Production process of glass fiber flexible pipe based on ultraviolet light curing pipe repair

Abstract

The application relates to a glass fiber hose production process based on ultraviolet light curing pipe repair, and production process steps are as follows: step one, weaving: glass fiber filaments are woven through a weaving mechanism to obtain a tubular glass fiber pipe; step two, blow molding: raw material particles are extruded and blow molded through a blow molding mechanism to obtain a tubular inner film; step three, flattening: the tubular glass fiber pipe and the inner film are extruded into a flat shape through an extrusion mechanism; step four, impregnation: air in the pores of the glass fiber pipe wrapped with the inner film is extracted and immersed into an impregnation liquid through an impregnation mechanism, and the impregnation liquid is impregnated into the glass fiber hose through vacuum pressure, so that the glass fiber hose fully absorbs the impregnation liquid; and step five, compounding: an outer film is compounded on the glass fiber pipe through a compounding mechanism; the compounding mechanism is arranged, the outer film can be unwound and cut, and the outer film can be compounded on the glass fiber pipe, so that the degree of automation is high, manual frequent operation is not needed, and the production efficiency is improved.

Description

Technical Field

[0001] This invention relates to the field of ultraviolet curing pipe technology, specifically to a production process for glass fiber flexible hoses based on ultraviolet curing pipe repair. Background Technology

[0002] UV-cured lining repair is a trenchless repair technology that has gradually become one of the mainstream technologies for trenchless pipeline repair due to its advantages such as high material strength and safe and reliable repair construction. As an indispensable repair material for UV-cured lining repair technology, the production and manufacturing of related UV-cured hoses has also become increasingly mature.

[0003] The UV-curable flexible tube, from the inside out, consists of: 1. A translucent inner membrane: maintaining internal pressure to ensure the inner tube's round shape, allowing UV light to pass through and cure the resin; 2. A resin-fiberglass reinforcement layer: the main structure of the inner tube, providing high modulus and strength after curing; 3. An outer protective membrane: providing waterproofing and resin protection. Currently, domestic UV-curable flexible tubes are almost entirely manufactured using a manual splicing process, which is inefficient, labor-intensive, and poses health risks to workers due to fiberglass debris. More importantly, the manual splicing method cannot guarantee the precision of the tube manufacturing process, resulting in air bubbles or uneven wall thickness after curing, significantly affecting the quality of the inner tube after pipe repair. Given these shortcomings, it is necessary to design a UV-curable pipe repair manufacturing process for fiberglass flexible tubes. Summary of the Invention

[0004] The purpose of this invention is to provide a manufacturing process for glass fiber hoses based on ultraviolet light curing for pipe repair, so as to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a manufacturing process for fiberglass hoses based on ultraviolet light curing for pipe repair, the manufacturing process steps of which are as follows: Step 1. Weaving: Glass fiber filaments are woven together using a weaving mechanism to obtain a tubular glass fiber tube; Step 2. Blow molding: The raw material granules are extruded and blow molded using a blow molding mechanism to obtain a cylindrical inner film; Step 3. Flattening; The cylindrical glass fiber tube and inner membrane are flattened using an extrusion mechanism; Step 4. Impregnation: The air in the pores of the glass fiber tube with the inner membrane is extracted by the impregnation mechanism and immersed in the impregnation liquid. Then, the impregnation liquid is impregnated into the glass fiber tube by vacuum pressure to make it fully absorb the impregnation liquid. Step 5: Lamination: The outer membrane is laminated onto the glass fiber tube using a lamination mechanism.

[0006] Preferably, the weaving process in step one specifically includes: The motor drives the drive gear to rotate, and the driven gear, shaft and dial also rotate, thereby driving the spindle to move in the weaving track, so that the glass fiber filaments are continuously wound into a cylindrical glass fiber tube on the outer wall of the guide tube.

[0007] Preferably, the blow molding process in step two specifically includes: Raw material granules are fed into the extruder through the feed funnel. The extruder extrudes the raw material granules into the annular groove of the blow molding machine and blows them out through the annular groove. The air pump blows the raw material granules through the air blowing hole to form a cylindrical inner film. The inner film moves along the inner wall of the guide tube.

[0008] Preferably, the flattening process in step three specifically includes: The motor drives the drive sprocket to rotate, and the chain also rotates, thereby moving the traction block. Because the traction block, glass fiber tube, and guide tube are in close contact, the traction block can pull the glass fiber tube along the guide tube. When both the glass fiber tube and the inner membrane extend out of the guide tube, the inner membrane continues to bulge under the action of the air pump. The outer wall of the inner membrane contacts the inner wall of the glass fiber tube, so that the outer wall of the inner membrane wraps around the inner wall of the glass fiber tube. The traction block pulls the glass fiber tube with the inner membrane wrapped inside to the extrusion assembly. After passing through the guide roller, it enters between the two pressure plates. The electric cylinder drives the pressure plates to move, and the two rows of extrusion rollers also move. The extrusion rollers cooperate with the extrusion block to flatten the cylindrical glass fiber tube and the inner membrane into a flat shape.

[0009] Preferably, the impregnation process in step four specifically includes: The flat glass fiber tube is pulled into the impregnation tank by the drive roller. The vacuum pump works to evacuate the inside of the impregnation tank, which can remove the air from the pores of the glass fiber tube. Then, the cylinder pushes the lifting plate one to move downward, and the tension roller and the immersion roller also move downward. The immersion roller drives the glass fiber tube downward, so that the glass fiber tube is immersed in the impregnation liquid. The compressor works to pressurize the inside of the impregnation tank. Under the action of vacuum pressure, it can be ensured that the impregnation liquid completely fills the pores of the glass fiber tube, so that it can fully absorb the impregnation liquid and leave no air bubbles. After impregnation, the excess impregnation liquid on the glass fiber tube is squeezed out by the squeeze roller two.

[0010] Preferably, the composite process in step five specifically includes: Two traction rollers pull the outer film from two unwinding rolls, causing it to pass through guide roller two, traction rollers, and guide plate onto the material support frame. A slide cylinder drives a pneumatic gripper to move to the outer film, clamping it. A motor drives a drive pulley, which in turn moves a belt, causing the connecting block to move as well. This moves a moving plate along a slide rail, moving the pneumatic gripper and the outer film below the longitudinal hot-pressing assembly. The pneumatic gripper releases the outer film, and the slide cylinder moves it away from the film. The hot-pressing cylinder moves the lifting plate two downwards, causing the hot-pressing plate to move downwards as well. An electric heating wire is energized to heat the hot-pressing plate, allowing it to press against the two outer films. During heat sealing, the drive roller pulls the glass fiber tube between the two outer films, allowing the outer films to wrap around the glass fiber tube. Motor 3 drives the pneumatic gripper to move to the glass fiber tube, and the slide cylinder drives the pneumatic gripper to move onto the glass fiber tube. The pneumatic gripper clamps the glass fiber tube and the outer film. Motor 3 drives the pneumatic gripper to move, and the glass fiber tube and the outer film move accordingly. When the glass fiber tube moves to the required length, the cutting cylinder drives the cutting blade mounting frame to move downward, and the cutting blade also moves downward to cut the glass fiber tube. When the outer film is unwound to the required length, the cutting component 2 cuts it. The outer film is then heat-pressed by the transverse hot pressing component and the longitudinal hot pressing component, thereby bonding the outer film to the glass fiber tube.

[0011] Compared with the prior art, the technical solution provided by the present invention has at least the following technical effects or advantages: This invention features an impregnation mechanism. A vacuum pump creates a vacuum inside the impregnation tank, removing air from the pores of the glass fiber tube. A cylinder then pushes a lifting plate downwards, causing the tension roller and immersion roller to move downwards as well. The immersion roller moves the glass fiber tube downwards, immersing it in the impregnation solution. A compressor pressurizes the impregnation tank, ensuring the impregnation solution completely fills the pores of the glass fiber tube under vacuum pressure, allowing for full absorption and eliminating air bubbles. After impregnation, a second extrusion roller squeezes out excess impregnation solution from the glass fiber tube, allowing it to fall back into the impregnation tank, thus reducing waste. The invention also includes a lamination mechanism for unwinding and cutting the outer film and laminating it onto the glass fiber tube. This highly automated process reduces the need for frequent manual operation, improving production efficiency. Attached Figure Description

[0012] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention, but do not constitute a limitation thereof. In the drawings: Figure 1 This is a schematic diagram of the structure of the present invention; Figure 2 This is an exploded view of the weaving mechanism in this invention; Figure 3 This is a schematic diagram of the extrusion mechanism in the present invention; Figure 4 This is a schematic diagram of the impregnation mechanism in the present invention; Figure 5 This is a schematic diagram of the composite mechanism structure in this invention.

[0013] In the attached image: 1. Weaving Mechanism; 101. Chassis; 102. Rotating Shaft; 103. Driven Gear; 104. Driving Gear; 105. Motor 1; 106. Weaving Track; 107. Dial; 108. Arc-shaped Slot; 109. Spindle; 2. Blow Molding Mechanism; 201. Blow Molding Machine; 202. Annular Groove; 203. Connecting Pipe; 204. Extruder; 205. Feed Funnel; 206. Air Inlet; 207. Guide Pipe; 3. Extrusion Mechanism; 301. Traction block; 302. Motor II; 303. Chain; 304. Drive sprocket; 305. Transmission sprocket; 306. Side plate; 307. Bracket; 308. Guide roller I; 309. Support plate I; 310. Pressure plate; 311. Extrusion roller I; 312. Extrusion block; 313. Roller roller; 314. Electric cylinder; 4. Impregnation mechanism; 401. Impregnation tank; 402. Upper guide roller; 403. Sliding sleeve I; 404. Guide... 405. Lifting rod; 406. Cylinder; 407. Tensioning roller; 408. Immersion roller; 409. Extrusion roller; 410. Rubber sealing strip; 411. Pressure roller; 412. Drive roller; 5. Composite mechanism; 501. Material support frame; 502. Cutting bracket; 503. Cutting cylinder; 504. Cutting blade mounting frame; 505. Cutting blade; 506. Traction roller; 507. Support plate; 508. Unloading roll; 509. Guide roller 2; 510, guide plate; 511, pneumatic gripper; 512, slide cylinder; 513, moving plate; 514, slider; 515, slide rail; 516, frame; 517, connecting block; 518, belt; 519, driving pulley; 520, driven pulley; 521, motor 3; 522, hot press cylinder; 523, top plate; 524, lifting plate 2; 525, support rod; 526, sliding sleeve 2; 527, hot press plate. Detailed Implementation

[0014] To further illustrate the technical means and effects of the present invention in achieving its intended purpose, the following detailed description of the specific implementation methods, structures, features, and effects of the present invention, in conjunction with the accompanying drawings and preferred embodiments, is provided below.

[0015] Please see Figures 1-5The present invention provides a technical solution: a production device for glass fiber hose repair based on ultraviolet light curing, comprising a braiding mechanism 1, a blow molding mechanism 2, an extrusion mechanism 3, an impregnation mechanism 4 and a composite mechanism 5. The braiding mechanism 1 is provided with the blow molding mechanism 2, the extrusion mechanism 3 is provided on one side of the braiding mechanism 1, the impregnation mechanism 4 is provided on one side of the extrusion mechanism 3, and the composite mechanism 5 is provided on one side of the impregnation mechanism 4.

[0016] The weaving mechanism 1 in this embodiment includes a housing 101, a motor 105, a dial 107, and a spindle 109. Multiple rotating shafts 102 are rotatably mounted inside the housing 101. Each rotating shaft 102 is equipped with a driven gear 103, and adjacent driven gears 103 mesh with each other. One driven gear 103 meshes with a driving gear 104, which is mounted on the output shaft of the motor 105. The motor 105 is mounted on the housing 101. Multiple circumferentially distributed weaving tracks 106 are provided on the side of the housing 101, and these tracks are connected sequentially. The weaving tracks 106 are circular tracks. One end of each rotating shaft 102 passes through the housing 101 and connects to the dial 107. The dial 107 is located within the weaving tracks 106 and has circumferentially distributed arc-shaped slots 108. Spindles 109 are located within the arc-shaped slots 108 and are used to mount glass fiber yarn rolls.

[0017] The blow molding mechanism 2 in this embodiment includes a blow molding machine 201. An annular groove 202 is provided on one side of the blow molding machine 201. The annular groove 202 is connected to a connecting pipe 203. The connecting pipe 203 is connected to an extruder 204. A feeding funnel 205 is connected to the upper end of the extruder 204. A plurality of air blowing holes 206 are provided on one side of the blow molding machine 201 and inside the arc-shaped groove 202. The air blowing holes 206 are connected to an air pump through an air pipe. A conduit 207 is installed on one side of the blow molding machine 201 and outside the arc-shaped groove 202. The conduit 207 has a hollow structure.

[0018] The extrusion mechanism 3 in this embodiment includes a traction component and an extrusion component disposed on one side of the traction component. There are two traction components, which are spaced apart. The traction component includes a traction block 301 and a second motor 302. Multiple traction blocks 301 are provided and are spaced apart on a chain 303. The chain 303 is wound around a drive sprocket 304 and a transmission sprocket 305. The drive sprocket 304 is on the output shaft of the second motor 302. The second motor 302 is mounted on a side plate 306. The transmission sprocket 305 is rotatably mounted on the side plate 306. The side plate 306 is mounted on a bracket 307.

[0019] In this embodiment, two extrusion assemblies are provided, and the two extrusion assemblies are symmetrically arranged. The extrusion assembly includes a guide roller 308, an extrusion roller 311, and an extrusion block 312. Multiple guide rollers 308 are provided and are arranged at equal intervals. The guide rollers 308 are rotatably mounted on a support plate 309. One side of the support plate 309 is hinged to one end of a pressure plate 310. Multiple extrusion rollers 311 are rotatably mounted on the pressure plate 310 and are arranged at equal intervals. An extrusion block 312 is mounted on one side of the extrusion rollers 311 on the pressure plate 310. A rolling roller 313 is rotatably mounted on the other end of the pressure plate 310. An electric cylinder 314 is hinged to the side wall of the pressure plate 310, and the end of the electric cylinder 314 is hinged to the frame 307.

[0020] The impregnation mechanism 4 in this embodiment includes an impregnation tank 401 containing impregnation liquid. The impregnation tank 401 is connected to a vacuum pump via a vacuum tube and to a compressor via a gas supply tube. Solenoid valves are installed on both the vacuum tube and the gas supply tube. Two upper guide rollers 402 are arranged side-by-side with spacing inside the impregnation tank 401. A lower guide roller is located below each upper guide roller 402. A sliding sleeve 403 is installed on the top of the impregnation tank 401, fitted onto a guide rod 404. The guide rod 404 is connected to a lifting plate 405, which is connected to the piston rod of a cylinder 406. The cylinder 406 is mounted on the top of the impregnation tank 401. Two pistons are rotatably mounted on one end of the lifting plate 405. Tensioning rollers 407 are located between two upper guide rollers 402. Two immersion rollers 408 are rotatably installed at the other end of the lifting plate 405. Two extrusion rollers 409 are installed inside the impregnation tank 401. Ports for glass fiber tubes to pass through and exit are opened at both ends of the impregnation tank 401. Rubber sealing strips 410 are fixed on the upper and lower sides of the ports respectively. The rubber sealing strips 410 can maintain the sealing conditions at the ports. Pressure rollers 411 and drive rollers 412 are rotatably installed at both ends of the impregnation tank 401. There are two pressure rollers 411. The two pressure rollers 411 can make the glass fiber tube to be impregnated advance more smoothly. There are two drive rollers 412. One of the drive rollers 412 is connected to the output end of the drive motor.

[0021] The composite mechanism 5 in this embodiment includes a material support frame 501, on which a cutting component one, an unwinding component and a pulling component are arranged sequentially from left to right. The pulling component is equipped with a cutting component two and a hot pressing component.

[0022] In this embodiment, both the first cutting component and the second cutting component include a cutting bracket 502. A cutting cylinder 503 is provided on the outer top wall of the cutting bracket 502. The piston rod of the cutting cylinder 503 passes through the cutting bracket 502 and is connected to the cutting knife mounting bracket 504. The two ends of the cutting knife mounting bracket 504 are slidably disposed on the cutting bracket 502. A cutting knife 505 is installed at the bottom of the cutting knife mounting bracket 504.

[0023] In this embodiment, two unwinding assemblies are provided. The unwinding assembly includes a traction roller 506 and a feed roll 508. There are two traction rollers 506, which are rotatably mounted on the second support plate 507. The shaft end of one traction roller 506 is connected to the output end of the traction motor. The feed roll 508 is rotatably mounted on the second support plate 507. A guide roller 509 is provided between the feed roll 508 and the traction roller 506. A guide plate 510 is provided on one side of the traction roller 506.

[0024] The material pulling assembly in this embodiment includes a pneumatic gripper 511 and a motor 521. The motor 521 is mounted on the frame 516 via a motor mounting plate. The output end of the motor 521 is connected to the drive shaft. Both ends of the drive shaft are equipped with drive pulleys 519. Each drive pulley 519 is connected to a driven pulley 520 via a belt 518. The two driven pulleys 520 are mounted on a driven shaft, which is rotatably mounted on the frame 516. Each belt 518 is equipped with a connecting block 517. The connecting block 517 is mounted on the bottom of the moving plate 513. A slider 514 is also mounted on the bottom of the moving plate 513. The slider 514 is slidably mounted on a slide rail 515, which is mounted on the frame 516. A slide cylinder 512 is mounted on the moving plate 513, and a pneumatic gripper 511 is mounted on the slide of the slide cylinder 512.

[0025] The hot pressing assembly in this embodiment includes two transverse hot pressing assemblies and one longitudinal hot pressing assembly. Both the transverse and longitudinal hot pressing assemblies include a hot pressing cylinder 522. The hot pressing cylinder 522 is mounted on a top plate 523. The piston rod of the hot pressing cylinder 522 passes through the top plate 523 and is connected to the second lifting plate 524. The top plate 523 is mounted on a support rod 525. A second sliding sleeve 526 is sleeved on the support rod 525. The second sliding sleeve 526 is mounted on the second lifting plate 524. A hot pressing plate 527 is installed at the bottom of the second lifting plate 524. An electric heating wire is provided inside the hot pressing plate 527.

[0026] This invention provides another technical solution: a manufacturing process for fiberglass hoses based on ultraviolet light curing for pipe repair, the manufacturing process steps of which are as follows: Step 1. Weaving: The glass fiber filaments are woven together using weaving mechanism 1 to obtain a tubular glass fiber tube; Step 2. Blow molding: The raw material granules are extruded and blow molded through the blow molding mechanism 2 to obtain a cylindrical inner film; Step 3. Flattening; The cylindrical glass fiber tube and inner membrane are flattened by the extrusion mechanism 3; Step 4. Impregnation: The air in the pores of the glass fiber tube with the inner membrane is extracted by the impregnation mechanism 4 and immersed in the impregnation liquid. Then, the impregnation liquid is impregnated into the glass fiber tube by vacuum pressure so that it can fully absorb the impregnation liquid. Step 5: Lamination: The outer membrane is laminated onto the glass fiber tube using lamination mechanism 5; The weaving process in step one specifically includes: The motor 105 drives the drive gear 104 to rotate, and the driven gear 103, the rotating shaft 102 and the dial 107 also rotate, thereby driving the spindle 109 to move in the braiding track 106, so that the glass fiber filaments are continuously wound into a cylindrical glass fiber tube on the outer wall of the guide tube 207. The blow molding process in step two specifically includes: Raw material granules are fed into extruder 204 through feed funnel 205. Extruder 204 extrudes the raw material granules into the annular groove 202 of blow molding machine 201 and blows them out through the annular groove 202. Air pump blows the raw material granules through air blowing hole 206 to form a cylindrical inner film. The inner film moves along the inner wall of guide tube 207. The flattening process in step three specifically includes: The motor 302 drives the drive sprocket 304 to rotate, and the chain 303 also rotates, thereby driving the traction block 301 to move. Since the traction block 301, the glass fiber tube and the guide tube 207 are in close contact, the traction block 301 can pull the glass fiber tube to move along the guide tube 207. When both the glass fiber tube and the inner membrane extend out of the guide tube 207, the inner membrane continues to bulge under the action of the air pump. The outer wall of the inner membrane contacts the inner wall of the glass fiber tube, so that the outer wall of the inner membrane wraps around the inner wall of the glass fiber tube. The traction block 301 pulls the glass fiber tube with the inner membrane wrapped inside to the extrusion assembly. After passing through the guide roller 308, it enters between the two pressure plates 310. The electric cylinder 314 drives the pressure plate 310 to move, and the two rows of extrusion rollers 311 also move. The extrusion rollers 311 cooperate with the extrusion block 312 to flatten the cylindrical glass fiber tube and the inner membrane into a flat shape. The impregnation process in step four specifically includes: The flat glass fiber tube is pulled into the impregnation tank 401 by the drive roller 412. The vacuum pump works to evacuate the inside of the impregnation tank 401, which can extract the air from the pores of the glass fiber tube. Then, the cylinder 406 pushes the lifting plate 405 to move downward. The tension roller 407 and the immersion roller 408 also move downward. The immersion roller 408 drives the glass fiber tube to move downward, so that the glass fiber tube is immersed in the impregnation liquid. The compressor works to pressurize the inside of the impregnation tank 401. Under the action of vacuum pressure, it can be ensured that the impregnation liquid completely fills the pores of the glass fiber tube, so that it can fully absorb the impregnation liquid and leave no air bubbles. After impregnation, the excess impregnation liquid on the glass fiber tube is squeezed out by the squeeze roller 409. The composite process in step five specifically includes: Two traction rollers 506 pull the outer film on two unwinding rolls 508 to unwind it, so that the outer film on the unwinding roll 508 is unwound onto the material support frame 501 via guide roller 509, traction roller 506, and guide plate 510. The slide cylinder 512 drives the pneumatic gripper 511 to move to the outer film, where it grips it. Motor 521 drives the drive pulley 519 to rotate, which in turn drives the belt 518 to move. The connecting block 517 also moves, thus moving the moving plate 513 along the slide rail 515. This moves the pneumatic gripper 511 and the outer film below the longitudinal hot pressing assembly. The pneumatic gripper 511 releases the outer film, and the slide cylinder 512 moves the pneumatic gripper 511 away from the outer film. The hot pressing cylinder 522 moves the lifting plate 524 downward, and the hot pressing plate 527 also moves downward. The electric heating wire is energized to heat the pressing assembly. The plate 527 is heated, causing the hot press plate 527 to heat-seal the two outer films. At the same time, the drive roller 412 pulls the glass fiber tube between the two outer films, so that the outer films can wrap the glass fiber tube. The motor 3 521 drives the pneumatic gripper 511 to move to the glass fiber tube. The slide cylinder 512 drives the pneumatic gripper 511 to move onto the glass fiber tube. The pneumatic gripper 511 clamps the glass fiber tube and the outer film. The motor 3 521 drives the pneumatic gripper 511 to move, and the glass fiber tube and the outer film also move with it. When the glass fiber tube moves to the required length, the cutting cylinder 503 drives the cutting knife mounting frame 504 to move downward, and the cutting knife 505 also moves downward to cut the glass fiber tube. When the outer film is unwound to the required length, the cutting component 2 cuts it. The outer film is hot-pressed by the transverse hot press component and the longitudinal hot press component, so that the outer film can be laminated onto the glass fiber tube.

[0027] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention in any way. Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present invention. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present invention without departing from the scope of the present invention shall still fall within the scope of the present invention.

Claims

1. A manufacturing process for fiberglass flexible hoses based on ultraviolet light curing for pipe repair, characterized in that: The production process steps are as follows: Step 1. Weaving: Glass fiber filaments are woven together using a weaving mechanism (1) to obtain a tubular glass fiber tube; Step 2. Blow molding: The raw material particles are extruded and blow molded by the blow molding mechanism (2) to obtain a cylindrical inner film; Step 3. Flattening; The cylindrical glass fiber tube and inner membrane are flattened by the extrusion mechanism (3); Step 4. Impregnation: The air in the pores of the glass fiber tube with the inner membrane wrapped inside is extracted by the impregnation mechanism (4) and immersed in the impregnation liquid. Then, the impregnation liquid is impregnated into the glass fiber tube by vacuum pressure so that it can fully absorb the impregnation liquid. Step 5: Composite: The outer membrane is composited onto the glass fiber tube by the composite mechanism (5).

2. The manufacturing process of a glass fiber flexible hose based on ultraviolet light curing for pipe repair according to claim 1, characterized in that: The weaving process in step one specifically includes: The motor (105) drives the drive gear (104) to rotate, and the driven gear (103), the shaft (102) and the dial (107) also rotate, thereby driving the spindle (109) to move in the braiding track (106), so that the glass fiber filaments are continuously wound into a cylindrical glass fiber tube on the outer wall of the guide tube (207).

3. The production process of a glass fiber flexible hose based on ultraviolet light curing for pipe repair according to claim 1, characterized in that: The blow molding process in step two specifically includes: Raw material granules are fed into the extruder (204) through the feed funnel (205). The extruder (204) extrudes the raw material granules into the annular groove (202) of the blow molding machine (201) and blows them out through the annular groove (202). The air pump blows the raw material granules through the air blowing hole (206) to form a cylindrical inner film. The inner film moves along the inner wall of the guide tube (207).

4. The manufacturing process of a glass fiber flexible hose based on ultraviolet light curing for pipe repair according to claim 1, characterized in that: The flattening process in step three specifically includes: The motor (302) drives the drive sprocket (304) to rotate, and the chain (303) also rotates, thereby driving the traction block (301) to move. Since the traction block (301), the glass fiber tube, and the guide tube (207) are in close contact, the traction block (301) can pull the glass fiber tube to move along the guide tube (207). When both the glass fiber tube and the inner membrane extend out of the guide tube (207), the inner membrane continues to bulge under the action of the air pump, and the outer wall of the inner membrane and the glass fiber tube... The inner wall of the tube contacts the outer wall of the inner membrane, which wraps around the inner wall of the glass fiber tube. The traction block (301) pulls the glass fiber tube with the inner membrane wrapped inside to the extrusion assembly. After passing through the guide roller (308), it enters between the two pressure plates (310). The electric cylinder (314) drives the pressure plate (310) to move, and the two rows of extrusion rollers (311) also move. The extrusion rollers (311) cooperate with the extrusion block (312) to flatten the cylindrical glass fiber tube and the inner membrane into a flat shape.

5. The manufacturing process of a glass fiber flexible hose based on ultraviolet light curing for pipe repair according to claim 1, characterized in that: The impregnation process in step four specifically includes: The flat glass fiber tube is pulled into the impregnation tank (401) by the drive roller (412). The vacuum pump works to evacuate the inside of the impregnation tank (401), which can extract the air from the pores of the glass fiber tube. Then, the cylinder (406) pushes the lifting plate (405) to move downward. The tension roller (407) and the immersion roller (408) also move downward. The immersion roller (408) drives the glass fiber tube to move downward, so that the glass fiber tube is immersed in the impregnation liquid. The compressor works to pressurize the inside of the impregnation tank (401). Under the action of vacuum pressure, it can be ensured that the impregnation liquid is completely filled into the pores of the glass fiber tube, so that it can fully absorb the impregnation liquid and leave no air bubbles. After impregnation, the excess impregnation liquid on the glass fiber tube is squeezed out by the squeeze roller (409).

6. The manufacturing process of a glass fiber flexible hose based on ultraviolet light curing for pipe repair according to claim 1, characterized in that: The composite process in step five specifically includes: Two traction rollers (506) pull the outer film on two unwinding rolls (508) to unwind it, so that the outer film on the unwinding roll (508) is unwound onto the material support frame (501) via guide roller two (509), traction roller (506) and guide plate (510). The slide cylinder (512) drives the pneumatic gripper (511) to move to the outer film, and the pneumatic gripper (511) clamps the outer film. Motor three (521) drives the drive pulley (519) to rotate, and the drive pulley (519) drives the outer film to rotate. The moving belt (518) moves, and the connecting block (517) moves accordingly, thereby driving the moving plate (513) to move. The moving plate (513) moves along the slide rail (515), which in turn drives the pneumatic gripper (511) and the outer membrane to move below the longitudinal hot pressing assembly. The pneumatic gripper (511) releases the outer membrane, and the slide cylinder (512) drives the pneumatic gripper (511) away from the outer membrane. The hot pressing cylinder (522) drives the lifting plate (524) to move downward, and the hot pressing plate (527) also moves downward. The electric heating wire is energized to heat the hot press plate (527), causing the hot press plate (527) to heat-seal the two outer films. At the same time, the drive roller (412) pulls the glass fiber tube between the two outer films, so that the outer films can wrap the glass fiber tube. The motor three (521) drives the pneumatic gripper (511) to move to the glass fiber tube. The slide cylinder (512) drives the pneumatic gripper (511) to move onto the glass fiber tube, and the pneumatic gripper (511) clamps the glass fiber tube and the outer film. Motor 3 (521) drives the pneumatic gripper (511) to move, and the glass fiber tube and outer film also move. When the glass fiber tube moves to the required length, the cutting cylinder (503) drives the cutting knife mounting bracket (504) to move downward, and the cutting knife (505) also moves downward to cut the glass fiber tube. When the outer film is unwound to the required length, the cutting component 2 cuts it. The outer film is hot-pressed by the transverse hot-pressing component and the longitudinal hot-pressing component, so that the outer film can be composited onto the glass fiber tube.

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