveying cylinder drives the material to move to the right, and the material enters the second conveying cylinder from the first conveying cylinder. As the second conveying cylinder rotates, the material is conveyed to the left through the position between the first and second conveying cylinders. The stirring assembly on the second conveying cylinder drives the material to move to the left and discharges it from the discharge end on the second conveying cylinder.
[0013] The stirring assembly includes stirring blades, and multiple sets of stirring blades are arranged. The multiple sets of stirring blades are equidistantly arranged along the inner walls of the first conveying cylinder and the second conveying cylinder. The stirring blades on the first conveying cylinder and the stirring blades on the second conveying cylinder are in opposite directions. The inner and outer parts of the stirring blades are made of metal and nylon, respectively.
[0014] When the control system controls the driving assembly to drive the first conveying cylinder to rotate, the first conveying cylinder drives the stirring blades to rotate, and the plurality of stirring blades drive the material to move to the right in the first conveying cylinder, and the material enters the second conveying cylinder from the first conveying cylinder. When the control system controls the driving assembly to drive the second conveying cylinder to rotate, the plurality of stirring blades in the second conveying cylinder drive the material to move to the left, and the material moves to the left between the first conveying cylinder and the second conveying cylinder under the action of the plurality of stirring blades in the second conveying cylinder, and is discharged from the discharge end of the second conveying cylinder.
[0015] The first conveying cylinder is provided with a filtering assembly on one side, the filtering assembly comprises a filtering plate and a filtering screen, the filtering plate is arranged on the first conveying cylinder, and the filtering screen is arranged on the filtering plate.
[0016] When the material moves in the first conveying cylinder, the material is filtered through the filtering screen on the filtering plate to avoid the knotted material continuing to be conveyed backward, and the stirring blades in the first conveying cylinder continuously convey and scatter the material to enable the material to pass through the filtering screen.
[0017] The first conveying cylinder is provided with a filtering assembly and a cleaning assembly, the filtering assembly comprises a filtering plate and a filtering screen, the filtering plate is arranged on the first conveying cylinder, and the filtering screen is arranged on the filtering plate. The cleaning assembly comprises a fixed cylinder, the fixed cylinder is arranged on the temperature control cylinder, a plurality of brush cylinders are movably connected to the fixed cylinder, and brush hairs are arranged on the brush cylinders.
[0018] When the material moves in the first conveying cylinder, the material is filtered through the filtering screen on the filtering plate to avoid the knotted material continuing to be conveyed backward, and the stirring blades in the first conveying cylinder continuously convey and scatter the material to enable the material to pass through the filtering screen, since the filtering plate and the filtering screen rotate with the first conveying cylinder, the plurality of brush cylinders continuously brush and wash the filtering screen to enable the filtering screen to have a better filtering effect and avoid the material blocking the filtering screen.
[0019] The fixed cylinder is movably connected to the plurality of brush cylinders through elastic elements.
[0020] The filtering screen is elastic, the two ends of the brush cylinder are in a cylindrical shape, the middle part of the brush cylinder is in a wave shape, the outer side of the brush cylinder in the cylindrical shape at the two ends is in a toothed structure, the brush cylinder in the cylindrical shape at the two ends is engaged with the filtering plate through the toothed structure, and the filtering screen and the filtering plate drive the brush cylinder to rotate through the toothed structure when the filtering screen and the filtering plate rotate.
[0021] As the filter screen and filter plate rotate with the first conveying cylinder, the toothed structure on the brush cylinder and the toothed structure on the filter plate mesh with each other. The filter plate drives the brush cylinder to rotate through the toothed structure, causing the brush cylinder to rotate on the fixed cylinder. Since the middle part of the brush cylinder is wavy and the filter screen is elastic, the middle part of the brush cylinder frequently impacts the filter screen to achieve the cleaning treatment of the filter screen.
[0022] The drive assembly includes a drive wheel, a drive base, and a drive motor. The drive wheel is rotatably mounted on the drive base, and the output shaft of the drive motor is connected to the drive wheel. The drive wheel engages with the first conveying cylinder and the second conveying cylinder for transmission.
[0023] When materials need to be conveyed, the control system drives the drive wheel to rotate via the drive motor. The drive wheel then drives the first conveying cylinder and the second conveying cylinder to rotate, thus enabling the conveying of materials through the first and second conveying cylinders.
[0024] Compared with the prior art, the beneficial effects of the present invention are: 1. Material conveying via a "U" shaped trajectory improves thermal energy utilization. The drive assembly rotates the first and second conveyor cylinders, causing the material to be conveyed along a "U" shaped trajectory. This reduces the required length of the conveying process in the carbonization furnace, minimizes heat loss, and improves thermal energy utilization.
[0025] 2. Intelligent preheating and cooling improve material heating and conveying efficiency. During material conveying through the first and second conveyor cylinders, the control system energizes the coils to generate a magnetic field. This magnetic field causes the magnetic moment in the preheating plates to increase in an orderly manner, the magnetic entropy to decrease, and the temperature to rise. The preheating plates release heat to the outside. Multiple preheating plates simultaneously preheat the material, working in conjunction with temperature sensing elements to preheat the material to the set temperature, facilitating subsequent heating and enabling faster and more efficient heating. After the material has passed through the first and second conveyor cylinders, the control system de-energizes the coils. The magnetic moment in the preheating plates decreases in an orderly manner, the magnetic entropy increases, and the temperature drops. Heat is absorbed from the outside, and the preheating plates intelligently cool the first and second conveyor cylinders, ensuring they can convey material again in the next cycle and improving overall material conveying efficiency.
[0026] 3. The mixing component simultaneously achieves material conveying, material dispersing, and material heating. The rotation of the mixing blades causes the metal material inside the blades to cut the magnetic lines of the coils, generating heat in the blades. This heat, dispersing, and conveying of the material allows it to pass through the carbonization furnace more quickly and effectively.
[0027] 4. The filter treatment and cleaning treatment to avoid material blocking caused by material knotting. When the material moves in the first conveying cylinder, the material is filtered through the filter screen on the filter plate to avoid the knotted material continuing to be conveyed backward, the stirring blade in the first conveying cylinder continuously conveys and scatters the material to enable the material to pass through the filter screen; when the filter screen and the filter plate rotate with the first conveying cylinder, the tooth-shaped structure on the brush cylinder and the tooth-shaped structure on the filter plate mesh with each other, the filter plate drives the brush cylinder to rotate through the tooth-shaped structure, the brush cylinder rotates on the fixed cylinder, and since the middle part of the brush cylinder is wave-shaped and the filter screen is elastic, the middle part of the brush cylinder frequently impacts the filter screen to realize the cleaning treatment of the filter screen. BRIEF DESCRIPTION OF DRAWINGS
[0028] Figure 1 is a structural schematic diagram of the whole application; Figure 2 is a structural schematic diagram of the first embodiment of the application; Figure 3 is a structural schematic diagram of the second embodiment of the application; Figure 4 is a structural schematic diagram of the third embodiment of the application; Figure 5 is a structural schematic diagram of the fourth embodiment of the application; Figure 6 is Figure 5 is a partial enlarged view of the A area in the middle part; Figure 7 is Figure 5 is a structural schematic diagram of the filter assembly in the middle part; Figure 8 is a structural schematic diagram of the fifth embodiment of the application; Figure 9 is Figure 8 is a partial enlarged view of the B area in the middle part; Figure 10 is Figure 9 is a structural schematic diagram of the cleaning assembly in the middle part; Figure 11 is a structural schematic diagram of the sixth embodiment of the application; Figure 12 is a structural schematic diagram of the seventh embodiment of the application; Figure 13 is a structural schematic diagram of the driving assembly in the application.
[0029] In the diagram: 1. Control box; 11. First conveying cylinder; 111. Feeding end; 12. Second conveying cylinder; 121. Discharge end; 13. Filter assembly; 131. Filter plate; 132. Filter screen; 2. Drive assembly; 21. Drive wheel; 22. Drive base; 23. Drive motor; 3. Temperature control assembly; 31. Temperature control cylinder; 311. Support component; 4. Stirring assembly; 41. Stirring blade; 5. Cleaning assembly; 51. Fixing cylinder; 52. Brush cylinder. Detailed Implementation
[0030] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0031] like Figure 1 As shown, this invention provides a technical solution for a conveying device with intelligent cooling function, including a control box 1, a first conveying cylinder 11, a second conveying cylinder 12, a drive assembly 2, and a temperature control assembly 3. The control box 1 is electrically connected to the drive assembly 2. The first conveying cylinder 11 and the second conveying cylinder 12 are nested together and mounted on the drive assembly 2. The nested design of the first conveying cylinder 11 and the second conveying cylinder 12 is used to convey materials. The material conveying trajectory is similar to a "U" shape, reducing the overall length of the conveying device and concentrating the heating energy. To reduce heat loss and improve heat utilization; the discharge end of the first conveying cylinder 11 is located inside the second conveying cylinder 12, and the feed end 111 of the first conveying cylinder 11 and the discharge end 121 of the second conveying cylinder 12 are located on the same side; the temperature control component 3 includes a temperature control cylinder 31 and a heating component, the heating component is installed on the temperature control cylinder 31, and the temperature control cylinder 31 is inserted through the first conveying cylinder 11 and the second conveying cylinder 12; the heating component includes a coil and a preheating plate, and multiple sets of preheating plates are provided. Multiple sets of preheating plates and coils are provided on the temperature control cylinder 31. The preheating plate is made of magnetothermal material, and the coil is electrically connected to the control system.
[0032] During the material conveying process through the first conveying cylinder 11 and the second conveying cylinder 12, the control system energizes the coil to generate a magnetic field. The magnetic field generated by the coil causes the magnetic moment in the preheating plate to increase in an orderly manner, the magnetic entropy to decrease, and the temperature to rise. The preheating plate releases heat to the outside. Multiple sets of preheating plates preheat the material simultaneously and work with the temperature sensing element to preheat the material to the set temperature, so that the material can be heated to the set temperature more quickly and with higher heating efficiency.
[0033] After the material is conveyed through the first conveying cylinder 11 and the second conveying cylinder 12, the control system de-energizes the coil, the magnetic moment in the preheating plate decreases in an orderly manner, the magnetic entropy increases, the temperature drops, and heat is absorbed from the outside. The preheating plate intelligently cools the first conveying cylinder 11 and the second conveying cylinder 12 so that the first conveying cylinder 11 and the second conveying cylinder 12 can convey the material again.
[0034] As attached Figure 1 and attached Figure 13 As shown, the drive assembly 2 includes a drive wheel 21, a drive base 22 and a drive motor 23. The drive wheel 21 is rotatably mounted on the drive base 22. The output shaft of the drive motor 23 is connected to the drive wheel 21. The drive wheel 21 engages with the first conveying cylinder 11 and the second conveying cylinder 12 for transmission.
[0035] When materials need to be conveyed, the control system drives the drive wheel 21 to rotate via the drive motor 23. The drive wheel 21 drives the first conveying cylinder 11 and the second conveying cylinder 12 to rotate respectively. Materials can be conveyed through the first conveying cylinder 11 and the second conveying cylinder 12. Example
[0036] As attached Figure 2 As shown, the temperature control component 3 includes a temperature control cylinder 31 and a heating element. The heating element is installed on the temperature control cylinder 31, which is inserted through the first conveying cylinder 11 and the second conveying cylinder 12. The heating element includes a coil and a preheating plate. Multiple sets of preheating plates are provided, and multiple sets of preheating plates and coils are arranged on the temperature control cylinder 31. The preheating plate is made of a magnetothermal material, and the coil is electrically connected to the control system.
[0037] During the material conveying process through the first conveying cylinder 11 and the second conveying cylinder 12, the control system energizes the coil to generate a magnetic field. The magnetic field generated by the coil causes the magnetic moment in the preheating plate to increase in an orderly manner, the magnetic entropy to decrease, and the temperature to rise. The preheating plate releases heat to the outside. Multiple sets of preheating plates preheat the material simultaneously and work with the temperature sensing element to preheat the material to the set temperature, so that the material can be heated to the set temperature more quickly and with higher heating efficiency.
[0038] After the material is conveyed through the first conveying cylinder 11 and the second conveying cylinder 12, the control system de-energizes the coil, the magnetic moment in the preheating plate decreases in an orderly manner, the magnetic entropy increases, the temperature drops, and heat is absorbed from the outside. The preheating plate intelligently cools the first conveying cylinder 11 and the second conveying cylinder 12 so that the first conveying cylinder 11 and the second conveying cylinder 12 can convey the material again. Example
[0039] As attached Figure 3As shown, on the basis of the first embodiment, the temperature control assembly 3 is deleted, the first conveying cylinder 11 and the second conveying cylinder 12 are inclinedly arranged, and the first conveying cylinder 11 and the second conveying cylinder 12 are sealingly connected.
[0040] When the first conveying cylinder 11 and the second conveying cylinder 12 are inclinedly arranged, the material enters from the feeding end 111 of the first conveying cylinder 11, the driving assembly 2 drives the first conveying cylinder 11 and the second conveying cylinder 12 to rotate, respectively, the material gradually moves right in the first conveying cylinder 11 and enters the second conveying cylinder 12, and along with the rotation of the second conveying cylinder 12, the material gradually moves left through the position between the first conveying cylinder 11 and the second conveying cylinder 12 and is discharged from the discharging end 121 of the second conveying cylinder 12. Embodiment
[0041] As shown in the accompanying drawings, Figure 4 As shown, the first conveying cylinder 11 and the second conveying cylinder 12 are horizontally arranged, the first conveying cylinder 11 and the second conveying cylinder 12 are sealingly connected, and the inner walls of the first conveying cylinder 11 and the second conveying cylinder 12 are both provided with the stirring assembly 4.
[0042] When the first conveying cylinder 11 and the second conveying cylinder 12 are horizontally arranged, the material enters from the feeding end 111 of the first conveying cylinder 11, the driving assembly 2 drives the first conveying cylinder 11 and the second conveying cylinder 12 to rotate, respectively, the first conveying cylinder 11 and the second conveying cylinder 12 both drive the stirring assembly 4 to rotate, the stirring assembly 4 in the first conveying cylinder 11 drives the material to move right, the material enters the second conveying cylinder 12 from the first conveying cylinder 11, along with the rotation of the second conveying cylinder 12, the material is conveyed left through the position between the first conveying cylinder 11 and the second conveying cylinder 12, the stirring assembly 4 on the second conveying cylinder 12 drives the material to move left and is discharged from the discharging end 121 of the second conveying cylinder 12.
[0043] The stirring assembly 4 comprises stirring blades 41, the stirring blades 41 are provided in multiple groups, the multiple groups of stirring blades 41 are equidistantly arranged along the inner walls of the first conveying cylinder 11 and the second conveying cylinder 12, the directions of the stirring blades 41 on the first conveying cylinder 11 and the second conveying cylinder 12 are opposite, and the inside and the outside of the stirring blades 41 are respectively made of metal material and nylon material.
[0044] When the control system controls the driving assembly 2 to drive the first conveying cylinder 11 to rotate, the first conveying cylinder 11 drives the stirring blades 41 to rotate, the multiple groups of stirring blades 41 drive the material to move right in the first conveying cylinder 11, and the material enters the second conveying cylinder 12 from the first conveying cylinder 11; When the control system controls the driving assembly 2 to drive the second conveying cylinder 12 to rotate, the plurality of groups of stirring blades 41 in the second conveying cylinder 12 drive the material to move to the left, and the material moves to the left between the first conveying cylinder 11 and the second conveying cylinder 12 under the action of the plurality of groups of stirring blades 41 in the second conveying cylinder 12, and is discharged from the discharge end 121 of the second conveying cylinder 12. Embodiment
[0045] As shown in FIGS. 1, 2 and 3, the first conveying cylinder 11 is provided with a plurality of groups of stirring blades 41, and the second conveying cylinder 12 is provided with a plurality of groups of stirring blades 41. Figure 5 , FIGS. 4 and 5, on the basis of Embodiment Three, a filtering assembly 13 is added, the first conveying cylinder 11 is provided with the filtering assembly 13, the filtering assembly 13 comprises a filtering plate 131 and a filtering screen 132, the filtering plate 131 is arranged on the first conveying cylinder 11, and the filtering screen 132 is arranged on the filtering plate 131. Figure 6 Figure 7 When the material moves in the first conveying cylinder 11, the material is filtered through the filtering screen 132 on the filtering plate 131 to avoid the knotted material continuing to be conveyed backward, and the stirring blades 41 in the first conveying cylinder 11 continuously convey and scatter the material to enable the material to pass through the filtering screen 132. Embodiment
[0046] As shown in FIGS. 6, 7 and 8, on the basis of Embodiment Four, a cleaning assembly 5 is added, the first conveying cylinder 11 is provided with the filtering assembly 13 and the cleaning assembly 5, the filtering assembly 13 comprises the filtering plate 131 and the filtering screen 132, the filtering plate 131 is arranged on the first conveying cylinder 11, and the filtering screen 132 is arranged on the filtering plate 131.
[0047] As shown in FIGS. 6, 7 and 8, on the basis of Embodiment Four, a cleaning assembly 5 is added, the first conveying cylinder 11 is provided with the filtering assembly 13 and the cleaning assembly 5, the filtering assembly 13 comprises the filtering plate 131 and the filtering screen 132, the filtering plate 131 is arranged on the first conveying cylinder 11, and the filtering screen 132 is arranged on the filtering plate 131. Figure 8 The cleaning assembly 5 comprises a fixed cylinder 51, the fixed cylinder 51 is arranged on the temperature control cylinder 31, a plurality of groups of brush cylinders 52 are movably connected to the fixed cylinder 51, and brush hairs are arranged on the brush cylinders 52. Figure 9 Figure 10
[0048] As the material moves within the first conveying cylinder 11, it is filtered through the filter screen 132 on the filter plate 131 to prevent tangled material from continuing to be conveyed. The stirring blades 41 within the first conveying cylinder 11 continuously convey and disperse the material, allowing it to pass through the filter screen 132. Since the filter plate 131 and filter screen 132 rotate with the first conveying cylinder 11, multiple sets of brush cylinders 52 continuously brush the filter screen 132 to ensure a good filtration effect and prevent material from tangling. The filter screen 132 is clogged; the fixed cylinder 51 is movably connected to multiple sets of brush cylinders 52 through an elastic element; the filter screen 132 is elastic, the two ends of the brush cylinder 52 are cylindrical, the middle part of the brush cylinder 52 is wavy, the outer side of the cylindrical brush cylinder 52 at both ends has a toothed structure, the cylindrical brush cylinder 52 at both ends engages with the filter plate 131 through the toothed structure, when the filter screen 132 and the filter plate 131 rotate, the filter screen 132 and the filter plate 131 drive the brush cylinder 52 to rotate through the toothed structure.
[0049] When the filter screen 132 and the filter plate 131 rotate with the first conveying cylinder 11, the toothed structure on the brush cylinder 52 and the toothed structure on the filter plate 131 mesh with each other. The filter plate 131 drives the brush cylinder 52 to rotate through the toothed structure, so that the brush cylinder 52 rotates on the fixed cylinder 51. Since the middle part of the brush cylinder 52 is wavy and the filter screen 132 is elastic, the middle part of the brush cylinder 52 frequently hits the filter screen 132 to achieve the cleaning treatment of the filter screen 132. Example
[0050] As attached Figure 11 As shown, based on embodiment five, an optimization is made by adding a temperature control component 3. The temperature control component 3 includes a temperature control cylinder 31 and a heating element. The heating element is mounted on the temperature control cylinder 31, which is inserted through the first conveying cylinder 11 and the second conveying cylinder 12. The heating element includes a coil and a preheating plate. Multiple sets of preheating plates are provided, and multiple sets of preheating plates and coils are arranged on the temperature control cylinder 31. The preheating plate is made of a magnetothermal material, and the coil is electrically connected to the control system. The magnetic field generated by the coil heats the preheating plate. The stirring blade 41 in the stirring component 4 will cut the magnetic field lines within the magnetic field of the coil, and the stirring blade 41 will heat up to provide auxiliary heating for the material. At this time, the material is heated simultaneously by the preheating plate and the stirring blade 41.
[0051] Support members 311 are installed at both ends of the temperature control cylinder 31. Temperature sensing elements for detecting temperature are installed on both the first conveying cylinder 11 and the second conveying cylinder 12. The heating component and the temperature sensing elements are electrically connected to the control system. The temperature sensing element is a temperature sensor, which detects the temperature inside the first conveying cylinder 11 and the second conveying cylinder 12 and feeds the temperature data back to the control system. Example
[0052] As attached Figure 12The cleaning assembly 5 is deleted, as shown, on the basis of the optimization of embodiment six.
[0053] Working principle: the workers deliver the materials into the feeding end 111 of the first conveying cylinder 11, the control system drives the first conveying cylinder 11 and the second conveying cylinder 12 to rotate through the driving assembly 2, the first conveying cylinder 11 and the second conveying cylinder 12 cooperate to deliver the materials in the "U" track, sequentially make the materials from the first conveying cylinder 11 into the second conveying cylinder 12, move left from the position between the first conveying cylinder 11 and the second conveying cylinder 12, and discharge from the discharging end 121 on the second conveying cylinder 12, to realize the delivery of the materials.
[0054] It is obvious for those skilled in the art that the present application is not limited to the details of the above exemplary embodiments, and can be realized in other specific forms without departing from the spirit or essential characteristics of the present application. Therefore, the embodiments should be regarded as exemplary and non-limiting, the scope of the present application is defined by the appended claims rather than the above description, and all changes falling within the meaning and scope of the equivalent elements of the claims are intended to be included in the present application. Any reference signs in the claims should not be regarded as limiting the involved claims.
Claims
1. A conveyor device with intelligent cooling function, characterized in that: The utility model provides a kind of control box (1), first conveying cylinder (11), second conveying cylinder (12), drive assembly (2) and temperature control assembly (3), the control box (1) is electrically connected with drive assembly (2), the first conveying cylinder (11) and second conveying cylinder (12) are mutually nested, the first conveying cylinder (11) and second conveying cylinder (12) are installed on drive assembly (2); The discharge end of the first conveying cylinder (11) is located in the second conveying cylinder (12), and the feed end (111) of the first conveying cylinder (11) and the discharge end (121) of the second conveying cylinder (12) are located on the same side. The temperature control assembly (3) includes a temperature control cylinder (31) and a heating component, the heating component is installed on the temperature control cylinder (31), and the temperature control cylinder (31) is inserted into the first conveying cylinder (11) and the second conveying cylinder (12).
2. The conveyor device with intelligent cooling function according to claim 1, characterized in that: Both ends of the temperature control cylinder (31) are provided with support members (311), and temperature sensing elements for detecting temperature are installed on the first conveying cylinder (11) and the second conveying cylinder (12).
3. The conveyor device with intelligent cooling function according to claim 1, characterized in that: The first conveying cylinder (11) and the second conveying cylinder (12) are inclined, there is an included angle between the first conveying cylinder (11) and the second conveying cylinder (12), and the first conveying cylinder (11) and the second conveying cylinder (12) are sealingly connected.
4. The delivery device with intelligent cooling function of claim 1, wherein: The first conveying cylinder (11) and the second conveying cylinder (12) are horizontally arranged, the first conveying cylinder (11) and the second conveying cylinder (12) are sealingly connected, and stirring assemblies (4) are arranged on the inner walls of the first conveying cylinder (11) and the second conveying cylinder (12).
5. The delivery device with intelligent cooling function according to claim 4, wherein: The stirring assembly (4) includes stirring blades (41), the stirring blades (41) are arranged in multiple groups, the multiple groups of stirring blades (41) are equidistantly arranged along the inner walls of the first conveying cylinder (11) and the second conveying cylinder (12), the directions of the stirring blades (41) on the first conveying cylinder (11) and the second conveying cylinder (12) are opposite, and the inner part and the outer part of the stirring blades (41) are made of metal and nylon respectively.
6. The delivery device with intelligent cooling function of claim 1, wherein: A filter assembly (13) is installed on one side of the first conveying cylinder (11), the filter assembly (13) includes a filter plate (131) and a filter screen (132), the filter plate (131) is arranged on the first conveying cylinder (11), and the filter screen (132) is arranged on the filter plate (131).
7. The delivery device with intelligent cooling function of claim 1, wherein: A filter assembly (13) and a cleaning assembly (5) are installed on the first conveying cylinder (11), the filter assembly (13) includes a filter plate (131) and a filter screen (132), the filter plate (131) is arranged on the first conveying cylinder (11), and the filter screen (132) is arranged on the filter plate (131). The cleaning assembly (5) includes a fixed cylinder (51), the fixed cylinder (51) is arranged on the temperature control cylinder (31), a plurality of brush cylinders (52) are movably connected to the fixed cylinder (51), and bristles are arranged on the brush cylinders (52).
8. The delivery device with intelligent cooling function according to claim 7, wherein: The fixed cylinder (51) is movably connected with a plurality of brush cylinders (52) through elastic members.
9. The delivery device with intelligent cooling function of claim 7, wherein: The filter screen (132) is elastic, the two ends of the brush cylinder (52) are cylindrical, the middle part of the brush cylinder (52) is wavy, the outer side of the two-end cylindrical brush cylinder (52) is a toothed structure, the two-end cylindrical brush cylinder (52) is engaged with the filter plate (131) through the toothed structure, and when the filter screen (132) and the filter plate (131) rotate, the filter screen (132) and the filter plate (131) drive the brush cylinder (52) to rotate through the toothed structure.
10. The delivery device with intelligent cooling functionality of claim 1, wherein: The driving assembly (2) comprises a driving wheel (21), a driving seat (22) and a driving motor (23), the driving wheel (21) is rotationally arranged on the driving seat (22), the output shaft of the driving motor (23) is connected with the driving wheel (21), and the driving wheel (21) is engaged with the first conveying cylinder (11) and the second conveying cylinder (12) for transmission.