Intelligent self-adaptive cable high-speed extrusion molding integrated equipment

Abstract

The invention discloses intelligent self-adaptive cable high-speed extrusion molding integrated equipment, and relates to the technical field of cable production, the intelligent self-adaptive cable high-speed extrusion molding integrated equipment comprises a placement plate, a feeding assembly is arranged above the left end of the placement plate, two supporting rods are arranged between the feeding assembly and the placement plate, and the two supporting rods are symmetrically distributed about the center line of the placement plate; the feeding assembly is fixedly connected with the containing plate through two supporting rods, a wrapping assembly is arranged on the right side of the feeding assembly, the wrapping assembly communicates with the feeding assembly through a conveying pipe, a cooling assembly is arranged on the right side of the wrapping assembly, and the cooling assembly is fixedly connected with the containing plate. A rotating rod is arranged on the right side of the cooling assembly, the system can automatically complete inclined plate position calibration and melt parameter compensation, the flexible production capacity of one machine with multiple purposes is achieved on the premise that the original structure of equipment is kept, the equipment input cost of cable manufacturing enterprises is greatly reduced, and the production preparation period of the cable manufacturing enterprises is greatly shortened.

Description

Technical Field

[0001] The present invention relates to the technical field of cable production, and particularly to an intelligent adaptive integrated device for high-speed extrusion molding of cables. Background Art

[0002] A cable is a wire device used for transmitting and distributing electrical energy, usually made of one or more mutually insulated conductors and an outer insulating protective layer. It can transmit electricity or signals from one place to another and plays a crucial role in various fields of modern society.

[0003] A cable consists of a conductor, an insulating layer, a shielding layer, and a sheath layer. The conductor is the part that conducts current in the cable, generally made of highly conductive metal materials such as copper and aluminum. The insulating layer is wrapped around the conductor, and its main function is to prevent current leakage and ensure the safe and efficient transmission of electrical energy. Common insulating materials include polyvinyl chloride (PVC), cross-linked polyethylene (XLPE), rubber, etc. A shielding layer is provided in some special cables, and its function is to reduce electromagnetic interference. Electromagnetic interference may affect the quality of the signals transmitted by the cable. The shielding layer can shield external electromagnetic interference and prevent the leakage of internal electromagnetic signals from the cable. The materials of the sheath layer are also diverse, and common ones include polyvinyl chloride, polyethylene, neoprene, etc. The appropriate sheath material is selected according to the use environment and requirements of the cable.

[0004] The existing technologies have the following problems: Due to the use of fixed pitch parameters and a fully rigid propulsion structure, when processing plastic particles with large differences in fluidity (such as a mixed system of high melt index and low melt index materials), the raw materials are extremely prone to non-uniform flow in the annular gap formed by the spiral groove and the barrel. The high-fluidity components are rapidly filled in the front section of the spiral groove, while the low-fluidity components or fiber materials remain in the rear section. This difference in rheological properties causes the raw materials to gradually form a layered "plug flow" state during the propulsion process; during the wrapping process of the cable core, due to the use of an extruder with a fixed diameter, when wrapping cable cores of different sizes, the entire equipment needs to be replaced or a new equipment needs to be introduced. The operation and maintenance methods of the new equipment may be quite different from those of the original equipment, and employees need to re-learn the operation skills and maintenance knowledge of the new equipment. Before the employees master the new equipment proficiently, the production efficiency may be affected, and even product quality problems may occur due to improper operation. Summary of the Invention

[0005] To solve the above technical problems, an intelligent adaptive integrated device for high-speed extrusion molding of cables is provided, which solves the problems that the raw materials are extremely prone to non-uniform flow in the annular gap formed by the spiral groove and the barrel and that when wrapping cable cores of different sizes, the entire equipment needs to be replaced or a new equipment needs to be introduced.

[0006] To achieve the above object, the technical solution adopted by the present invention is as follows:

[0007] An intelligent adaptive integrated device for high-speed extrusion molding of cables, comprising a placement plate. Above the left end of the placement plate, there is a feeding component. Between the feeding component and the placement plate, there are two support rods, and the two support rods are symmetrically distributed about the center line of the placement plate. The feeding component is fixedly connected to the placement plate through the two support rods. On the right side of the feeding component, there is a wrapping component, and the wrapping component is communicated with the feeding component through a conveying pipe. On the right side of the wrapping component, there is a cooling component, and the cooling component is fixedly connected to the placement plate. On the right side of the cooling component, there is a rotating rod. At the upper end of the rotating rod, there is a rotating plate fixedly installed. On the upper surface of the rotating plate, there are two rotating shafts rotatably installed, and the two rotating shafts are symmetrically distributed about the center line of the rotating rod. Between the rotating rod and the cooling component, there is a cutting component.

[0008] Preferably, on the upper surface of the placement plate corresponding to the wrapping component, there are two first support plates fixedly installed. Between the two first support plates, there is a roller. Through holes are respectively formed in the two first support plates corresponding to the roller, and the roller is movably connected to the first support plates through the through holes. On the front surface of the first support plate, there is a driven gear, and the driven gear is fixedly connected to the roller. On the front surface of the first support plate corresponding to the driven gear, there is a driving gear rotatably installed.

[0009] Preferably, the feeding component includes a main body. Inside the main body, there is a conical groove. Inside the main body corresponding to the conical groove, there is a heating cavity. At the bottom surface of the main body, there is a first water outlet pipe, and the first water outlet pipe is communicated with the heating cavity. On both sides of the main body corresponding to the heating cavity, there are first water inlet pipes fixedly installed, and the first water inlet pipes are communicated with the heating cavity. Inside the inner wall of the conical groove, there is a conical rod rotatably installed. On the outer surface of the conical rod, there are threaded blades abutted against the conical groove. On the upper surface of the main body, there is a feeding pipe, and the feeding pipe is communicated with the conical groove.

[0010] Preferably, the wrapping component includes a sleeve. Inside the sleeve, there is an annular chamber, and the annular chamber is communicated with the conveying pipe. Inside the annular chamber, there is an annular inclined plate corresponding to the chamber. On the side of the circular plate corresponding to the sleeve, there are two lead screws rotatably installed, and the two lead screws are symmetrically distributed about the center line of the circular plate. On the outer surface of the lead screw, there is a brushless motor sleeved, and the brushless motor is fixedly connected to the sleeve.

[0011] Preferably, the cooling component includes a collection box fixedly connected to the placement plate. A second support plate is fixedly installed at the bottom of the inner wall of the collection box. A cooling pipe is fixedly installed at the upper end of the second support plate. A second water outlet pipe is fixedly installed at the right end of the cooling pipe and is communicated with the cooling pipe. Two second water inlet pipes are fixedly installed at the left end of the cooling pipe. The cooling pipe is communicated with the collection box through the second water inlet pipes. A booster pump is arranged inside the second water inlet pipes. A number of rollers are arranged inside the cooling pipe. The plurality of rollers are linearly distributed along the axis direction of the cooling pipe. The rollers are rotatably connected to the cooling pipe.

[0012] Preferably, the cutting component includes two third support plates. Moving grooves are formed on one side of the two third support plates close to each other. A threaded rod is rotatably installed on the inner wall of the moving groove. An adjustment plate is arranged inside the moving groove and is in threaded connection with the threaded rod. A through groove is formed at the center of the adjustment plate. A cutting tool is arranged between the two third support plates and is fixedly connected to the two third support plates and the placement plate.

[0013] Preferably, a sealing ring is fixedly installed inside the annular chamber corresponding to the annular inclined plate, and the material of the sealing ring is perfluoro rubber.

[0014] Preferably, two crushing wheels are rotatably installed on the inner wall of the feed pipe, and the two crushing wheels are symmetrically distributed about the center line of the feed groove.

[0015] Compared with the prior art, the advantages of the present invention are as follows: By setting a feeding component, a conical dynamic extrusion structure is formed by the spiral blades in the feeding component. Through the geometric coupling of the conical cavity and the variable-diameter thread, the raw materials experience progressive compression and shear optimization during the conveying process. The conical cavity design can automatically adapt to the bulk density of raw materials with different particle sizes. Cooperating with the asymmetric spiral grooves arranged on the surface of the threaded blades, a dynamic eddy current effect is formed during the advancement of the raw materials, effectively breaking the "dead zone" phenomenon easily generated by traditional spiral propulsion, thereby preventing the non-uniform flow phenomenon that is extremely likely to occur in the annular gap formed by the spiral groove and the barrel.

[0016] The present invention constructs a dynamic discharging control system with self - adaptive adjustment ability by setting a wrapping component. The wrapping component is precisely coupled with the annular inclined plate structure through a lead screw drive mechanism. Only by driving the axial movement of the lead screw pair through the numerical control system, the annular inclined plate can be driven to have a millimeter - level displacement adjustment in the radial direction. The core innovation lies in the unique wedge - shaped curved surface design of the annular inclined plate - the variable gap formed by this curved surface and the discharging port can precisely control the cross - sectional area and flow direction angle of the material flow path through the displacement of the annular inclined plate. When processing small - diameter cable cores, the inclined plate gathers towards the center to compress the flow path, enabling the material to uniformly wrap with higher pressure; when wrapping large - diameter cable cores, the inclined plate expands outwards to widen the flow path, and at the same time adjusts the material flow direction through the inclination angle of the curved surface to ensure that a complete annular covering layer is formed on the surface of the cable core. The operator only needs to input the target cable core size on the human - machine interface, and the system can automatically complete the position calibration of the inclined plate and the compensation of the melt parameters, enabling the equipment to achieve the flexible production capacity of "one machine with multiple functions" while maintaining the original structure, greatly reducing the equipment investment cost and production preparation cycle of cable manufacturing enterprises. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a schematic three - dimensional structure diagram of the present invention;

[0018] Figure 2 is an exploded view of the first support plate and the roller in the present invention;

[0019] Figure 3 is a schematic three - dimensional structure diagram of the feeding component in the present invention;

[0020] Figure 4 is a schematic internal structure diagram of the feeding component in the present invention;

[0021] Figure 5 is a schematic internal structure diagram of the wrapping component in the present invention;

[0022] Figure 6 is a schematic internal structure diagram of the cooling component in the present invention;

[0023] Figure 7 is a schematic three - dimensional structure diagram of the cutting component in the present invention.

[0024] The reference numerals in the figures are:

[0025] 1. Placing plate;

[0026] 2. Feeding component; 201. Main body; 202. Conical groove; 203. Heating cavity; 204. First water outlet pipe; 205. First water inlet pipe; 206. Conical rod; 207. Threaded blade; 208. Feed pipe;

[0027] 3. Support rod;

[0028] 4. Wrapping component; 401. Sleeve; 402. Annular chamber; 403. Annular inclined plate; 404. Circular plate; 405. Lead screw; 406. Brushless motor;

[0029] 5. Cooling component; 501. Collection box; 502. Second support plate; 503. Second water outlet pipe; 504. Second water inlet pipe; 505. Booster pump; 506. Drum;

[0030] 6. Rotating rod; 7. Rotating plate; 8. Rotating shaft;

[0031] 9. Cutting component; 901. Third support plate; 902. Moving groove; 903. Threaded rod; 904. Adjusting plate; 905. Through groove; 906. Cutting tool;

[0032] 10. First support plate; 11. Roller; 12. Rotating groove; 13. Driven gear; 14. Driving gear; 15. Sealing ring; 16. Crushing wheel. Detailed implementation manners

[0033] The following description is used to disclose the present invention so that those skilled in the art can implement the present invention. The preferred embodiments in the following description are only examples, and those skilled in the art can think of other obvious variations.

[0034] Refer to Figure 1-7As shown in the figure, an intelligent adaptive integrated cable high-speed extrusion molding device includes a placement plate 1. Above the left end of the placement plate 1, a feeding component 2 is provided. Between the feeding component 2 and the placement plate 1, two support rods 3 are provided. The two support rods 3 are symmetrically distributed about the center line of the placement plate 1. The feeding component 2 is fixedly connected to the placement plate 1 through the two support rods 3. On the right side of the feeding component 2, a wrapping component 4 is provided. The wrapping component 4 is communicated with the feeding component 2 through a conveying pipe. On the right side of the wrapping component 4, a cooling component 5 is provided. The cooling component 5 is fixedly connected to the placement plate 1. On the right side of the cooling component 5, a rotating rod 6 is provided. At the upper end of the rotating rod 6, a rotating plate 7 is fixedly installed. On the upper surface of the rotating plate 7, two rotating shafts 8 are rotatably installed. The two rotating shafts 8 are symmetrically distributed about the center line of the rotating rod 6. The rotating rod 6 and the rotating shafts 8 are both externally connected to a power source. Between the rotating rod 6 and the cooling component 5, a cutting component 9 is provided. The feeding component 2 melts and extrudes plastic particles. The melted material enters the wrapping component 4 through the conveying pipe and fills the wrapping component 4. When the copper wire passes through the wrapping component 4, the material adheres to the surface of the copper wire. As the copper wire moves, the melted material is replenished accordingly. When wrapping copper wires of different specifications, the wrapping component 4 controls the amount of material adhering to the surface of the copper wire. The cooling component 5 cools the completed cable. When collecting the material, the rotating shaft 8 rotates to collect the cable. During the feeding process, the rotating rod 6 rotates to move the rotating plate 7 to move the rotating shaft 8 filled with the cable, and at the same time, the cutting component 9 cuts the cable. The staff winds the cable around another rotating shaft 8, thus realizing non-stop feeding.

[0035] As Figure 2 shown, on the upper surface of the placement plate 1 corresponding to the wrapping component 4, two first support plates 10 are fixedly installed. Between the two first support plates 10, a roller 11 is provided. Through holes 12 are respectively formed in the two first support plates 10 corresponding to the roller 11. The roller 11 is movably connected to the first support plates 10 through the through holes 12. On the front surface of the first support plate 10, a driven gear 13 is provided. The driven gear 13 is fixedly connected to the roller 11. On the front surface of the first support plate 10 corresponding to the driven gear 13, a driving gear 14 is rotatably installed. The driving gear 14 is externally connected to a power source. The driving gear 14 drives the roller 506 to move slowly through the driven gear 13. When producing cables of different sizes, the staff can replace the roller 11 with a roller 11 of the corresponding size, which is convenient for the production of cables of different sizes.

[0036] As Figure 3 - Figure 4As shown, the feeding component 2 includes a main body 201. A conical groove 202 is formed inside the main body 201. A heating cavity 203 is formed inside the main body 201 corresponding to the conical groove 202. A first water outlet pipe 204 is fixedly installed at the bottom surface of the main body 201. The first water outlet pipe 204 is communicated with the heating cavity 203. First water inlet pipes 205 are fixedly installed on both sides of the main body 201 corresponding to the heating cavity 203, and the first water inlet pipes 205 are communicated with the heating cavity 203. A conical rod 206 is rotatably installed on the inner wall of the conical groove 202. Threaded blades 207 abutted against the conical groove 202 are fixedly installed on the outer surface of the conical rod 206. A feed pipe 208 is fixedly installed on the upper surface of the main body 201. The feed pipe 208 is communicated with the conical groove 202. The conical rod 206 is externally connected to a power source. The staff places solid plastic particles into the feed pipe 208. The solid particles enter the conical groove 202 through the feed pipe 208. The threaded blades 207 are driven by the rotation of the rotating rod 6 to push the material to move. At the same time, high-temperature heating liquid enters the heating cavity 203 through the first water inlet pipe 205, so that the material in the conical groove 202 is quickly heated up until it melts. The heating solution with reduced temperature leaves the heating cavity 203 through the first water outlet pipe 204.

[0037] As Figure 5 As shown, the wrapping component 4 includes a sleeve 401. An annular chamber 402 is formed inside the sleeve 401. The annular chamber 402 is communicated with a conveying pipe. An annular inclined plate 403 corresponding to the chamber is arranged inside the annular chamber 402. A circular plate 404 is fixedly installed on the side of the sleeve 401 corresponding to the circular plate 404. Two lead screws 405 are rotatably installed on the side of the circular plate 404. The two lead screws 405 are symmetrically distributed about the center line of the circular plate 404. A brushless motor 406 is sleeved on the outer surface of the lead screw 405, and the brushless motor 406 is fixedly connected to the sleeve 401. The annular chamber 402 is filled with molten plastic. When producing cables of different sizes, the brushless motor 406 pushes the circular plate 404 through the lead screw 405. The circular plate 404 drives the volume of the annular inclined plate 403 in the annular chamber 402. When the annular inclined plate 403 is completely outside the annular chamber 402, the output material reaches the highest point at this time. If the annular inclined plate 403 is completely located inside the annular chamber 402, there is no material output at this time.

[0038] As Figure 6As shown in the figure, the cooling component 5 includes a collection box 501, which is fixedly connected to the placement plate 1. At the bottom of the inner wall of the collection box 501, a second support plate 502 is fixedly installed. At the upper end of the second support plate 502, a cooling pipe is fixedly installed. At the right end of the cooling pipe, a second water outlet pipe 503 is fixedly installed, and the second water outlet pipe 503 is communicated with the cooling pipe. At the left end of the cooling pipe, two second water inlet pipes 504 are fixedly installed, and the cooling pipe is communicated with the collection box 501 through the second water inlet pipes 504. A booster pump 505 is arranged inside the second water inlet pipe 504. Several rollers 506 are arranged inside the cooling pipe, and the several rollers 506 are linearly distributed along the axial direction of the cooling pipe. The rollers 506 are rotatably connected to the cooling pipe. The staff places the cooling liquid in the collection box 501. The booster pump 505 increases the temperature of the cooling liquid in the second water inlet pipe 504, and the cooled liquid returns to the collection box 501 through the second water outlet pipe 503, thereby realizing the recycling of the cooling liquid. The rollers 11 reduce the friction between the cable and the inner wall of the cooling tank.

[0039] As Figure 7 shown in the figure, the cutting component 9 includes two third support plates 901. Moving grooves 902 are opened on the sides of the two third support plates 901 close to each other. A threaded rod 903 is rotatably installed on the inner wall of the moving groove 902. An adjustment plate 904 is arranged inside the moving groove 902, and the adjustment plate 904 is threadedly connected to the threaded rod 903. A through groove 905 is opened at the center of the adjustment plate 904. A cutting tool 906 is arranged between the two third support plates 901, and the cutting tool 906 is fixedly connected to the two third support plates 901 and the placement plate 1. Both of the threaded rods 903 are externally connected to a power source. The cooled cable is collected by the rotating shaft 8 through the through groove 905. When the cable on the rotating shaft 8 is completely collected, the threaded rod 903 rotates to drive the through groove 905 to bring the cable into contact with the cutting tool 906. During the process of the rotating shaft 8 collecting the cable, the threaded rod 903 rotates repeatedly, causing the adjustment plate 904 to drive the cable to be evenly wound on the surface of the rotating shaft 8.

[0040] As Figure 5 shown in the figure, a sealing ring 15 is fixedly installed inside the annular chamber 402 corresponding to the annular inclined plate 403, and the material of the sealing ring 15 is perfluororubber. Perfluororubber can withstand high temperatures above 260°C, far exceeding conventional rubbers (such as NBR which is only 120°C), and is suitable for the heating environment of 200°C - 250°C in the chamber during the extrusion process. Perfluororubber has excellent corrosion resistance to plastic materials such as polyethylene and polyvinyl chloride used in the extrusion process, as well as possible residual additives (such as flame retardants and stabilizers), preventing the sealing ring 15 from being corroded and swollen. The surface of the perfluororubber is smooth and has a low friction coefficient (μ≈00.2), reducing wear during the relative movement between the annular inclined plate 403 and the inner wall of the sleeve 401, and ensuring that the sealing ring 15 does not fail during long-term high-frequency reciprocating motion.

[0041] AsFigure 4 As shown, two crushing wheels 16 are rotatably installed on the inner wall of the feed pipe 208. The two crushing wheels 16 are symmetrically distributed about the center line of the feed chute. Both of the two crushing wheels 16 are externally connected to a power source. The two crushing wheels 16 rotate in opposite directions to shear, extrude, and grind the plastic particles entering the feed pipe 208, and perform secondary crushing on the large particles in the solid particles to ensure the uniformity of the particle size of the raw materials.

[0042] Working principle: The staff places the solid particles of the plastic into the feed pipe 208. The solid particles enter the conical groove 202 through the feed pipe 208. The two crushing wheels 16 in the feed pipe 208 rotate in opposite directions to shear, extrude, and grind the plastic particles entering the feed pipe 208, and perform secondary crushing on the large particles in the solid particles to ensure the uniformity of the particle size of the raw materials. The rotating rod 6 rotates to make the threaded blade 207 push the material to move. At the same time, the high-temperature heating liquid enters the heating chamber 203 through the first water inlet pipe 205, so that the material in the conical groove 202 is quickly heated up until it melts. The heating solution with reduced temperature leaves the heating chamber 203 through the first water outlet pipe 204. The feeding assembly 2 melts and extrudes the plastic particles. The melted material enters the wrapping assembly 4 through the conveying pipe and fills the wrapping assembly 4. When the copper wire passes through the wrapping assembly 4, the material adheres to the surface of the copper wire. As the copper wire moves, the melted material is replenished accordingly; when producing cables of different sizes, the brushless motor 406 pushes the round plate 404 through the lead screw 405, and the round plate 404 drives the volume of the annular inclined plate 403 in the annular chamber 402. When the annular inclined plate 403 is completely outside the annular chamber 402, the output material reaches the highest point at this time. If the annular inclined plate 403 is completely located in the annular chamber 402, there is no material output at this time. The wrapped cable enters the cooling assembly 5, and the cooling assembly 5 cools the attached cable. During the cooling process, the booster pump 505 increases the temperature of the cooling liquid in the second water inlet pipe 504. The cooled liquid returns to the collection box 501 through the second water outlet pipe 503, so as to realize the recycling of the cooling liquid. The cooled cable is collected by the rotating shaft 8 through the through groove 905. When the cable on the rotating shaft 8 is completely collected, the threaded rod 903 rotates to make the through groove 905 drive the cable to contact the cutting tool 906. During the process of the rotating shaft 8 collecting the cable, the threaded rod 903 rotates repeatedly, so that the adjusting plate 904 drives the cable to be evenly wound on the surface of the rotating shaft 8. When collecting the material, the rotating shaft 8 rotates to collect the cable; during the feeding process, the rotating rod 6 rotates to make the rotating plate 7 move the rotating shaft 8 filled with the cable, so as to realize non-stop feeding.

[0043] The foregoing has shown and described the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments, and what is described in the above embodiments and the specification is only the principle of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection required by the present invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent adaptive integrated equipment for high-speed extrusion molding of cables, including a placement plate (1), characterized in that: Above the left end of the placement plate (1), a feeding component (2) is provided. Between the feeding component (2) and the placement plate (1), two support rods (3) are provided. The two support rods (3) are symmetrically distributed about the center line of the placement plate (1). The feeding component (2) is fixedly connected to the placement plate (1) through the two support rods (3). On the right side of the feeding component (2), a wrapping component (4) is provided. The wrapping component (4) is communicated with the feeding component (2) through a conveying pipe. On the right side of the wrapping component (4), a cooling component (5) is provided. The cooling component (5) is fixedly connected to the placement plate (1). On the right side of the cooling component (5), a rotating rod (6) is provided. At the upper end of the rotating rod (6), a rotating plate (7) is fixedly installed. On the upper surface of the rotating plate (7), two rotating shafts (8) are rotatably installed. The two rotating shafts (8) are symmetrically distributed about the center line of the rotating rod (6). Between the rotating rod (6) and the cooling component (5), a cutting component (9) is provided.

2. The integrated device for high-speed extrusion molding of an intelligent adaptive cable according to claim 1, wherein: On the upper surface of the placement plate (1) corresponding to the wrapping component (4), two first support plates (10) are fixedly installed. Between the two first support plates (10), a roller (11) is provided. Corresponding to the two first support plates (10) of the roller (11), rotating grooves (12) are respectively formed. The roller (11) is movably connected to the first support plates (10) through the rotating grooves (12). On the front surface of the first support plate (10), a driven gear (13) is provided. The driven gear (13) is fixedly connected to the roller (11). On the front surface of the first support plate (10) corresponding to the driven gear (13), a driving gear (14) is rotatably installed.

3. An integrated device for high-speed extrusion molding of intelligent adaptive cables according to claim 1, characterized in that: The feeding component (2) includes a main body (201). Inside the main body (201), a conical groove (202) is formed. Corresponding to the conical groove (202) inside the main body (201), a heating cavity (203) is formed. At the bottom surface of the main body (201), a first water outlet pipe (204) is fixedly installed. The first water outlet pipe (204) is communicated with the heating cavity (203). On both sides of the main body (201) corresponding to the heating cavity (203), first water inlet pipes (205) are fixedly installed, and the first water inlet pipes (205) are communicated with the heating cavity (203). On the inner wall of the conical groove (202), a conical rod (206) is rotatably installed. On the outer surface of the conical rod (206), a threaded blade (207) that abuts against the conical groove (202) is fixedly installed. At the upper surface of the main body (201), a feeding pipe (208) is fixedly installed. The feeding pipe (208) is communicated with the conical groove (202).

4. An intelligent adaptive integrated device for high-speed extrusion molding of cables according to claim 1, characterized in that: The wrapping component (4) includes a sleeve (401). An annular chamber (402) is formed inside the sleeve (401). The annular chamber (402) is communicated with the conveying pipe. An annular inclined plate (403) corresponding to the chamber is arranged inside the annular chamber (402). A circular plate (404) is fixedly installed on the side of the annular inclined plate (403) away from the feeding component (2). Two lead screws (405) are rotatably installed on the side of the sleeve (401) corresponding to the circular plate (404). The two lead screws (405) are symmetrically distributed about the center line of the circular plate (404). A brushless motor (406) is sleeved on the outer surface of the lead screw (405), and the brushless motor (406) is fixedly connected to the sleeve (401).

5. An integrated device for high-speed extrusion molding of intelligent adaptive cables according to claim 1, characterized in that: The cooling component (5) includes a collection box (501). The collection box (501) is fixedly connected to the placement plate (1). A second support plate (502) is fixedly installed at the bottom of the inner wall of the collection box (501). A cooling pipe is fixedly installed at the upper end of the second support plate (502). A second water outlet pipe (503) is fixedly installed at the right end of the cooling pipe. The second water outlet pipe (503) is communicated with the cooling pipe. Two second water inlet pipes (504) are fixedly installed at the left end of the cooling pipe. The cooling pipe is communicated with the collection box (501) through the second water inlet pipes (504). A booster pump (505) is arranged inside the second water inlet pipe (504). A number of rollers (506) are arranged inside the cooling pipe. The several rollers (506) are linearly distributed along the axis direction of the cooling pipe. The roller (506) is rotatably connected to the cooling pipe.

6. An intelligent adaptive integrated device for high-speed extrusion molding of cables according to claim 1, characterized in that: The cutting component (9) includes two third support plates (901). A moving groove (902) is formed on one side of each of the two third support plates (901) close to each other. A threaded rod (903) is rotatably installed on the inner wall of the moving groove (902). An adjusting plate (904) is arranged inside the moving groove (902), and the adjusting plate (904) is in threaded connection with the threaded rod (903). A through groove (905) is formed at the center of the adjusting plate (904). A cutting tool (906) is arranged between the two third support plates (901), and the cutting tool (906) is fixedly connected to the two third support plates (901) and the placement plate (1).

7. An integrated device for high-speed extrusion molding of intelligent adaptive cables according to claim 4, characterized in that: A sealing ring (15) is fixedly installed inside the annular chamber (402) corresponding to the annular inclined plate (403), and the sealing ring (15) is made of perfluoro rubber.

8. An intelligent adaptive integrated cable high-speed extrusion molding device according to claim 3, characterized in that: Two crushing wheels (16) are rotatably installed on the inner wall of the feed pipe (208). The two crushing wheels (16) are symmetrically distributed about the center line of the feed slot.

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