A kind of extruded strip cooling device for intelligent processing of chemical fiber rope net

Abstract

The present invention relates to the technical field of chemical fiber rope net processing, and specifically to an extrusion cooling device for intelligent processing of chemical fiber rope nets, comprising: a processing box; an extruder, the extruder is fixedly connected and arranged on the outside of the processing box, and the output end is connected to the inside of the processing box; a push-and-swing cooling unit, the push-and-swing cooling unit is connected to the processing box; a circulating cooling unit, the circulating cooling unit is connected to the processing box and to the push-and-swing cooling unit; wherein the push-and-swing cooling unit comprises: a swing cooling component, a jacking and pushing component, an air blowing heat dissipation component and an inductive drive control component, by arranging the push-and-swing cooling unit and cooperating with the circulating cooling unit, the chemical fiber strips can be avoided from accumulating in the equipment, and the circulating flow of the cooling liquid can be realized, and the cooling of the cooling liquid can be completed during the flow, so that the chemical fiber strips can be fully in contact with the cooling liquid, thereby ensuring the consistency of cooling, greatly improving the cooling effect of the equipment, and facilitating improving the processing efficiency.

Description

Technical Field

[0001] The invention relates to the technical field of chemical fiber rope net processing, in particular to an extrusion cooling device for intelligent processing of chemical fiber rope nets. Background Art

[0002] In the process of chemical fiber rope net production, the crushed material needs to be screened and then sent to the extruder for extrusion. The formed strips enter the granulator for granulation, and then enter the next process for the production of chemical fiber rope net. After the extruder extrude the strips, it needs to be cooled quickly.

[0003] When cooling down chemical fiber strips, the existing cooling device usually passes the discharge pipe of the extruded strip into the interior of the cooling box, and then the chemical fiber strips fall into the cooling tank through the discharge pipe, and are cooled by soaking in cold water inside the cooling tank. However, since the chemical fiber strips fall into the cooling tank through the discharge pipe, the chemical fiber strips are easily accumulated on the side of the cooling tank close to the discharge pipe, so that the coolant in the internal space of the cooling tank cannot be fully utilized, and the temperature of the coolant close to the discharge pipe side will rise rapidly, thereby reducing the cooling effect and lowering the production efficiency. Therefore, in view of the above situation, there is an urgent need to develop an extruded strip cooling device for intelligent processing of chemical fiber rope nets to overcome the shortcomings in current practical applications. Summary of the invention

[0004] The object of the present invention is to provide an extruded strip cooling device for intelligent processing of chemical fiber rope nets to solve the problems raised in the above-mentioned background technology.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] A strip extrusion cooling device for intelligent processing of chemical fiber rope nets, comprising: a processing box; an extruder, the extruder is fixedly connected to the outside of the processing box, and the output end is connected to the inside of the processing box; a push-swing cooling unit, the push-swing cooling unit is connected to the processing box, and is used to receive the chemical fiber strips output by the extruder, and complete the swinging circulation cooling of the chemical fiber strips; a circulating cooling unit, the circulating cooling unit is connected to the processing box and to the push-swing cooling unit, and is used to store and transport the cooling liquid, and to realize the circulation flow and repeated cooling of the cooling liquid inside the push-swing cooling unit; wherein the push-swing cooling unit comprises: a swing cooling component, a jacking and pushing component, an air blowing heat dissipation component and an induction drive control component, wherein: the swing cooling component is arranged on the outside of the output end of the extruder, and is rotatably connected to the inner wall of the processing box, and Connected to the circulating cooling unit, an air blowing heat dissipation component fixedly connected to the processing box is arranged on the outer side of the top end of the swinging cooling component. The air blowing heat dissipation component and the swinging cooling component are arranged opposite to each other, and are used to cooperate with the swinging cooling component to realize multiple cooling of the chemical fiber strips and complete the air drying of the chemical fiber strips after cooling. An inductive drive control component is arranged between the air blowing heat dissipation component and the swinging cooling component. The inductive drive control component is fixedly connected to the processing box, and is used to cooperate with the air blowing heat dissipation component to drive the swinging cooling component to swing back and forth. A lifting and pushing component is also arranged between the swinging cooling component and the processing box. The lifting and pushing component is connected to the processing box and to the swinging cooling component, and is used to cooperate with the reciprocating swing of the swinging cooling component to realize intermittent pushing of the chemical fiber strips located on the inner side of the swinging cooling component.

[0007] Compared with the prior art, the present invention has the following beneficial effects:

[0008] When the device is running, the circulating cooling unit injects coolant into the inner side of the swinging cooling component, and the chemical fiber strips output by the extruder fall into the inner side of the swinging cooling component. The air blowing heat dissipation component can realize the rapid flow of air inside the processing box to avoid overheating of the components inside the processing box. At the same time, it can accelerate the heat dissipation effect of the equipment. The air blowing heat dissipation component can also drive the inductive drive control component, and the inductive drive control component can drive the swinging cooling component to swing back and forth. During the swinging process, the chemical fiber strips can be prevented from accumulating on one side, and as the swinging proceeds, the swinging cooling component can drive the lifting and pushing component to intermittently push the chemical fiber strips located on the inner side of the swinging cooling component, so that the chemical fiber strips can fully contact with the coolant, thereby ensuring the uniformity and effectiveness of the cooling. The circulating cooling unit can also circulate and cool the coolant inside the swinging cooling component, thereby ensuring the cooling effect and improving the cooling efficiency. As the chemical fiber strips are fully cooled, the coolant inside the swinging cooling component is discharged, and the air blowing heat dissipation component can push the chemical fiber strips located on the inner side of the swinging cooling component to the top. The chemical fiber strips on the inside of the dynamic cooling component are air-dried. Compared with the cooling device in the prior art, when cooling the chemical fiber strips, the present application usually passes the discharge pipe of the extruded strip into the interior of the cooling box, and then the chemical fiber strips fall into the cooling tank through the discharge pipe, and are cooled by immersing in cold water inside the cooling tank. However, since the chemical fiber strips fall into the cooling tank through the discharge pipe, the chemical fiber strips are easily accumulated on the side of the cooling tank close to the discharge pipe, so that the coolant in the internal space of the cooling tank cannot be fully utilized, and the temperature of the coolant close to the discharge pipe side will rise rapidly, thereby reducing the cooling effect and lowering the production efficiency. By setting a push-and-swing cooling unit in conjunction with a circulating cooling unit, the accumulation of chemical fiber strips in the equipment can be avoided, the circulation of the coolant can be realized, and the cooling of the coolant can be completed during the flow, so that the chemical fiber strips can be fully in contact with the coolant, thereby ensuring the consistency of cooling, greatly improving the cooling effect of the equipment, and helping to improve processing efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0009] Figure 1 This is a schematic diagram of the structure of the extruded cooling device for intelligent processing of chemical fiber rope nets.

[0010] Figure 2 This is a cross-sectional view of an extruded cooling device for intelligent processing of chemical fiber rope nets.

[0011] Figure 3 This is a schematic diagram of the structure of the swing cooling assembly in the extrusion cooling device for intelligent processing of chemical fiber rope nets.

[0012] Figure 4 This is a schematic diagram of the structure of the filter cover in the extrusion cooling device for intelligent processing of chemical fiber rope nets.

[0013] Figure 5 This is a structural schematic diagram of the jacking and pushing components in the extrusion cooling device for intelligent processing of chemical fiber rope nets.

[0014] Figure 6 is Figure 5 The enlarged structural schematic diagram at position A in

[0015] Figure 7 is the structural schematic diagram of the air-blowing heat dissipation component in the extrusion bar cooling device for intelligent processing of chemical fiber rope nets.

[0016] Figure 8 is the structural schematic diagram of the induction drive and control component in the extrusion bar cooling device for intelligent processing of chemical fiber rope nets.

[0017] Fig. 9 is the structural schematic diagram of the circulating temperature reduction unit in the extrusion bar cooling device for intelligent processing of chemical fiber rope nets.

[0018] In the figure: 1 - processing box, 2 - extrusion bar machine, 3 - circulating temperature reduction unit, 4 - push-swing cooling unit, 5 - swing cooling component, 6 - jacking and pushing component, 7 - air-blowing heat dissipation component, 8 - induction drive and control component, 9 - cooling box, 10 - support rotating pipe, 11 - flipping wheel, 12 - filter cover, 13 - U-shaped cleaning brush, 14 - fixed rod, 15 - receiving plate, 16 - trigger baffle, 17 - transmission box, 18 - control pipe, 19 - pressure guiding groove, 20 - jacking pipe, 21 - jacking part, 22 - triggering part, 23 - air flow generating box, 24 - air control cavity, 25 - purification tank, 26 - suction pipe, 27 - air delivery pipe, 28 - power supply, 29 - power rod, 30 - eccentric rotating wheel, 31 - fan, 32 - air-blowing groove, 33 - ventilation hole, 34 - air-blowing pipe, 35 - dust removal frame, 36 - pushing block, 37 - limiting rod, 38 - induction box, 39 - pressure regulating pipe, 40 - pressure regulating part, 41 - lifting pipe, 42 - lifting plate, 43 - induction part, 44 - regulating gear, 45 - liquid pumping pump, 46 - liquid pumping conduit, 47 - heat exchange box, 48 - return conduit, 49 - return branch pipe, 50 - water storage tank, 51 - water pump, 52 - water injection pipe, 53 - flow blocking partition plate, 54 - semiconductor refrigeration sheet, 55 - heat dissipation hole. Specific embodiments

[0019] The technical solutions of this patent will be further described in detail below in conjunction with specific embodiments.

[0020] The embodiments of this patent will be described in detail below. The examples of the embodiments are shown in the drawings, where the same or similar reference numerals represent the same or similar elements or elements with the same or similar functions from beginning to end. The embodiments described below by referring to the drawings are exemplary and are only used to explain this patent and should not be construed as a limitation of this patent.

[0021] Please refer to Figure 1 and Figure 2In one embodiment of the present invention, an extrusion cooling device for intelligent processing of chemical fiber rope nets includes: a processing box 1; an extruder 2, the extruder 2 is fixedly connected to the outside of the processing box 1, and the output end is connected to the inside of the processing box 1; a push-swing cooling unit 4, the push-swing cooling unit 4 is connected to the processing box 1, and is used to receive the chemical fiber strips output by the extruder 2, and complete the swing-type circulation cooling of the chemical fiber strips; a circulation cooling unit 3, the circulation cooling unit 3 is connected to the processing box 1, and is connected to the push-swing cooling unit 4, and is used to store and transport the cooling liquid, and realize the circulation flow and repeated cooling of the cooling liquid inside the push-swing cooling unit 4; wherein the push-swing cooling unit 4 includes: a swing cooling component 5, a jacking and pushing component 6, a blowing heat dissipation component 7 and an induction drive control component 8, wherein: the swing cooling component 5 is arranged on the outside of the output end of the extruder 2, and is connected to the inner wall of the processing box 1 It is rotatably connected and connected to the circulating cooling unit 3. An air blowing heat dissipation component 7 fixedly connected to the processing box 1 is arranged on the outer side of the top of the swinging cooling component 5. The air blowing heat dissipation component 7 is arranged opposite to the swinging cooling component 5, and is used to cooperate with the swinging cooling component 5 to realize multiple cooling of the chemical fiber strips and complete the air drying of the chemical fiber strips after cooling. An inductive drive control component 8 is arranged between the air blowing heat dissipation component 7 and the swinging cooling component 5. The inductive drive control component 8 is fixedly connected to the processing box 1, and is used to cooperate with the air blowing heat dissipation component 7 to drive the swinging cooling component 5 to swing back and forth. A lifting and pushing component 6 is also arranged between the swinging cooling component 5 and the processing box 1. The lifting and pushing component 6 is connected to the processing box 1 and to the swinging cooling component 5, and is used to cooperate with the reciprocating swing of the swinging cooling component 5 to realize intermittent pushing of the chemical fiber strips located on the inner side of the swinging cooling component 5.

[0022] In this embodiment, when the device is running, the circulating cooling unit 3 injects cooling liquid into the inner side of the swinging cooling component 4, and the chemical fiber strips output by the extruder 2 fall into the inner side of the swinging cooling component 4. The air blowing heat dissipation component 7 can realize the rapid flow of air inside the processing box 1 to avoid overheating of the temperature of the components inside the processing box 1. At the same time, it can accelerate the heat dissipation effect of the equipment. The air blowing heat dissipation component 7 can also drive the inductive drive control component 8, and the inductive drive control component 8 can drive the swinging cooling component 4 to swing back and forth. During the swinging process, the chemical fiber strips can be prevented from accumulating on one side. As the swinging proceeds, the swinging cooling component 5 can drive the lifting and pushing component 6 to intermittently push the chemical fiber strips located on the inner side of the swinging cooling component 5, so that the chemical fiber strips can fully contact with the cooling liquid, thereby ensuring the uniformity and effectiveness of the cooling. The circulating cooling unit 3 can also circulate and cool the cooling liquid inside the swinging cooling component 5 to ensure the cooling effect and improve the cooling efficiency. As the chemical fiber strips are fully cooled, the cooling liquid inside the swinging cooling component 5 is discharged, and the air blowing heat dissipation component 7 can also drive the inductive drive control component 8 to drive the swinging cooling component 4 to swing back and forth. During the swinging process, the chemical fiber strips can be prevented from accumulating on one side. As the swinging proceeds, the swinging cooling component 5 can drive the lifting and pushing component 6 to intermittently push the chemical fiber strips located on the inner side of the swinging cooling component 5, thereby ensuring the uniformity and effectiveness of the cooling. The heat dissipation component 7 can air-dry the chemical fiber strips located on the inner side of the swinging cooling component 5. Compared with the cooling device in the prior art, when cooling the chemical fiber strips, the present application usually passes the discharge pipe of the extruded strip into the interior of the cooling box, and then the chemical fiber strips fall into the cooling tank through the discharge pipe, and are cooled by soaking in cold water in the cooling tank. However, since the chemical fiber strips fall into the cooling tank through the discharge pipe, the chemical fiber strips are easily accumulated on the side of the cooling tank close to the discharge pipe, so that the coolant in the internal space of the cooling tank cannot be fully utilized, and the temperature of the coolant close to the discharge pipe side will rise rapidly, thereby reducing the cooling effect and lowering the production efficiency. By setting a push-swing cooling unit 4 and cooperating with the circulating cooling unit 3, the accumulation of chemical fiber strips in the equipment can be avoided, and the circulation of the coolant can be realized. The cooling of the coolant can also be completed during the flow, so that the chemical fiber strips can be fully in contact with the coolant, ensuring the consistency of cooling, greatly improving the cooling effect of the equipment, and helping to improve processing efficiency.

[0023] In one embodiment of the present invention, please refer to Figure 3 and Figure 4, the swing cooling assembly 5 includes: a cooling box 9, a support rotating tube 10, a turning wheel 11, a filter cover 12, a U-shaped cleaning brush 13, a fixing rod 14 and a receiving plate 15. The cooling box 9 is arranged outside the output end of the extruder 2. Support rotating tubes 10 are fixedly connected to both side walls of the cooling box 9. The other end of the support rotating tube 10 is rotatably connected to the wall of the processing box 1. And both of the support rotating tubes 10 are connected to the circulating cooling unit 3, for cooperating with the circulating cooling unit 3 to realize the circulating flow of the coolant inside the cooling box 9. A turning wheel 11 connected to the induction drive control assembly 8 is also fixedly connected to the outside of the support rotating tube 10, for cooperating with the induction drive control assembly 8 to realize the reciprocating swing of the cooling box 9. A filter cover 12 is arranged outside the connection end of the support rotating tube 10 and the cooling box 9. The filter cover 12 covers the outside of the pipe orifice of the support rotating tube 10 and is fixedly connected to the cooling box 9. A U-shaped cleaning brush 13 is abutted against the outside of the filter cover 12. The U-shaped cleaning brush 13 is fixedly connected to the processing box 1 through a fixing rod 14, for cooperating with the rotation of the support rotating tube 10 to clean the surface of the filter cover 12. A receiving plate 15 connected to the lifting and pushing assembly 6 is slidably connected to the inner bottom of the cooling box 9, for receiving the chemical fiber strips output by the extruder 2 and cooperating with the lifting and pushing assembly 6 to push the chemical fiber strips.

[0024] In this embodiment, the two support rotating tubes 10 are respectively connected to the front and rear side walls of the cooling box 9, and the other ends are rotatably connected to the inner wall of the processing box 1. Filter covers 12 are arranged outside the connection ends of the two support rotating tubes 10 and the cooling box 9. One end of the fixing rod 14 is fixedly connected to the filter cover 12, and the other end is fixedly connected to the processing box 1. Additionally, a drain port is fixedly connected to the bottom wall of the cooling box 9. A solenoid valve is fixedly connected to the inside of the drain port. Check valves are fixedly connected to the inside of both support rotating tubes 10. The chemical fiber strips fall on the receiving plate 15. The induction drive control assembly 8 cooperates with the air blowing and heat dissipation assembly 7 and the turning wheel 11 to drive the support rotating tube 10 to rotate clockwise and counterclockwise alternately. The support rotating tube 10 drives the cooling box 9 to swing. With the swing of the cooling box 9, the accumulation of chemical fiber strips can be avoided. At the same time, with the swing of the cooling box 9, the vibration of the receiving plate 15 can be realized in cooperation with the lifting and pushing assembly 6. The receiving plate 15 pushes the chemical fiber strips, so that the chemical fiber strips can be in full contact with the coolant inside the cooling box 9, ensuring the uniformity and effectiveness of cooling. Additionally, a number of filter holes are arranged on the wall of the receiving plate 15 for the coolant to flow through.

[0025] In an embodiment of the present invention, please refer to Figure 5 and Figure 6The lifting and pushing assembly 6 includes: a trigger baffle 16, a transmission box 17, a control pipe 18, a pressure-guiding groove 19 and a lifting pipe 20. The trigger baffle 16 is symmetrically arranged on the outer side of the bottom end of the cooling box 9 and is fixedly connected to the processing box 1. A transmission box 17 is arranged between the trigger baffle 16 and the cooling box 9. The transmission box 17 is fixedly connected to the cooling box 9 and is provided with a pressure-guiding groove 19 on the inner side. A lifting pipe 20 fixedly connected to the transmission box 17 is arranged between the transmission box 17 and the receiving plate 15. One end of the lifting pipe 20 is connected to the pressure-guiding groove 19, and the other end is slidably connected to the inner side thereof with a lifting member 21 fixedly connected to the receiving plate 15. A control pipe 18 is also fixedly connected to the transmission box 17. One end of the control pipe 18 is connected to the pressure-guiding groove 19, and the other end is slidably connected to the inner side thereof with a trigger member 22 arranged opposite to the trigger baffle 16, which is used to cooperate with the swing of the cooling box 9 to realize the reciprocating vibration of the receiving plate 15.

[0026] In this embodiment, the pressure-guiding groove 19, the control tube 18 and the lifting tube 20 are arranged in a one-to-one correspondence, wherein the trigger member 22 includes a first piston slidably connected to the inner side of the control tube 18 and a first push rod fixedly connected to the first piston, the first push rod is arranged opposite to the trigger baffle 16, and the lifting member 21 includes a second piston slidably connected to the inner side of the lifting tube 20 and a second push rod fixedly connected to the second piston, the other end of the second push rod is fixedly connected to the receiving plate 15, and when the cooling box 9 swings, the transmission box 17 moves along with the cooling box 9 The first push rod cooperates with the trigger baffle 16 to realize the movement of the first piston on the inner side of the control tube 18, and then drives the air located on the inner side of the pressure guiding groove 19 into the inner side of the lifting tube 20, and cooperates with the second push rod to realize the up and down reciprocating motion of the receiving plate 15, so as to realize the jumping of the chemical fiber strip, so that the chemical fiber strip can be in contact with the coolant more fully. By setting the lifting and pushing component 6, the tumbling of the chemical fiber strip can be realized in cooperation with the swing of the cooling box 9, so that the chemical fiber strip can be in contact with the coolant more fully, thereby effectively improving the cooling effect of the equipment.

[0027] In one embodiment of the present invention, please refer to Figure 7The air blowing and heat dissipation component 7 includes: an air flow generating box 23, an air control cavity 24, a purification tank 25, an air suction pipe 26, an air delivery pipe 27, an energy source 28, a power rod 29, an eccentric wheel 30, a fan 31, an air blowing groove 32, an air vent 33 and an air blowing pipe 34. The energy source 28 is fixedly connected to the top of the inner side of the processing box 1, and an air flow generating box 23 fixedly connected to the processing box 1 is arranged on the outer side of the bottom end of the energy source 28. The air flow generating box 23 is provided with an air control cavity 24 inside. The output end of the energy source 28 is fixedly connected to the power rod 29 leading to the inner side of the air control cavity 24. The power rod 29 is fixedly connected to the fan 31 arranged on the inner side of the air control cavity 24. The air flow generating box 23 is symmetrically provided with a purification tank 25. The purification tank 25 is connected to the air control cavity 24 through an air supply pipe 27, and the other end of the purification tank 25 is connected to the suction pipe 26 leading to the outside of the processing box 1, and a dust removal frame 35 connected to the purification tank 25 is arranged between the suction pipe 26 and the air supply pipe 27. A blowing groove 32 is arranged on the inner side of the bottom wall of the air flow generating box 23, and the blowing groove 32 is connected to the air control cavity 24 through a vent 33 arranged on the wall of the air flow generating box 23. A plurality of blowing pipes 34 connected to the blowing groove 32 are fixedly connected to the bottom wall of the air flow generating box 23. An eccentric rotating wheel 30 connected to the inductive drive control component 8 is also fixedly connected to the outside of the power rod 29, which is used to cooperate with the power rod 29 to drive the inductive drive control component 8 to realize the rotation of the supporting rotating tube 10.

[0028] In this embodiment, the energy supply 28 is a driving motor, and the output end of the energy supply 28 is fixedly connected to the kinetic energy rod 29. The purification tank 25 is symmetrically arranged on both sides of the air control cavity 24, and the dust removal frame 35 is clamped on the inner side of the purification tank 25. The energy supply 28 drives the kinetic energy rod 29 to rotate, and the kinetic energy rod 29 drives the fan 31 to rotate. The outside air enters the inner side of the purification tank 25 along the intake pipe 26, and the dust removal frame 35 removes dust from the air. The air after dust removal enters the inner side of the air control cavity 24 along the air supply pipe 27, and enters the inner side of the blowing tank 32 along the air vent 33, and is blown out from the blowing pipe 34. In addition, a plurality of heat dissipation holes 55 are arranged on the box walls on both sides of the bottom end of the processing box 1. The air blown out from the blowing pipe 34 is discharged from the heat dissipation holes 55, completing the heat dissipation of the internal equipment of the processing box 1. At the same time, the cooling effect on the chemical fiber strips is improved, and the chemical fiber strips can be dried after the coolant is emptied, thereby improving the processing efficiency.

[0029] In one embodiment of the present invention, please refer to Figure 8The inductive drive control assembly 8 includes: a push block 36, a limit rod 37, an inductive box 38, a voltage regulating tube 39, a lifting tube 41, a lifting plate 42 and a regulating tooth 44. The push block 36 is symmetrically arranged on both sides of the eccentric wheel 30, and is slidably connected to the limit rod 37 fixedly connected to the inner side of the processing box 1. A spring is fixedly connected between the limit rod 37 and the push block 36. An inductive box 38 fixedly connected to the processing box 1 is arranged on the outer side of the push block 36 away from the eccentric wheel 30. A voltage regulating tube 39 is arranged between the inductive box 38 and the push block 36. The voltage regulating tube 39 and the inductive box 38 are connected to the inductive box 1. The box 38 is fixedly connected, and a pressure regulating member 40 fixedly connected to the push block 36 is slidably connected inside, which is used to cooperate with the movement of the push block 36 to realize the flow of air inside the induction box 38. A lifting pipe 41 is also fixedly connected to the box wall at the bottom end of the induction box 38, and a sensing member 43 is slidably connected inside the lifting pipe 41. The other end of the sensing member 43 is fixedly connected to a lifting plate 42, and a regulating tooth 44 meshing with the flip wheel 11 is fixedly connected on the lifting plate 42, which is used to cooperate with the air flowing inside the induction box 38 to drive the flip wheel 11 to rotate to realize the swing of the cooling box 9.

[0030] In this embodiment, the regulating teeth 44 on both sides are arranged symmetrically about the center, so that after the control teeth 44 on both sides move, they can respectively drive the cooling box 9 to swing forward or reversely, the limit rod 37 is symmetrically arranged, fixedly connected to the processing box 1, and the other end is slidably connected to the pushing block 36, and a spring is fixedly connected between the limit rod 37 and the pushing block 36. The pressure regulating member 40 includes a third piston slidably connected to the inner side of the pressure regulating tube 39 and a third push rod fixedly connected to the third piston, and the other end of the third push rod is fixedly connected to the pushing block 36. The sensing member 43 includes a fourth piston slidably connected to the inner side of the lifting tube 41 and a fourth push rod fixedly connected to the fourth piston, and the other end of the fourth push rod is fixedly connected to the lifting plate 42. In addition, a positioning block is fixedly connected to the inner wall of the lifting tube 41, and the positioning block is arranged The positioning groove on the fourth push rod is slidably connected. When the power rod 29 drives the eccentric wheel 30 to rotate, the eccentric wheel 30 can push the pushing blocks 36 on both sides successively. The pushed pushing blocks 36 drive the third piston on the corresponding side to move inside the corresponding pressure regulating tube 39, and cooperate with the induction box 38 to realize the movement of the fourth piston inside the lifting tube 41, drive the lifting plate 42 to move, and the lifting plate 42 cooperates with the flip wheel 11 on the same side to realize the swing of the cooling box 9. At this time, the pushing block 36 on the other side does not contact the eccentric wheel 30. As the eccentric wheel 30 continues to rotate, the eccentric wheel 30 pushes the pushing block 36 on the other side, and repeats the above process to realize the reverse swing of the cooling box 9, and then realize the reciprocating swing of the cooling box 9, thereby avoiding the accumulation of chemical fiber strips on the inside of the cooling box 9, ensuring the effectiveness of cooling, and improving the cooling efficiency.

[0031] In one embodiment of the present invention, please refer to Fig. 9 The circulating cooling unit 3 includes: a liquid pump 45, a liquid pumping conduit 46, a heat exchange component, a return conduit 48, a water storage tank 50, a water pump 51 and a water injection pipe 52. The liquid pump 45 is fixedly connected to the bottom of the inner side of the processing box 1. The input end of the liquid pump 45 is connected to the supporting rotating pipe 10 on one side through the liquid pumping conduit 46, and the output end is connected to the heat exchange component. The heat exchange component is connected to the supporting rotating pipe 10 on the other side through the return conduit 48. The return conduit 48 is also connected to the water storage tank 50 fixedly connected to the processing box 1 through the return branch pipe 49. A water pump 51 is fixedly connected to the inside of the water storage tank 50. The output end of the water pump 51 is connected to the water injection pipe 52, and the output end of the water injection pipe 52 is arranged opposite to the cooling box 9.

[0032] In this embodiment, the liquid extraction conduit 46 and the return conduit 48 have the same structure, both consisting of two sections of steel pipes and a section of elastic hose, the steel pipes are connected to each other by an elastic hose, and the steel pipe connected to the heat exchange component is also fixedly connected to the return branch pipe 49, wherein the steel pipe connected to the support rotating tube 10 and the inner side of the return branch pipe 49 are fixedly connected and provided with an electromagnetic valve, the liquid extraction pump 45 cooperates with the liquid extraction conduit 46 and the support rotating tube 10 on one side to extract coolant from the inner side of the cooling box 9, and the coolant is sent to the inner side of the heat exchange component, and the heat exchange component cools the coolant after absorbing heat, and the coolant after cooling treatment flows along the return conduit 48 into the inner side of the support rotating tube 10 on the other side, and flows back to the cooling box 9 from the support rotating tube 10, realizing the circulation of the coolant, and ensuring the effectiveness of the coolant cooling, thereby improving the cooling efficiency, when the cooling is completed, it can also cooperate with the return branch pipe 49 to recover part of the coolant, thereby reducing the loss of resources.

[0033] In one embodiment of the present invention, the heat exchange component includes: a heat exchange box 47, a baffle plate 53 and a semiconductor refrigeration plate 54. The heat exchange box 47 is fixedly connected to the inner side of the processing box 1, one side of the box wall is connected to the output end of the liquid pump 45, and the other side of the box wall is connected to the return duct 48. A plurality of baffle plates 53 are staggered on the inner side of the heat exchange box 47, and semiconductor refrigeration plates 54 are fixedly connected to the side walls at the remaining two ends of the heat exchange box 47, which are used to cooperate with the baffle plates 53 to achieve cooling of the cooling liquid after absorbing heat.

[0034] In this embodiment, the hot ends of the semiconductor refrigeration plates 54 on both sides are arranged opposite to the heat dissipation holes 55. The air blown out by the air blowing heat dissipation component 7 can dissipate the heat of the semiconductor refrigeration plates 54, thereby improving the service life of the semiconductor refrigeration plates 54. After the coolant enters the inner side of the heat exchange box 47, it flows along the baffle plate 53. The baffle plate 53 can guide the coolant and prolong the time that the coolant stays on the inner side of the heat exchange box 47, so that the semiconductor refrigeration plates 54 can fully cool the coolant, thereby ensuring the efficiency and quality of subsequent cooling.

[0035] The extruded strip cooling device for intelligent processing of chemical fiber rope nets can avoid the accumulation of chemical fiber strips in the device by setting a push-swing cooling unit 4 and cooperating with a circulating cooling unit 3, and can realize the circulation flow of the coolant, and can also complete the cooling of the coolant during the flow, so that the chemical fiber strips can be fully in contact with the coolant, ensuring the consistency of cooling, greatly improving the cooling effect of the equipment, and helping to improve the processing efficiency. By setting a jacking and pushing component 6, the tumbling of the chemical fiber strips can be achieved in cooperation with the swing of the cooling box 9, so that the chemical fiber strips can be more fully in contact with the coolant, effectively improving the cooling effect of the equipment, and by setting the air blowing heat dissipation Component 7 completes the heat dissipation of the internal equipment of the processing box 1, and at the same time, improves the cooling effect on the chemical fiber strips, and can complete the air drying of the chemical fiber strips after the coolant is emptied, thereby improving the processing efficiency. By setting the inductive drive control component 8, the reciprocating swing of the cooling box 9 is realized, and the chemical fiber strips are prevented from accumulating on the inside of the cooling box 9, thereby ensuring the effectiveness of cooling and improving the cooling efficiency. By setting the circulating cooling unit 3, the circulation of the coolant is realized, and the effectiveness of the coolant cooling is ensured, thereby improving the cooling efficiency. After cooling is completed, part of the coolant can be recovered in conjunction with the reflux branch pipe 49, thereby reducing the loss of resources.

[0036] The above are only preferred embodiments of the present invention. It should be pointed out that, for those skilled in the art, several modifications and improvements can be made without departing from the concept of the present invention. These should also be regarded as the protection scope of the present invention. These will not affect the effect of the implementation of the present invention and the practicality of the patent.

Claims

1. A cooling device for extruded strips used in intelligent processing of chemical fiber rope nets, characterized in that: include: Processing box; An extruder, wherein the extruder is fixedly connected to the outside of the processing box, and the output end of the extruder is connected to the inside of the processing box; A push-and-swing cooling unit, which is connected to the processing box and is used to receive the chemical fiber strips output by the extruder and complete the swing-type circulation cooling of the chemical fiber strips; A circulating cooling unit, which is connected to the processing box and the push-swing cooling unit, and is used to store and transport the coolant, and to circulate and repeatedly cool the coolant inside the push-swing cooling unit; Wherein, the push-swing cooling unit includes: a swing cooling component, a lifting and pushing component, an air blowing heat dissipation component and an inductive drive control component, wherein: the swing cooling component is arranged on the outer side of the output end of the extruder, is rotatably connected to the inner wall of the processing box, and is connected to the circulating cooling unit, and an air blowing heat dissipation component fixedly connected to the processing box is arranged on the outer side of the top of the swing cooling component, and the air blowing heat dissipation component and the swing cooling component are arranged relatively to each other, and are used to cooperate with the swing cooling component to realize multiple cooling of the chemical fiber strips and complete the air drying of the chemical fiber strips after cooling, and an inductive drive control component is arranged between the air blowing heat dissipation component and the swing cooling component, and the inductive drive control component is fixedly connected to the processing box, and is used to cooperate with the air blowing heat dissipation component to drive the swing cooling component to swing back and forth, and a lifting and pushing component is also arranged between the swing cooling component and the processing box, and the lifting and pushing component is connected to the processing box and to the swing cooling component, and is used to cooperate with the reciprocating swing of the swing cooling component to realize intermittent pushing of the chemical fiber strips located on the inner side of the swing cooling component; The swing cooling assembly comprises: a cooling box, a supporting rotating tube, a flip wheel and a receiving plate, the cooling box is arranged on the outer side of the output end of the extruder, and supporting rotating tubes are fixedly connected to the box walls on both sides of the cooling box, and the other end of the supporting rotating tube is rotatably connected to the box wall of the processing box, and the supporting rotating tubes on both sides are connected to the circulating cooling unit, which is used to cooperate with the circulating cooling unit to realize the circulation flow of the coolant inside the cooling box, and the outer side of the supporting rotating tube is also fixedly connected with a flip wheel connected to the inductive drive control component, which is used to cooperate with the inductive drive control component to realize the reciprocating swing of the cooling box, and the bottom of the inner side of the cooling box is slidably connected with a receiving plate connected to the jacking and pushing component, which is used to receive the chemical fiber strips output by the extruder and cooperate with the jacking and pushing component to realize the pushing of the chemical fiber strips; The jacking and pushing assembly includes: a trigger baffle, a transmission box, a control pipe, a pressure guide groove, and a jacking pipe. The trigger baffle is symmetrically arranged on the outer side of the bottom end of the cooling box and is fixedly connected to the processing box. A transmission box is arranged between the trigger baffle and the cooling box. The transmission box is fixedly connected to the cooling box and has a pressure guide groove inside. A jacking pipe fixedly connected to the transmission box is arranged between the transmission box and the receiving plate. One end of the jacking pipe is connected to the pressure guide groove, and a jacking member fixedly connected to the receiving plate is slidably connected inside the other end. A control pipe is also fixedly connected to the transmission box. One end of the control pipe is connected to the pressure guide groove, and a trigger member opposite to the trigger baffle is slidably connected inside the other end, which is used to cooperate with the swing of the cooling box to realize the reciprocating vibration of the receiving plate. The air blowing and heat dissipation assembly includes: an energy supply, a power rod, and an eccentric runner. The energy supply is fixedly connected to the inner top of the processing box. The output end of the energy supply is fixedly connected to the power rod. An eccentric runner connected to the inductive drive and control assembly is also fixedly connected to the outside of the power rod, which is used to cooperate with the power rod to drive the inductive drive and control assembly to realize the rotation of the support rotating pipe. The inductive drive and control assembly includes: a pushing block, a limiting rod, an induction box, a pressure regulating pipe, a lifting pipe, a lifting plate, and a regulating gear. The pushing blocks are symmetrically arranged on both sides of the eccentric runner and are slidably connected to the limiting rods fixedly connected to the inside of the processing box. Springs are fixedly connected between the limiting rods and the pushing blocks. An induction box fixedly connected to the processing box is arranged on the outer side of one end of the pushing block away from the eccentric runner. A pressure regulating pipe is arranged between the induction box and the pushing block. The pressure regulating pipe is fixedly connected to the induction box, and a pressure regulating member fixedly connected to the pushing block is slidably connected inside, which is used to cooperate with the movement of the pushing block to realize the flow of air inside the induction box. A lifting pipe is also fixedly connected to the bottom box wall of the induction box. An induction member is slidably connected inside the lifting pipe, and the other end of the induction member is fixedly connected to the lifting plate. A regulating gear meshed with the flipping wheel is fixedly connected to the lifting plate, which is used to cooperate with the air flowing inside the induction box to drive the flipping wheel to rotate to realize the swing of the cooling box.

2. The extruded strip cooling device for intelligent processing of chemical fiber rope nets according to claim 1 is characterized in that: The swing type cooling assembly further includes: a filter cover, a U-shaped cleaning brush, and a fixing rod. A filter cover is arranged on the outer side of the connection end of the support rotating pipe and the cooling box. The filter cover covers the outside of the pipe orifice of the support rotating pipe and is fixedly connected to the cooling box. A U-shaped cleaning brush is abutted against the outside of the filter cover. The U-shaped cleaning brush is fixedly connected to the processing box through a fixing rod, which is used to cooperate with the rotation of the support rotating pipe to clean the surface of the filter cover.

3. The extruded strip cooling device for intelligent processing of chemical fiber rope nets according to claim 1 is characterized in that: The air blowing and heat dissipation component also includes: an air flow generating box, an air control cavity, a purification tank, an air suction pipe, an air supply pipe, a fan, an air blowing tank, an air vent and an air blowing pipe. An air flow generating box fixedly connected to the processing box is arranged on the outer side of the bottom end of the energy supply box, an air control cavity is arranged on the inner side of the air flow generating box, the power rod is fixedly connected to the fan arranged on the inner side of the air control cavity, a purification tank is symmetrically arranged on the inner side of the air flow generating box, the purification tank and the air control cavity are connected by an air supply pipe, the other end of the purification tank is connected to the air suction pipe leading to the outer side of the processing box, a dust removal frame clamped with the purification tank is arranged between the air suction pipe and the air supply pipe, an air blowing tank is arranged on the inner side of the box wall at the bottom end of the air flow generating box, the air blowing tank is connected to the air control cavity through the air vent arranged on the box wall of the air flow generating box, and a plurality of air blowing pipes connected to the air blowing tank are fixedly connected on the box wall at the bottom end of the air flow generating box.

4. The extruded strip cooling device for intelligent processing of chemical fiber rope nets according to claim 1 is characterized in that: The circulating cooling unit includes: a liquid pump, a liquid pumping conduit, a heat exchange component, a reflux conduit, a water storage tank, a water pump and a water injection pipe. The liquid pump is fixedly connected to the bottom of the inner side of the processing box. The input end of the liquid pump is connected to the supporting rotating pipe on one side through the liquid pumping conduit, and the output end is connected to the heat exchange component. The heat exchange component is connected to the supporting rotating pipe on the other side through the reflux conduit. The reflux conduit is also connected to the water storage tank fixedly connected to the processing box through a reflux branch pipe. A water pump is fixedly connected to the inner side of the water storage tank, and the output end of the water pump is connected to the water injection pipe. The output end of the water injection pipe is arranged opposite to the cooling box.

5. The extruded strip cooling device for intelligent processing of chemical fiber rope nets according to claim 4 is characterized in that: The heat exchange assembly includes: a heat exchange box, a flow-blocking baffle and a semiconductor refrigeration sheet. The heat exchange box is fixedly connected to the inner side of the processing box, one side of the box wall is connected to the output end of the liquid pump, and the other side of the box wall is connected to the return duct. A plurality of flow-blocking baffles are staggered inside the heat exchange box, and semiconductor refrigeration sheets are fixedly connected to the remaining two end side walls of the heat exchange box, which are used to cooperate with the flow-blocking baffles to achieve cooling of the cooling liquid after absorbing heat.

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