Crosslinking coagent raw material vacuum dewatering device

Abstract

The utility model relates to the technical field of crosslinking auxiliary raw material vacuum dehydration, especially to a kind of crosslinking auxiliary raw material vacuum dehydration device, it is converted to the heat energy generated in dehydration process by being arranged drive mechanism and transmission mechanism, not only can it be driven to be needed to the reverse compensation itself, but also can external energy storage device is carried out energy storage;Including stirring mechanism;Still including heating mechanism, drive mechanism, transmission mechanism and conversion mechanism, heating mechanism is installed on stirring mechanism, drive mechanism is installed on stirring mechanism upper end, transmission mechanism is installed in stirring mechanism, conversion mechanism is installed on stirring mechanism upper end;The stirring mechanism is stirred, heating mechanism is heated, drive mechanism is driven, transmission mechanism is driven, and conversion mechanism is converted.

Description

Technical Field

[0001] This utility model relates to the technical field of vacuum dehydration of crosslinking aid raw materials, and in particular to a vacuum dehydration device for crosslinking aid raw materials. Background Technology

[0002] Crosslinking aids are chemical substances used to promote or participate in the crosslinking reaction of polymer materials. They transform linear polymers into three-dimensional network structures by forming chemical bonds, thereby significantly improving the strength, heat resistance, wear resistance, solvent resistance and other properties of the materials.

[0003] In existing vacuum dehydration devices for crosslinking aid raw materials, such as the high-efficiency onion dehydration device disclosed in utility model patent application number 202422792772.5, the rotating shaft is connected to one end of the screen cylinder by a limiting post that passes through the connecting hole in the fixed component. The onion raw material to be dehydrated is placed in the screen cylinder, and the drying fan is started to dry and dehydrate the material in the screen cylinder with hot air. At the same time, the screen cylinder rotates synchronously and uniformly under the action of the rotating shaft driven by the rotating motor. The drying fan blows the raw material upward from bottom to top, which improves the drying efficiency and speeds up the production.

[0004] However, during the vacuum dehydration process of the crosslinking aid raw materials, the energy generated by water evaporation is lost during processing, resulting in energy waste. Utility Model Content

[0005] To solve the above-mentioned technical problems, this utility model provides a vacuum dehydration device for crosslinking aid raw materials, which, by setting a driving mechanism and a transmission mechanism, can convert the heat energy generated during the vacuum dehydration process of the crosslinking aid raw materials, so as to not only replenish the driving force required by itself, but also to store energy through an external energy storage device.

[0006] This utility model discloses a vacuum dehydration device for crosslinking aid raw materials, which includes a stirring mechanism; it also includes a heating mechanism, a driving mechanism, a transmission mechanism, and a conversion mechanism. The heating mechanism is installed on the stirring mechanism, the driving mechanism is installed at the upper end of the stirring mechanism, the transmission mechanism is installed inside the stirring mechanism, and the conversion mechanism is installed at the upper end of the stirring mechanism. The stirring mechanism stirs, the heating mechanism heats, the driving mechanism drives, the transmission mechanism transmits, and the conversion mechanism converts. By turning on the heating mechanism, the moisture in the material is evaporated. The driving mechanism converts the heat energy generated by the evaporation of moisture into kinetic energy for driving. The transmission mechanism transmits, the stirring mechanism accelerates the evaporation efficiency, and the conversion mechanism converts water vapor into liquid water. Thus, during the vacuum dehydration of the crosslinking aid raw material, the heat energy generated during the dehydration process can be converted, which can not only supplement the driving force required by itself, but also be connected to an external energy storage device for energy storage.

[0007] Preferably, the mixing mechanism includes an equipment chamber, a mixing shaft, a discharge gate, and a feeding port. The mixing shaft is rotatably installed inside the equipment chamber, the discharge gate is installed at the rear end of the equipment chamber, and the feeding port is installed at the rear end of the equipment chamber. Materials are added through the feeding port, the mixing shaft rotates to accelerate the evaporation efficiency, and the finished product is discharged through the discharge gate.

[0008] Preferably, the heating mechanism includes a heating chamber and a heating wire. The heating chamber is installed on the equipment chamber, and the heating wire is installed inside the heating chamber. The heating wire is heated by energizing it.

[0009] Preferably, the driving mechanism includes a steam engine, an inlet pipe, and an exhaust pipe. The steam engine is installed at the upper end of the equipment compartment. The output end of the inlet pipe is connected to the input end of the steam engine, and the input end of the inlet pipe extends into the equipment compartment. The input end of the exhaust pipe is connected to the output end of the steam engine. Steam enters the steam engine through the inlet pipe to drive the steam engine and provide power. Steam is discharged through the exhaust pipe.

[0010] Preferably, the transmission mechanism includes a crankshaft, multiple sets of connecting rods, a display panel, and two sets of bevel gears. The crankshaft is rotatably mounted inside the equipment compartment, and the multiple sets of connecting rods are rotatably mounted on the crankshaft, with each set of connecting rods being rotatably connected to the output end of the steam engine. The display panel is mounted on the crankshaft, and the two sets of bevel gears are respectively mounted on the crankshaft and the input end of the stirring shaft, with the two sets of bevel gears meshing. The steam engine provides power to drive the crankshaft to rotate in conjunction with the connecting rods. Simultaneously, the crankshaft rotates, and the two sets of bevel gears mesh to drive the stirring shaft to rotate. The motion status is displayed on the display panel, which can be replaced to connect to the energy storage device at the output end.

[0011] Preferably, the conversion mechanism includes a vacuum pump and a condenser. The vacuum pump is installed at the top of the equipment compartment, and its input end is connected to the exhaust pipe output end. The condenser is installed at the top of the equipment compartment, and its input end is connected to the vacuum pump output end. The equipment is vacuumed by turning on the vacuum pump, and the extracted water vapor is condensed and discharged by turning on the condenser.

[0012] Compared with the prior art, the beneficial effects of this utility model are as follows: by opening the heating mechanism to evaporate the moisture in the material, by driving the mechanism to convert the heat energy generated by the evaporation of moisture into kinetic energy for driving, by transmission mechanism for transmission, by stirring mechanism for stirring to accelerate the evaporation efficiency, and by conversion mechanism to convert water vapor into liquid water, the heat energy generated during the vacuum dehydration of the crosslinking aid raw material can be converted, which can not only supplement the driving required by itself, but also be connected to an external energy storage device for energy storage. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of the first isometric structure of this utility model; Figure 2 This is a schematic diagram of the second isometric structure of this utility model; Figure 3 This is a rear-view sectional axonometric structural schematic diagram of the present invention; Figure 4 This is a schematic diagram of the left-side cross-sectional axonometric structure of this utility model; Figure 5 This is a frontal sectional isometric structural schematic diagram of this utility model; The following are labels in the attached diagram: 1. Stirring mechanism; 11. Equipment chamber; 12. Stirring shaft; 13. Discharge gate; 14. Inlet; 2. Heating mechanism; 21. Heating chamber; 22. Heating wire; 3. Drive mechanism; 31. Steam engine; 32. Inlet pipe; 33. Exhaust pipe; 4. Transmission mechanism; 41. Crankshaft; 42. Connecting rod; 43. Display panel; 44. Bevel gear; 5. Conversion mechanism; 51. Vacuum pump; 52. Condensation device. Detailed Implementation

[0014] To facilitate understanding of this utility model, a more complete description will be given below with reference to the accompanying drawings. This utility model can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to make the disclosure of this utility model more thorough and complete. Example

[0015] like Figures 1 to 5 As shown, a vacuum dehydration device for crosslinking aid raw materials includes a stirring mechanism 1, a heating mechanism 2, a driving mechanism 3, a transmission mechanism 4, and a conversion mechanism 5. The heating mechanism 2 is installed on the stirring mechanism 1, the driving mechanism 3 is installed on the upper end of the stirring mechanism 1, the transmission mechanism 4 is installed inside the stirring mechanism 1, and the conversion mechanism 5 is installed on the upper end of the stirring mechanism 1. The stirring mechanism 1 performs stirring, the heating mechanism 2 performs heating, the driving mechanism 3 performs driving, the transmission mechanism 4 performs transmission, and the conversion mechanism 5 performs conversion. The mixing mechanism 1 includes an equipment chamber 11, a mixing shaft 12, a discharge gate 13, and a filling port 14. The mixing shaft 12 is rotatably installed inside the equipment chamber 11, the discharge gate 13 is installed at the rear end of the equipment chamber 11, and the filling port 14 is installed at the rear end of the equipment chamber 11. The heating mechanism 2 includes a heating chamber 21 and a heating wire 22. The heating chamber 21 is installed on the equipment chamber 11, and the heating wire 22 is installed inside the heating chamber 21. The drive mechanism 3 includes a steam engine 31, an air inlet pipe 32, and an exhaust pipe 33. The steam engine 31 is installed at the upper end of the equipment compartment 11. The output end of the air inlet pipe 32 is connected to the input end of the steam engine 31. The input end of the air inlet pipe 32 extends into the equipment compartment 11. The input end of the exhaust pipe 33 is connected to the output end of the steam engine 31. The transmission mechanism 4 includes a crankshaft 41, multiple sets of connecting rods 42, a display panel 43, and two sets of bevel gears 44. The crankshaft 41 is rotatably mounted inside the equipment compartment 11. The multiple sets of connecting rods 42 are rotatably mounted on the crankshaft 41, and all the multiple sets of connecting rods 42 are rotatably connected to the output end of the steam engine 31. The display panel 43 is mounted on the crankshaft 41. The two sets of bevel gears 44 are respectively mounted on the crankshaft 41 and the input end of the stirring shaft 12, and the two sets of bevel gears 44 mesh. The conversion mechanism 5 includes a vacuum pump 51 and a condenser 52. The vacuum pump 51 is installed at the upper end of the equipment compartment 11, and the input end of the vacuum pump 51 is connected to the output end of the exhaust pipe 33. The condenser 52 is installed at the upper end of the equipment compartment 11, and the input end of the condenser 52 is connected to the output end of the vacuum pump 51. By energizing the heating wire 22, the moisture in the material is evaporated. Steam enters the steam engine 31 through the air inlet pipe 32, driving the steam engine 31 and providing power. Steam is discharged through the exhaust pipe 33. The power provided by the steam engine 31, in conjunction with the connecting rod 42, drives the crankshaft 41 to rotate. Simultaneously, the crankshaft 41 rotates, and the stirring shaft 12 is driven by two sets of bevel gears 44. The movement is displayed on the display panel 43, which can be replaced with an output end connected to an energy storage device. Material is added through the feeding port 14, and the rotation of the stirring shaft 12 accelerates the evaporation efficiency. The finished product is discharged through the discharge gate 13. The vacuum pump 51 is turned on to evacuate the equipment, and the condenser 52 is turned on to condense and discharge the extracted water vapor. Thus, during the vacuum dehydration of the crosslinking aid raw material, the heat energy generated during the dehydration process can be converted, which can not only replenish the driving force required by the equipment itself, but also be stored in an external energy storage device.

[0016] like Figures 1 to 5As shown, this utility model discloses a vacuum dehydration device for crosslinking aid raw materials. During operation, heating wire 22 is energized to evaporate moisture from the material. Steam enters steam engine 31 through inlet pipe 32, driving the steam engine 31 and providing power. Steam is discharged through exhaust pipe 33. The power from steam engine 31, in conjunction with connecting rod 42, drives crankshaft 41 to rotate. Simultaneously, the crankshaft 41 rotates, and two sets of bevel gears 44 mesh to drive stirring shaft 12, causing it to rotate as well. The motion is displayed on display panel 43, which can be replaced with an output end connected to an energy storage device. Material is added through inlet 14, and stirring is performed by rotating stirring shaft 12 to accelerate evaporation. The finished product is discharged through discharge gate 13. Vacuum pump 51 is activated to evacuate the equipment, and condensation device 52 is activated to condense and discharge the extracted water vapor.

[0017] The steam engine 31, vacuum pump 51, and condenser 52 of this utility model are commercially available. Technical personnel in this industry only need to install and operate them according to the accompanying instruction manual, without requiring any creative work from those skilled in the art.

[0018] The main function achieved by this utility model is: during the vacuum dehydration process of crosslinking aid raw materials, by setting up a drive mechanism and a transmission mechanism, the heat energy generated during the vacuum dehydration process of the crosslinking aid raw materials can be converted, which can not only compensate for its own drive, but also be connected to an external energy storage device for energy storage.

[0019] The above description is only a preferred embodiment of the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. A vacuum dehydration device for crosslinking aid raw materials, comprising a stirring mechanism (1); characterized in that, It also includes a heating mechanism (2), a driving mechanism (3), a transmission mechanism (4) and a conversion mechanism (5). The heating mechanism (2) is installed on the stirring mechanism (1), the driving mechanism (3) is installed on the upper end of the stirring mechanism (1), the transmission mechanism (4) is installed inside the stirring mechanism (1), and the conversion mechanism (5) is installed on the upper end of the stirring mechanism (1). The stirring mechanism (1) stirs, the heating mechanism (2) heats, the driving mechanism (3) drives, the transmission mechanism (4) transmits, and the conversion mechanism (5) converts.

2. The vacuum dehydration device for crosslinking aid raw materials as described in claim 1, characterized in that, The mixing mechanism (1) includes an equipment chamber (11), a mixing shaft (12), a discharge gate (13) and a filling port (14). The mixing shaft (12) is rotatably installed inside the equipment chamber (11), the discharge gate (13) is installed at the rear end of the equipment chamber (11), and the filling port (14) is installed at the rear end of the equipment chamber (11).

3. The vacuum dehydration device for crosslinking aid raw materials as described in claim 2, characterized in that, The heating mechanism (2) includes a heating chamber (21) and a heating wire (22). The heating chamber (21) is installed on the equipment chamber (11), and the heating wire (22) is installed inside the heating chamber (21).

4. The vacuum dehydration device for crosslinking aid raw materials as described in claim 2, characterized in that, The drive mechanism (3) includes a steam engine (31), an air inlet pipe (32), and an exhaust pipe (33). The steam engine (31) is installed at the upper end of the equipment compartment (11). The output end of the air inlet pipe (32) is connected to the input end of the steam engine (31). The input end of the air inlet pipe (32) extends into the equipment compartment (11). The input end of the exhaust pipe (33) is connected to the output end of the steam engine (31).

5. The vacuum dehydration device for crosslinking aid raw materials as described in claim 4, characterized in that, The transmission mechanism (4) includes a crankshaft (41), multiple sets of connecting rods (42), a display panel (43), and two sets of bevel gears (44). The crankshaft (41) is rotatably installed in the equipment compartment (11). The multiple sets of connecting rods (42) are rotatably installed on the crankshaft (41), and the multiple sets of connecting rods (42) are rotatably connected to the output end of the steam engine (31). The display panel (43) is installed on the crankshaft (41). The two sets of bevel gears (44) are respectively installed on the crankshaft (41) and the input end of the stirring shaft (12), and the two sets of bevel gears (44) mesh.

6. The vacuum dehydration device for crosslinking aid raw materials as described in claim 4, characterized in that, The conversion mechanism (5) includes a vacuum pump (51) and a condenser (52). The vacuum pump (51) is installed at the upper end of the equipment compartment (11), and the input end of the vacuum pump (51) is connected to the output end of the exhaust pipe (33). The condenser (52) is installed at the upper end of the equipment compartment (11), and the input end of the condenser (52) is connected to the output end of the vacuum pump (51).

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