Textile loom eyeletting machine

Abstract

The present application relates to the technical field of textile loom, especially to a textile loom. Technical scheme: the textile loom comprises a loom assembly, a wire feeding assembly and a steel heald calibration assembly; the upper and lower ends of the loom assembly are respectively provided with the wire feeding assembly and the steel heald calibration assembly; the front and rear ends of the loom assembly are respectively provided with the steel heald calibration assembly and a wire pulling hook assembly; the lower end of the steel heald calibration assembly is provided with a whole base; the front of the steel heald calibration assembly is provided with a thermoplastic heating module. The wire feeding assembly is driven by the wire clamping cylinder to clamp the wire in front of the wire adjusting plate, so as to avoid the wire positioning deviation.

Description

Technical Field

[0001] This invention belongs to the technical field of textile garment eye-correcting machines, specifically relating to textile garment eye-correcting machines. Background Technology

[0002] Textile fitting eye adjustment machines play an important role in the textile machinery field, especially in equipment such as jacquard machines and textile machines, where they are used to continuously lift and lower warp threads.

[0003] Existing textile garment alignment machines typically rely on manual positioning and fixing of the threaded wire and heald frame. This results in relatively low connection accuracy and efficiency between the threaded wire and heald frame. Manual operation is often affected by various factors, such as human error and insufficient operating experience. These factors all lead to a decrease in the accuracy of the positioning and fixing operation. At the same time, manual operation is relatively time-consuming, which cannot meet the textile industry's demand for high-efficiency production and exacerbates the problems of connection accuracy and efficiency between the threaded wire and heald frame.

[0004] Therefore, in response to the problem of low accuracy and low efficiency in the connection between the existing textile garment eye-aligning machine, which usually uses manual operation to position and fix the through thread and the steel heald, a textile garment eye-aligning machine can be designed. Summary of the Invention

[0005] To overcome the problem of low accuracy and low efficiency in the connection between the existing textile garment eyeletting machine, which usually relies on manual positioning and fixing of the threading wire and the heald frame, this is necessary.

[0006] The technical solution of the present invention is as follows: a textile fabrication eye adjustment machine, comprising an fabrication assembly, a thread feeding assembly, and a heald calibration assembly. The upper and lower ends of the fabrication assembly are respectively provided with a thread feeding assembly and a heald lining thread feeding assembly; the front and rear ends of the fabrication assembly are respectively provided with a heald calibration assembly and a thread hook assembly; the lower end of the heald lining thread feeding assembly is provided with an integral base; a thermoplastic heating module is provided in front of the heald calibration assembly; the thread feeding assembly includes a thread adjusting bracket, a first feeding cylinder, a thread adjusting plate, a thread clamping cylinder, and a thread clamping rod; the heald calibration assembly includes a cover plate cylinder, a heald cover plate, a heald calibration rigid shaft, and a cable cutting cylinder assembly.

[0007] Preferably, the clamping cylinder of the wire feeding assembly drives the clamping rod to clamp the wire in front of the wire adjusting plate, thereby preventing the wire from being misaligned. This solves the problem of low connection accuracy and low efficiency between the wire and the steel heald in existing textile garment eye adjustment machines, which usually require manual positioning and fixing of the wire and the heald.

[0008] Preferably, the assembly includes an adjusting block, a linkage block, a steel heddle head clamping block, a U-shaped cable mounting back plate, an adjusting block lifting cylinder, a rack block, a rack block lifting cylinder, and a steel heddle cable mounting plate; a linkage block is provided above the adjusting block, and the linkage block is fixedly connected to the adjusting block, and the adjusting block is slidably connected to the vertical sliding rod of the overall base; a steel heddle head clamping block is provided at the front end of the linkage block, and the steel heddle head clamping block is rotatably connected to the linkage block, and a rotating tensioning screw is provided on one side of the steel heddle head clamping block, and the rotating tensioning screw is threadedly locked to the rotating shaft of the steel heddle head clamping block and the linkage block.

[0009] Preferably, the front end of the adjusting block is provided with a U-shaped cable mounting back plate, and the U-shaped cable mounting back plate is bolted to the adjusting block; the upper end of the U-shaped cable mounting back plate is provided with a rack block; the lower center of the rack block is provided with a rack block lifting cylinder, and the output end of the rack block lifting cylinder is connected to the rack block lifting transmission, and the outer shell of the rack block lifting cylinder is fixedly connected to the adjusting block; the front end of the U-shaped cable mounting back plate is provided with a steel helical cable laying plate, and the steel helical cable laying plate is bolted to the U-shaped cable mounting back plate; the lower end of the U-shaped cable mounting back plate is provided with an adjusting block lifting cylinder, and the output end of the adjusting block lifting cylinder is connected to the adjusting block lifting transmission.

[0010] Preferably, a steel helical cable tray is provided in front of the steel helical cable tray; a steel helical calibration rigid shaft is fixedly provided at the upper end of the steel helical cable tray; a cover plate cylinder is fixedly provided on one side of the adjusting block, and the output end of the cover plate cylinder is pneumatically connected to the steel helical cable tray; the steel helical cable tray and the steel helical calibration rigid shaft press and calibrate the steel helical cables in the steel helical cable tray to prevent deviation.

[0011] Preferably, a cable cutting cylinder assembly is provided at the upper end of the cover plate cylinder, and the outer shell of the cable cutting cylinder assembly is fixedly connected to the adjusting block.

[0012] Preferably, a wire guiding adjustment plate is provided above the linkage block; a first feed cylinder is provided at the upper end of the wire guiding adjustment plate, and the output end of the first feed cylinder is connected to the wire guiding adjustment plate for front and rear adjustment; a wire guiding adjustment bracket is provided at the rear end of the first feed cylinder, and the wire guiding adjustment bracket is fixedly connected to the outer shell of the first feed cylinder, and the wire guiding adjustment bracket is fixedly connected to the outer shell of the adjustment block.

[0013] Preferably, a wire clamping cylinder is provided on one side of the wire guiding bracket, and the outer shell of the wire clamping cylinder is fixedly connected to the wire guiding plate; a wire clamping rod is provided above the wire clamping cylinder, and the wire clamping rod is movably set through the wire guiding bracket and the wire guiding plate, and the wire clamping rod is horizontally adjusted and driven by the output end of the wire clamping cylinder.

[0014] Preferably, the through-wire hook assembly includes a hook plate frame, a steel heddle hook plate, a hook plate cylinder, a plate hook, a plate hook cylinder, and a steel heddle positioning groove; the steel heddle hook plate is located behind the steel heddle wire laying plate and the steel heddle head clamp; the hook plate frame is located behind the steel heddle hook plate; the hook plate cylinder is located behind the hook plate frame, and the output end of the hook plate cylinder passes through the hook plate frame and is connected to the outer shell of the steel heddle hook plate for front-to-back transmission; a plate hook is located inside the steel heddle hook plate; plate hook cylinders are located on both sides of the rear end of the plate hook, and the output end of the plate hook cylinder is connected to the plate hook for front-to-back transmission; a steel heddle positioning groove is located below the plate hook, and the steel heddle positioning groove is fixedly connected to the outer shell of the steel heddle hook plate, and the plate hook and the steel heddle positioning groove are driven forward to the space between the steel heddle head clamp and the steel heddle wire laying plate.

[0015] Preferably, the steel helical cable laying feed assembly includes a steel helical adjustment base, a steel helical base lifting cylinder, a steel helical mounting plate, a steel helical adjustment plate, and a second feed cylinder; the steel helical adjustment base is provided below the adjustment block; the lower end of the steel helical adjustment base is provided with a steel helical base lifting cylinder, and the output end of the steel helical base lifting cylinder is connected to the lifting connection of the steel helical adjustment base.

[0016] Preferably, a steel helical adjustment base is provided with a steel helical mounting plate at its upper end, and the steel helical mounting plate is fixedly connected to the steel helical adjustment base; a steel helical adjustment plate is provided at the front end of the steel helical mounting plate; a second feed cylinder is provided on both sides of the rear end of the steel helical mounting plate, and the output end of the second feed cylinder passes through the steel helical mounting plate and is connected to the steel helical adjustment plate for back-and-forth movement transmission.

[0017] The beneficial effects of this invention:

[0018] 1. Existing textile garment eyelet alignment machines typically rely on manual positioning and fixing of the thread guide wire and heald wire, resulting in low connection accuracy and efficiency. This solution addresses the problem of low connection accuracy and efficiency caused by the manual positioning and fixing of the thread guide wire and heald wire in existing textile garment eyelet alignment machines. The solution utilizes a thread-clamping cylinder in the thread guide wire feeding assembly to clamp the thread guide wire in front of the adjusting plate, thus preventing misalignment.

[0019] 2. By setting up the steel helical calibration component, the steel helical cover plate and the connected steel helical calibration hard shaft are driven by the cover plate cylinder to clamp and squeeze the steel helical cable in the steel helical cable tray groove, so that when the through wire passes through the hook of the upper section of the steel helical, the end of the steel helical can remain stable, thereby effectively improving the processing accuracy of the connection between the steel helical and the through wire in the assembly eye-calibration machine.

[0020] 3. First, pass the steel cable assembly bracket through the support rod in front of the steel cable mounting plate. Then, embed the upper section of the steel cable into the groove of the steel cable tray for fixation. Next, flip the steel cable head clamp down to lock the upper end of the steel cable. Then, the cover plate cylinder drives the steel cable cover plate and the steel cable calibration hard shaft to fix the steel cable installed in the steel cable tray. Then, the hook plate cylinder drives the steel cable hook plate forward, and the plate hook cylinder drives the plate hook to extend, fixing the steel cable in the steel cable positioning groove. At the same time, the plate hook passes through. Then, pull down the through wire above the machine, pass it through the through wire adjustment plate, and wind the through wire into the plate hook inside the hook at the end of the steel cable. Then, the clamping cylinder drives the clamping rod to move and move the through wire adjustment plate in front of the through wire. With the wire fixed, the hook cylinder pulls the steel heddle hook plate backward, causing the wire hook on the plate hook to pass through the hook at the end of the steel heddle cable. The excess wire is pulled backward out of the machine. As the rack block lifting cylinder pushes the rack block upward and works with the cable cutting cylinder group, the excess wire pulled backward is cut off. The wire end is pressed and heated to form a wire knot. After the steel heddle calibration component and the wire feed component are removed, the adjusting block lifting cylinder drives the assembly component to move up and down, so that the wire knot moves down into the thermoplastic sleeve outside the steel heddle. Finally, the thermoplastic heating module heats and thermoplasticizes the thermoplastic sleeve at the knot between the wire and the steel heddle hook to complete the thermoplastic wrapping process, thus completing the wire assembly process. Attached Figure Description

[0021] Figure 1 The diagram shown is a side perspective view of the overall three-dimensional structure of the textile garment eye-correcting machine of the present invention;

[0022] Figure 2 The diagram shown is a three-dimensional front view of the textile garment eye-correcting machine of the present invention.

[0023] Figure 3 The diagram shown is a three-dimensional structural schematic of the through-yarn feeding component of the textile garment eyelet straightening machine of the present invention.

[0024] Figure 4 The diagram shown is a three-dimensional structural schematic of the assembly components of the textile assembly eye-correcting machine of the present invention;

[0025] Figure 5 The diagram shown is a rear-view perspective three-dimensional structural schematic of the assembly components of the textile assembly eye-correcting machine of the present invention;

[0026] Figure 6 The diagram shown is an exploded three-dimensional structural diagram of the steel heald board of the textile garment eye-aligning machine of the present invention.

[0027] Figure 7 The diagram shown is a three-dimensional structural diagram of the assembly components and steel heald calibration components of the textile assembly eye-correcting machine of the present invention.

[0028] Figure 8 The diagram shown is a rear-view perspective view of the assembly components and steel heald calibration components of the textile assembly eye-correcting machine of the present invention.

[0029] Figure 9 The diagram shown is a three-dimensional structural schematic of the steel heald feeding assembly of the textile garment eye-correcting machine of the present invention.

[0030] Figure 10 The diagram shown is a three-dimensional structural schematic of the through-thread hook assembly of the textile garment eyelet machine of the present invention.

[0031] The labels in the attached diagram are as follows: 1. Assembly component; 2. Through-wire feed component; 3. Through-wire hook component; 4. Steel helium wiring feed component; 5. Overall base; 6. Steel helium calibration component; 7. Thermoplastic heating module; 101. Adjusting block; 102. Linkage block; 103. Steel helium head clamp block; 104. U-shaped wiring mounting back plate; 105. Adjusting block lifting cylinder; 106. Rack block; 107. Rack block lifting cylinder; 108. Steel helium wiring plate; 201. Through-wire adjusting bracket; 202. First feed cylinder; 2 03. Wire guiding adjustment plate; 204. Wire clamping cylinder; 205. Wire clamping rod; 301. Hook plate frame; 302. Steel heddle hook plate; 303. Hook plate cylinder; 304. Plate hook; 305. Plate hook cylinder; 306. Steel heddle positioning groove; 401. Steel heddle adjusting base; 402. Steel heddle base lifting cylinder; 403. Steel heddle mounting plate; 404. Steel heddle adjusting plate; 405. Second feed cylinder; 601. Cover plate cylinder; 602. Steel heddle cover plate; 603. Steel heddle calibration hard shaft; 604. Wire cutting cylinder assembly. Detailed Implementation

[0032] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0033] Please see Figure 1-10 The present invention provides an embodiment of a textile fabrication eye-correcting machine, comprising a fabrication assembly 1, a thread feeding assembly 2, and a heald calibration assembly 6. The upper and lower ends of the fabrication assembly 1 are respectively provided with the thread feeding assembly 2 and the heald lining thread feeding assembly 4; the front and rear ends of the fabrication assembly 1 are respectively provided with the heald calibration assembly 6 and the thread hook assembly 3; the lower end of the heald lining thread feeding assembly 4 is provided with an integral base 5; a thermoplastic heating module 7 is provided in front of the heald calibration assembly 6; the thread feeding assembly 2 includes a thread adjusting bracket 201, a first feeding cylinder 202, a thread adjusting plate 203, a thread clamping cylinder 204, and a thread clamping rod 205; the heald calibration assembly 6 includes a cover plate cylinder 601, a heald cover plate 602, a heald calibration rigid shaft 603, and a cable cutting cylinder group 604.

[0034] Please see Figure 1-10 In this embodiment, the assembly 1 includes an adjusting block 101, a linkage block 102, a steel heddle head clamping block 103, a U-shaped cable mounting backplate 104, an adjusting block lifting cylinder 105, a rack block 106, a rack block lifting cylinder 107, and a steel heddle cable mounting plate 108. A linkage block 102 is positioned above the adjusting block 101, and the linkage block 102 is fixedly connected to the adjusting block 101. The adjusting block 101 is also slidably connected to the vertical sliding rod of the overall base 5. A steel heddle head clamping block 103 is positioned at the front end of the linkage block 102, and the steel heddle head clamping block 103 is rotatably connected to the linkage block 102. A rotating tensioning screw is positioned on one side of the steel heddle head clamping block 103, and the rotating tensioning screw is threadedly locked to the shaft of the steel heddle head clamping block 103 and the linkage block 102. A U-shaped cable mounting backplate 104 is provided on the front end of the U-shaped cable mounting backplate 104, and the U-shaped cable mounting backplate 104 is bolted to the adjusting block 101; a rack block 106 is provided on the upper end of the U-shaped cable mounting backplate 104; a rack block lifting cylinder 107 is provided on the lower center end of the rack block 106, and the output end of the rack block lifting cylinder 107 is connected to the rack block 106 for lifting transmission, and the outer shell of the rack block lifting cylinder 107 is fixedly connected to the adjusting block 101; a steel helical cable laying plate 108 is provided on the front end of the U-shaped cable mounting backplate 104, and the steel helical cable laying plate 108 is bolted to the U-shaped cable mounting backplate 104; an adjusting block lifting cylinder 105 is provided on the lower end of the U-shaped cable mounting backplate 104, and the output end of the adjusting block lifting cylinder 105 is connected to the adjusting block 101 for lifting transmission.

[0035] Please see Figure 1-10In this embodiment, a steel helical cable tray 108 is provided with a steel helical cover plate 602 in front of it; a steel helical calibration hard shaft 603 is fixedly provided at the upper end of the steel helical cover plate 602; a cover plate cylinder 601 is fixedly provided on one side of the adjusting block 101, and the output end of the cover plate cylinder 601 is pneumatically connected to the steel helical cover plate 602; the steel helical cover plate 602 and the steel helical calibration hard shaft 603 press and calibrate the steel helical cables in the steel helical cable tray 108 to prevent deviation; a cable cutting cylinder group 604 is provided at the upper end of the cover plate cylinder 601, and the outer shell of the cable cutting cylinder group 604 is fixedly connected to the adjusting block 101; a wire guiding adjustment plate 203 is provided above the linkage block 102; a first feed cylinder 2 is provided at the upper end of the wire guiding adjustment plate 203. 02, and the output end of the first feed cylinder 202 is connected to the wire guiding plate 203 for front and rear adjustment; the rear end of the first feed cylinder 202 is provided with a wire guiding bracket 201, and the wire guiding bracket 201 is fixedly connected to the outer shell of the first feed cylinder 202, and the wire guiding bracket 201 is fixedly connected to the outer shell of the adjusting block 101; a wire clamping cylinder 204 is provided on one side of the wire guiding bracket 201, and the outer shell of the wire clamping cylinder 204 is fixedly connected to the wire guiding plate 203; a wire clamping rod 205 is provided above the wire clamping cylinder 204, and the wire clamping rod 205 is movably arranged through the wire guiding bracket 201 and the wire guiding plate 203, and the wire clamping rod 205 is horizontally adjusted and driven connected to the output end of the wire clamping cylinder 204.

[0036] Please see Figure 1-10In this embodiment, the through-wire hook assembly 3 includes a hook plate frame 301, a steel heddle hook plate 302, a hook plate cylinder 303, a plate hook 304, a plate hook cylinder 305, and a steel heddle positioning groove 306; the steel heddle hook plate 302 is arranged behind the steel heddle wire laying plate 108 and the steel heddle head clamp block 103; the hook plate frame 301 is arranged behind the steel heddle hook plate 302; the hook plate cylinder 303 is arranged behind the hook plate frame 301, and the output end of the hook plate cylinder 303 passes through the hook. The frame 301 is connected to the outer shell of the steel heddle hook disc 302 via a front-to-back transmission connection; the steel heddle hook disc 302 is equipped with a plate hook 304 inside; both sides of the rear end of the plate hook 304 are equipped with plate hook cylinders 305, and the output end of the plate hook cylinders 305 is connected to the plate hook 304 via a front-to-back transmission connection; a steel heddle positioning groove 306 is provided below the plate hook 304, and the steel heddle positioning groove 306 is fixedly connected to the outer shell of the steel heddle hook disc 302, and the plate hook 304 is connected to the steel heddle positioning groove 306. The forward transmission is between the steel helium head clamp 103 and the steel helium wiring plate 108; the steel helium wiring feed assembly 4 includes a steel helium adjusting base 401, a steel helium base lifting cylinder 402, a steel helium mounting plate 403, a steel helium adjusting plate 404, and a second feed cylinder 405; the steel helium adjusting base 401 is provided below the adjusting block 101; the lower end of the steel helium adjusting base 401 is provided with the steel helium base lifting cylinder 402, and the output end of the steel helium base lifting cylinder 402 is connected to... The steel helical adjustment base 401 is lifted and connected; a steel helical mounting plate 403 is provided at the upper end of the steel helical adjustment base 401, and the steel helical mounting plate 403 is fixedly connected to the steel helical adjustment base 401; a steel helical adjustment plate 404 is provided at the front end of the steel helical mounting plate 403; a second feed cylinder 405 is provided on both sides of the rear end of the steel helical mounting plate 403, and the output end of the second feed cylinder 405 passes through the steel helical mounting plate 403 and is connected to the steel helical adjustment plate 404 for back-and-forth movement transmission.

[0037] During operation, first, the steel cable assembly bracket is passed through the support rod in front of the steel cable mounting plate 403. Then, the upper section of the steel cable is embedded into the groove of the steel cable tray 108 for fixation. Next, the steel cable head clamp 103 is flipped down to fix and lock the upper end of the steel cable. Then, the cover plate cylinder 601 drives the steel cable cover plate 602 and the steel cable calibration hard shaft 603 to fix the steel cable installed in the steel cable tray 108. After that, the hook cylinder 303 drives the steel cable hook 302 to move forward, and the plate hook cylinder 305 drives the plate hook 304 to extend, fixing the steel cable in the steel cable positioning groove 306. Simultaneously, the hook passes through, and then the wire guide line above the machine is pulled down, wrapped around the front of the wire guide line adjusting plate 203, and passed through the hook 304 inside the wire guide line hook at the end of the steel helical cable. Then, the clamping cylinder 204 drives the clamping rod 205 to move and fix the wire guide line in front of the wire guide line adjusting plate 203. As the hook plate cylinder 303 drives the steel helical hook plate 302 to pull backward, the wire guide line hooked on the hook 304 passes through the hook at the end of the steel helical cable, and the excess wire guide line is pulled backward out of the machine. As the rack block lifting cylinder 107 pushes the rack block 106 upward and cooperates with the cable cutting cylinder group 604 to... The excess wire pulled back is cut off, and the wire end is pressed tightly against itself and heated to form a wire knot. After the steel heald calibration component 6 and the wire feeding component 2 are withdrawn, the assembly component 1 is moved up and down by the adjusting block lifting cylinder 105 to move the wire knot into the thermoplastic sleeve outside the steel heald. Finally, the thermoplastic heating module 7 heats and thermoplasticizes the thermoplastic sleeve at the knot between the wire and the steel heald hook to complete the thermoplastic wrapping process, thus completing the wire assembly process. The wire clamping cylinder 204 of the wire feeding component 2 drives the wire clamping rod 205 to move the wire adjusting plate 203 forward. The through wire is clamped to prevent it from misaligning. This solves the problem of low connection accuracy and efficiency in existing textile garment alignment machines, which typically rely on manual positioning and fixing of the through wire and heald wire. By using a cover plate cylinder 601 to drive the heald cover plate 602 and the connected heald calibration hard shaft 603, the steel heald cable in the groove of the heald wire plate 108 is clamped, squeezed, and fixed. This ensures that the heald end remains stable when the through wire passes through the hook on the upper section of the heald, thus effectively improving the processing accuracy of the connection between the heald and the through wire in the garment alignment machine.

[0038] Through the above steps, the clamping cylinder 204 of the wire feeding assembly 2 drives the clamping rod 205 to clamp the wire in front of the wire adjusting plate 203, thereby avoiding the wire positioning deviation. This avoids the problem of low connection accuracy and low efficiency between the wire and the steel heald in existing textile garment eye adjustment machines, which usually use manual positioning and fixing operations between the wire and the steel heald.

[0039] The embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present invention.

Claims

1. A textile lacing machine comprising a lacing assembly (1), a thread feed assembly (2), a steel heald alignment assembly (6), characterized in that: The upper and lower ends of the assembling assembly (1) are respectively provided with a through-wire feeding assembly (2) and a steel heald row wire feeding assembly (4); the front and rear ends of the assembling assembly (1) are respectively provided with a steel heald calibration assembly (6) and a through-wire pulling hook assembly (3); the lower end of the steel heald row wire feeding assembly (4) is provided with an overall base (5); the front of the steel heald calibration assembly (6) is provided with a thermoplastic heating module (7); the through-wire feeding assembly (2) comprises a through-wire adjusting support (201), a first feeding cylinder (202), a through-wire adjusting plate (203), a wire clamping cylinder (204) and a wire clamping rod (205); the steel heald calibration assembly (6) comprises a cover plate cylinder (601), a steel heald cover plate (602), a steel heald calibration hard shaft (603) and a cable cutting cylinder group (604); The assembling assembly (1) comprises an adjusting block (101), a linkage block (102), a steel heald head clamping block (103), a U-shaped row wire mounting back plate (104), an adjusting block lifting cylinder (105), a rack block (106), a rack block lifting cylinder (107) and a steel heald row wire plate (108); the upper portion of the adjusting block (101) is provided with the linkage block (102), and the linkage block (102) is fixedly connected with the adjusting block (101), and the adjusting block (101) is in lifting sliding connection with the vertical sliding rod of the overall base (5); the front end of the linkage block (102) is provided with the steel heald head clamping block (103), and the steel heald head clamping block (103) is in rotary connection with the linkage block (102), and one side of the steel heald head clamping block (103) is provided with a rotary tensioning screw rod, and the rotary tensioning screw rod is in threaded locking connection with the rotary shafts between the steel heald head clamping block (103) and the linkage block (102); The upper portion of the linkage block (102) is provided with the through-wire adjusting plate (203); the upper end of the through-wire adjusting plate (203) is provided with the first feeding cylinder (202), and the output end of the first feeding cylinder (202) is in front and rear adjusting connection with the through-wire adjusting plate (203); the rear end of the first feeding cylinder (202) is provided with the through-wire adjusting support (201), and the through-wire adjusting support (201) is fixedly connected with the shell of the first feeding cylinder (202), and the through-wire adjusting support (201) is fixedly connected with the shell of the adjusting block (101); One side of the through-wire adjusting support (201) is provided with the wire clamping cylinder (204), and the shell of the wire clamping cylinder (204) is fixedly connected with the through-wire adjusting plate (203); the upper portion of the wire clamping cylinder (204) is provided with the wire clamping rod (205), and the wire clamping rod (205) is movably arranged through the through-wire adjusting support (201) and the through-wire adjusting plate (203), and the wire clamping rod (205) is in horizontal adjusting driving connection with the output end of the wire clamping cylinder (204).

2. The textile goggle building machine of claim 1, wherein: The front end face of the adjusting block (101) is provided with a U-shaped wire arrangement mounting back plate (104), and the U-shaped wire arrangement mounting back plate (104) is in bolted fixed connection with the adjusting block (101); the upper end of the U-shaped wire arrangement mounting back plate (104) is provided with a rack block (106); the central lower end of the rack block (106) is provided with a rack block lifting air cylinder (107), and the output end of the rack block lifting air cylinder (107) is in lifting transmission connection with the rack block (106), and the shell of the rack block lifting air cylinder (107) is fixedly connected with the adjusting block (101); the front end of the U-shaped wire arrangement mounting back plate (104) is provided with a steel heald wire plate (108), and the steel heald wire plate (108) is in bolted fixed connection with the U-shaped wire arrangement mounting back plate (104); the lower end of the U-shaped wire arrangement mounting back plate (104) is provided with an adjusting block lifting air cylinder (105), and the output end of the adjusting block lifting air cylinder (105) is in lifting transmission connection with the adjusting block (101).

3. The textile goggle building machine of claim 2, wherein: The front of the steel heald wire plate (108) is provided with a steel heald cover plate (602); the upper end of the steel heald cover plate (602) is fixedly provided with a steel heald calibration hard shaft (603); one side of the adjusting block (101) is fixedly provided with a cover plate air cylinder (601), and the output end of the cover plate air cylinder (601) is in pneumatic transmission connection with the steel heald cover plate (602); the steel heald cover plate (602) and the steel heald calibration hard shaft (603) press the steel heald cable in the steel heald wire plate (108) tightly to prevent the deviation problem from occurring.

4. The textile goggle building machine of claim 3, wherein: The upper end of the cover plate air cylinder (601) is provided with a cable cutting air cylinder group (604), and the shell of the cable cutting air cylinder group (604) is fixedly connected with the adjusting block (101).

5. The textile goggle building machine of claim 2, wherein: The through-wire hook assembly (3) comprises a hook tray frame (301), a steel heald hook tray (302), a hook tray air cylinder (303), a piece hook (304), a piece hook air cylinder (305), and a steel heald positioning groove (306); the rear between the steel heald wire plate (108) and the steel heald head clamping block (103) is provided with the steel heald hook tray (302); the rear of the steel heald hook tray (302) is provided with the hook tray frame (301); the rear of the hook tray frame (301) is provided with the hook tray air cylinder (303), and the output end of the hook tray air cylinder (303) is in front and back transmission connection with the shell of the steel heald hook tray (302) through the hook tray frame (301); the inside of the steel heald hook tray (302) is provided with the piece hook (304); the overall rear end of the piece hook (304) is provided with the piece hook air cylinder (305) on both sides, and the output end of the piece hook air cylinder (305) is in front and back transmission connection with the piece hook (304); the lower of the piece hook (304) is provided with the steel heald positioning groove (306), and the steel heald positioning groove (306) is fixedly connected with the shell of the steel heald hook tray (302), and the piece hook (304) and the steel heald positioning groove (306) are in forward transmission to the space between the steel heald head clamping block (103) and the steel heald wire plate (108).

6. The textile goggle building machine of claim 1, wherein: The steel wire bundle line feeding assembly (4) comprises a steel wire bundle adjusting base (401), a steel wire bundle base lifting cylinder (402), a steel wire bundle mounting plate (403), a steel wire bundle adjusting plate (404), and a second feeding cylinder (405).

7. The textile goggle building machine of claim 6, wherein: The lower portion of the adjusting block (101) is provided with the steel wire bundle adjusting base (401). The upper end of the steel wire bundle adjusting base (401) is provided with the steel wire bundle mounting plate (403), and the steel wire bundle mounting plate (403) is fixedly connected with the steel wire bundle adjusting base (401). The front end of the steel wire bundle mounting plate (403) is provided with the steel wire bundle adjusting plate (404). The rear end of the steel wire bundle mounting plate (403) is provided with the second feeding cylinder (405) on both sides, and the output end of the second feeding cylinder (405) is movably connected with the steel wire bundle adjusting plate (404) through the steel wire bundle mounting plate (403).

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