A steel belt traction mechanism
By designing a steel belt traction mechanism, the steel belt end is mechanically guided by a gantry and clamping rollers, and combined with a cooling system, the safety risks and low efficiency of manual steel belt guidance are solved, achieving efficient and safe steel belt conveying.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- YANGZHOU YALIAN MASCH TECH CO LTD
- Filing Date
- 2025-08-25
- Publication Date
- 2026-08-04
AI Technical Summary
In the hot rolling process of thin steel strip, manually guiding the end of the steel strip to the output roll poses safety risks, low efficiency, and problems caused by high ambient temperatures in summer.
Design a steel belt traction mechanism, including a gantry, a slide plate, clamping rollers and a cooling system, to guide the end of the steel belt mechanically and to maintain the temperature of the mechanism within a safe range using the cooling system.
It improves work efficiency, avoids the safety risks of manual operation, and keeps the mechanism operating at a suitable temperature to prevent overheating and shutdown.
Smart Images

Figure CN224586627U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the technical field of steel strip production equipment, specifically a steel strip traction mechanism. Background Technology
[0002] During the hot rolling process of thin steel strip, the temperature of the strip coming out of the hot rolling mill is usually between 600°C and 650°C. Before winding, the ends of the steel strip need to be manually guided to the output rollers using clamps. After being output from the output rollers, the thin steel strip is wound into coils using a winding machine.
[0003] Manually guiding the steel strip end to the output roller using clamps presents significant technical problems: 1) high temperature, posing safety risks; 2) excessively high working temperature in summer, increasing the risk of heatstroke; and 3) low production efficiency. Utility Model Content
[0004] The purpose of this invention is to provide a steel belt traction mechanism that can effectively solve the problems in the background art.
[0005] The technical solution to achieve the above objective is: a steel belt traction mechanism, characterized in that: it includes a steel belt discharge conveying platform, and longitudinally arranged track platforms are provided on the left and right sides of the steel belt discharge conveying platform. Longitudinal tracks are fixedly provided on the track platforms respectively, and a gantry frame that travels along the longitudinal tracks is provided between the longitudinal tracks. A traveling drive mechanism that drives the gantry frame to travel along the longitudinal tracks is also installed on the track platforms. The front side of the gantry is equipped with a movable beam that moves up and down. The gantry is equipped with a lifting drive mechanism that drives the movable beam to move up and down. The movable beam is equipped with a transverse slide rail, and a slide plate is slidably installed on the transverse slide rail. The movable beam is also equipped with a transverse displacement drive mechanism that drives the slide plate to move left and right along the slide rail. The slide plate is rotatably equipped with a steel strip active clamping roller and a steel strip driven clamping roller that extend vertically downwards from the slide plate. The steel strip active clamping roller and the steel plate driven clamping roller cooperate to clamp the steel strip. A rotary drive mechanism that drives the active clamping roller to rotate is also installed on the moving beam. The steel strip traction mechanism also includes a cooling system for cooling the track platform, the active steel strip clamping roller, the driven steel strip clamping roller, the transverse slide rail, the slide plate, the longitudinal track, the gantry, the traveling drive mechanism, the moving beam, the lifting drive mechanism, the transverse displacement drive mechanism, and the rotary drive mechanism.
[0006] Furthermore, a sliding base is connected to the bottom of the gantry frame. The sliding base is slidably mounted on the track on the corresponding side by a slider. A travel drive mechanism is installed between the sliding base and the track platform. The travel drive mechanism includes a rack mounted on the track platform and parallel to the track. A travel drive motor is installed on the sliding base. The output end of the travel drive motor passes through the sliding base and is connected to a gear that meshes with the rack.
[0007] Furthermore, the gantry frame includes hollow columns vertically mounted on sliding bases on both sides, and a hollow crossbeam is installed between the hollow columns on both sides. The lifting drive mechanism includes worm gear screw jacks respectively installed in the hollow columns on both sides. The drive shafts of the worm gear screw jacks on both sides are connected by a rotating shaft set in the hollow crossbeam. The power input end of one worm gear screw jack is connected to a lifting drive motor. The lifting ends of the worm gear screw jacks on both sides extend upward through the hollow columns and are connected to inverted J-shaped hook side plates. One end of the hook side plates on both sides is connected to the lifting end of the worm gear screw jack, and the other end of the hook side plates is vertically downward on the front side of the gantry frame and is connected to a moving beam.
[0008] Furthermore, the slide plate is provided with two plates, namely a first slide plate and a second slide plate arranged side by side. The front of the first slide plate and the second slide plate are respectively connected to a fixed seat. The fixed seat of the first slide plate is connected to a vertically downward drive shaft. The lower end of the drive shaft extends out of the first slide plate and is connected to a steel belt drive clamping roller. The fixed seat of the second slide plate is connected to a vertically downward driven shaft. The lower end of the driven shaft extends out of the second slide plate and is connected to a steel belt driven clamping roller arranged side by side with the steel belt drive clamping roller.
[0009] Furthermore, the back sides of the first and second slide plates are respectively connected to a lateral displacement drive mechanism. The lateral displacement drive mechanism includes a lead screw that is rotatably mounted on the moving beam via a lead screw bearing. The lead screws of the first and second slide plates corresponding to the lateral displacement drive mechanism are arranged vertically. The ends of the lead screws are respectively connected to a lateral movement drive motor mounted on the moving beam. The back sides of the first and second slide plates are respectively fixed with lead screw nuts that are threadedly connected to the lead screws of the corresponding lateral displacement drive mechanisms.
[0010] Furthermore, the rotary drive mechanism includes a drive shaft rotatably mounted via a bearing housing. The drive shaft is horizontally positioned and one end is connected to a roller rotary drive motor. The steel belt active roller protrudes upward from the corresponding fixed seat and is connected to the drive shaft by a pair of bevel gears that engage in transmission.
[0011] Furthermore, the track platform is a closed hollow structure with a first air outlet on the upper surface. The hollow columns and hollow beams of the gantry are interconnected closed structures. The lifting drive motor is located on the outside of the hollow column. A first cover is sealed and connected to the hollow column outside the lifting drive motor. The inner cavity of the first cover is interconnected with the inner cavity of the gantry. The travel drive motor is located on the rear side of the gantry frame. The outer cover of the travel drive motor is provided with a second cover that is sealed and connected to the sliding base. The second cover is connected to the gantry frame, and a second air outlet is provided on the rear side of the second cover. The moving beam is provided with a hollow cavity, and a third air outlet is provided on the front of the moving beam. A third cover is sealed and connected to the moving beam, which encloses the transverse drive motor and the clamping roller rotation drive motor. The third cover is connected to the inner cavity of the moving beam. The cooling system includes a fan and a pipeline drag chain installed on one side of the steel strip discharge conveyor platform. The pipeline drag chain is equipped with an air pipe. The air inlet of the fan is connected to an air inlet pipe located outdoors. The air outlet of the fan is connected to the air pipe inlet of the air pipe drag chain through a pipe. The air pipe outlet of the air pipe drag chain is connected to the rear end of the track platform, the lower outer wall of one of the hollow columns, and the outer wall of the third cover through pipes.
[0012] Furthermore, the front of the moving beam is provided with water-cooling channels located at the upper and lower parts respectively. The pipeline drag chain is also provided with two water pipes. The inlet of one water pipe is connected to the water inlet pipe, and the inlet of the other water pipe is connected to the water return pipe. The outlets of the two water pipes are respectively connected to one end of a water-cooling channel. The other ends of the upper and lower water-cooling channels are connected by a pipeline.
[0013] Furthermore, the drive shaft, lead screw, and third air outlet are respectively located between the upper and lower water-cooling channels.
[0014] Furthermore, the pipeline cable chain is also equipped with a high-temperature resistant hose, through which cables are threaded. The walking drive mechanism, lifting drive mechanism, lateral displacement drive mechanism, and rotation drive mechanism are respectively connected to the power supply and control system cables through the cables threaded through the high-temperature resistant hose.
[0015] The beneficial effects of this utility model are as follows: This utility model can guide the end of the steel strip to the output roller by means of a traction mechanism, which can replace manual labor, effectively improve work efficiency, and overcome the danger of manually guiding the end of the steel strip to the output roller by means of clamps in the prior art.
[0016] This utility model is equipped with a cooling system to cool the steel belt traction mechanism in all aspects, so that the temperature of the steel belt traction mechanism is maintained within the allowable working range, ensuring the normal operation of the mechanism. Attached Figure Description
[0017] Figure 1 This is a side view of the present invention; Figure 2 This is a side view of the present invention; Figure 3 This is a partial top view of the present invention; Figure 4 for Figure 3 Enlarged view of section A in the middle; Figure 5 This is a perspective view of a portion of the internal structure of this utility model; Figure 6 for Figure 2 Enlarged view of section A in the middle; Figure 7 for Figure 6 Enlarged view of part A in the middle; Figure 8 This is a flow chart of the first air-cooling system of this utility model; Figure 9 for Figure 8 Enlarged view of section A in the middle; Figure 10 This is a flow chart of the second air-cooling system of this utility model; Figure 11 for Figure 10 Enlarged view of section A in the middle; Figure 12 for Figure 10 Enlarged view of section B; Figure 13 for Figure 10 Enlarged view of section C; Figure 14 This is a flow chart of the water cooling system of this utility model.
[0018] Figure 15 for Figure 14 Enlarged view of part A in the middle. Detailed Implementation
[0019] like Figure 1-15 As shown, this utility model discloses a steel strip traction mechanism, including a steel strip discharge conveying platform 1, which is a chain plate conveyor. A pair of output rollers 32 are provided in the middle of the output end of the chain plate conveyor, and a steel strip output channel is formed between the output rollers 32. One of the output rollers is connected to a drive motor as a drive roller (the above structure is the conventional configuration in existing steel strip production equipment).
[0020] The steel strip discharge conveying platform 1 has longitudinally arranged track platforms 2 on its left and right sides. Longitudinal tracks 3 are fixedly installed on the track platforms 2. A gantry frame 4 that travels along the longitudinal tracks 3 is installed between the longitudinal tracks 3. A sliding base 5.1 is connected to the bottom of the gantry frame 4. A traveling drive mechanism 5 that drives the gantry frame 4 to travel along the longitudinal tracks 3 is installed between the track platforms 2 and the sliding base 5.1. The sliding base 5.1 is slidably installed on the track 3 on the corresponding side by a slider 5.2. The traveling drive mechanism 5 includes a rack 5.3 installed on the track platforms 2 and parallel to the tracks 3. A traveling drive motor 5.4 is installed on the sliding base 5.1. The output end of the traveling drive motor 5.4 passes through the sliding base 5.1 and is connected to a gear 5.5 that meshes with the rack 5.3.
[0021] The gantry frame 6 includes hollow columns 6.1 vertically mounted on a sliding base 5.1. A hollow crossbeam 6.2, sealed and interconnected with the hollow columns 6.1 on both sides, is installed between them. A movable beam 9, vertically movable, is installed on the front side of the gantry frame 6. A lifting drive mechanism 8, which drives the movable beam 9 to move vertically, is installed on the gantry frame 6. The lifting drive mechanism 8 includes worm gear screw jacks 8.1 respectively installed in the hollow columns 6.1 on both sides. The drive shafts of the worm gear screw jacks 8.1 are connected via a rotating shaft 8.2 located in the hollow crossbeam. Specifically, the drive shafts of the worm gear screw jacks 8.1 and the rotating shaft 8.2 are connected via universal joints. One of the worm gear screw jacks 8.1 has a power input end connected to a lifting drive motor 8.3 mounted on the outer wall of the gantry frame 6. The lifting ends of the worm gear screw jacks 8.1 on both sides extend upwards through hollow columns 6.1 and are connected to inverted J-shaped hook side plates 8.4. The bent end of the hook side plate 8.4 is connected to the lifting end of the worm gear screw jack 8.1. The other end of the hook side plate 8.4 is vertically downwards on the front side of the gantry frame 6 and is connected to a moving beam 9.
[0022] A transverse slide rail 10 is provided on the front of the moving beam 9. A first slide plate 11 and a second slide plate 12 are slidably mounted on the transverse slide rail 10 and arranged side by side. A transverse displacement drive mechanism 13 is connected to the back of the first slide plate 11 and the second slide plate 12 respectively. The transverse displacement drive mechanism 13 includes a lead screw 13.2 rotatably mounted on the moving beam 9 through a lead screw bearing 13.1. The first slide plate 11 and the second slide plate 12 are arranged vertically to correspond to the lead screw 13.2 of the transverse displacement drive mechanism 13. The ends of the lead screw 13.2 are respectively connected to a transverse drive motor 13.3 mounted on the moving beam 9. A lead screw nut that is threadedly connected to the lead screw 13.2 of the corresponding transverse displacement drive mechanism 13 is fixedly mounted on the back of the first slide plate 11 and the second slide plate 12 respectively.
[0023] Fixed seats 14 are connected to the first slide plate 11 and the second slide plate 12 respectively. A vertically arranged drive shaft 15 is connected to the fixed seat 14 of the first slide plate 11. The lower end of the drive shaft 15 extends out of the first slide plate 11 and is connected to a steel strip drive clamping roller 16. A vertically arranged driven shaft 17 is connected to the fixed seat 14 of the second slide plate 11. The lower end of the driven shaft 17 extends out of the second slide plate 11 and is connected to a steel strip driven clamping roller 18 arranged side by side with the steel strip drive clamping roller 16. Preferably, the fixed seats 14 on the first slide plate 11 and the second slide plate 12 are staggered vertically, so that the distance between the steel strip drive clamping roller 16 and the steel strip driven clamping roller 18 can be adjusted to be smaller.
[0024] The moving beam 9 is also equipped with a rotary drive mechanism 19 for driving the active clamping roller to rotate. The rotary drive mechanism 19 includes a transmission shaft 19.1 rotatably mounted on the moving beam 9 via a bearing seat. The transmission shaft 19.1 is horizontally arranged and one end is connected to a clamping roller rotary drive motor 19.2 mounted on the moving beam 9. The active shaft 15 protrudes upward to correspond to the fixed seat 14, and a pair of bevel gears 19.3 are connected between the protruding end and the transmission shaft 19.1 for transmission engagement.
[0025] The track platform 2 is a closed hollow structure, and the upper end face is provided with multiple first air outlets 2.1 arranged longitudinally. The hollow columns 6.1 and hollow beams 6.2 of the gantry frame 6 are interconnected closed structures. The lifting drive motor 8.3 is located on the outside of the hollow column 6.1. The lifting drive motor 8.3 is provided with a first cover 20 sealed and connected to the hollow column 6.1. The inner cavity of the first cover 20 is interconnected with the inner cavity of the gantry frame 6.
[0026] The travel drive motor 5.4 is located on the rear side of the gantry frame 6. The travel drive motor 5.4 is covered by a second cover 21 that is sealed between the sliding base 5.1 and the gantry frame 6. The second cover 21 is connected to the gantry frame 6, and a second air outlet 21.1 is provided on the rear side of the second cover 21. The moving beam 9 is provided with a hollow cavity. The front of the moving beam 9 is provided with a third air outlet 9.1. A third cover 22 is sealed and connected to the moving beam 9, which encloses the transverse drive motor 13.3 and the clamping roller rotation drive motor 19.2. The third cover 22 is connected to the inner cavity of the moving beam 9.
[0027] The moving beam 9 has two water-cooling channels 23 located at the top and bottom respectively on its front side, and the drive shaft 19.1 and the lead screw 13.2 are respectively located between the two water-cooling channels 23 at the top and bottom.
[0028] The steel belt traction mechanism also includes a cooling system, which includes a pipeline drag chain 24 and a fan 25 installed on one side of the steel belt discharge conveyor platform 1. The pipeline drag chain 24 is equipped with air pipes and water pipes. The air inlet of the fan 25 is connected to an air inlet pipe 26 located outdoors. The air outlet of the fan 25 is connected to the air inlet in the pipeline drag chain 24 through a pipe. The air outlet of the air pipeline drag chain 24 is connected to the rear end of the track platform 2, the lower outer wall of one side of the hollow column 6.1, and the outer wall of the third cover 22 through pipes.
[0029] The pipeline drag chain 24 is equipped with two water pipes 27. The fixed end of one water pipe 27 is connected to the inlet pipe 28, and the fixed end of the other water pipe 27 is connected to the return pipe 29. The ends of the two water pipes 27 away from the fixed ends are respectively connected to one end of a water cooling channel 23. The other ends of the two water cooling channels 23 are connected by a connecting pipe 33.
[0030] The pipeline drag chain 24 is also equipped with a high-temperature resistant hose 30, through which a cable 31 is threaded. The walking drive mechanism 5, the lifting drive mechanism 8, the lateral displacement drive mechanism 13, and the rotation drive mechanism 19 are respectively connected to the power supply and control system cables through the cable 31 threaded through the high-temperature resistant hose 30.
[0031] The working process of this utility model: 1) In the initial state, the lateral displacement drive mechanism 13 on the back of the first slide plate 11 and the second slide plate 12 drives the corresponding lead screw 13.2 to rotate, so that the distance between the active clamping roller 16 and the driven clamping roller 18 of the steel strip is greater than the thickness of the steel strip.
[0032] 2) The lifting drive mechanism 8, in conjunction with the lateral displacement drive mechanism 13, moves to the front side of the steel strip and drives the active steel strip clamping roller 16 and the driven steel strip clamping roller 18 to be positioned downwards on both sides of the steel strip thickness direction. Then, the lateral displacement drive mechanism 13 on the back of the first slide plate 11 and the second slide plate 12 drives the active steel strip clamping roller 16 and the driven steel strip clamping roller 18 to clamp the steel strip (at this time, the clamping position may be close to the end of the front end of the steel strip or far away from the end of the front end of the steel strip).
[0033] 3) The roller rotation drive motor 19.2 drives the active steel strip roller 16 to rotate, which in turn drives the steel strip to be conveyed backward. After the steel strip extends forward 30-50cm relative to the active steel strip roller 16 and the driven steel strip roller 18, the roller rotation drive motor 19.2 stops rotating.
[0034] 4) The steel strip discharge conveyor platform 1 drives the steel strip forward, and at the same time the walking drive motor 5.4 drives the gear 5.5 and rack 5.3 to mesh and drive the steel strip between the active clamping roller 16 and the driven clamping roller 18 to move forward synchronously.
[0035] 5) When the distance between the steel belt and the output roller 32 reaches 30-50cm, the steel belt discharge conveyor platform 1 and the walking drive mechanism 5 stop working.
[0036] 6) The clamping roller rotation drive motor 19.2 drives the steel strip active clamping roller 16 to rotate, driving the steel strip forward and outputting it through the gap between the output rollers 32.
[0037] During operation, the fan 25 supplies outdoor cold air to the track platform 2, gantry 6, and third housing 22, while cooling water is supplied to the water-cooling channel 23 via the water inlet pipe 28. The cold air in the track platform 2 cools the track platform 2 itself and the longitudinal track 3, sliding base 5.1, rack 5.3, gear 5.5, etc., above it. The cold air in the gantry 6 cools the lifting drive motor 8.3 in the first housing, the worm gear screw jack 8.1 and rotating shaft 8.2 in the gantry 6, and the travel drive motor 5.4 in the second housing 21. The third housing 22... The cold air cools the transverse drive motor 13.3 and the clamping roller rotation drive motor 19.2, and is simultaneously input into the moving beam 9 and output from the third air outlet 9.1 to cool and reduce the temperature of various components mounted on the moving beam 9, such as the drive shaft 19.1, bevel gear 19.3, first slide plate 11, second slide plate 12, transverse displacement drive mechanism 13 (excluding transverse drive motor 13.3), drive shaft 15, driven shaft 17, steel belt drive clamping roller 16, and steel belt driven clamping roller 18. The water cooling channel 23 can further improve the cooling effect and reduce the temperature of the cold air output from the third air outlet 9.1.
[0038] During a month of continuous trial operation, the temperature of the traction mechanism was maintained within the allowable operating temperature range, and no overheating shutdown occurred.
Claims
1. A steel belt traction mechanism, characterized in that: It includes a steel strip discharge conveyor platform, with longitudinally arranged track platforms on the left and right sides of the steel strip discharge conveyor platform. Longitudinal tracks are fixedly installed on the track platforms, and a gantry frame that travels along the longitudinal tracks is installed between the longitudinal tracks. A travel drive mechanism that drives the gantry frame to travel along the longitudinal tracks is also installed on the track platforms. The front side of the gantry is equipped with a movable beam that moves up and down. The gantry is equipped with a lifting drive mechanism that drives the movable beam to move up and down. The movable beam is equipped with a transverse slide rail, and a slide plate is slidably installed on the transverse slide rail. The movable beam is also equipped with a transverse displacement drive mechanism that drives the slide plate to move left and right along the slide rail. The slide plate is rotatably equipped with a steel strip active clamping roller and a steel strip driven clamping roller that extend vertically downwards from the slide plate. The steel strip active clamping roller and the steel plate driven clamping roller cooperate to clamp the steel strip. A rotary drive mechanism that drives the active clamping roller to rotate is also installed on the moving beam. The steel strip traction mechanism also includes a cooling system for cooling the track platform, the active steel strip clamping roller, the driven steel strip clamping roller, the transverse slide rail, the slide plate, the longitudinal track, the gantry, the traveling drive mechanism, the moving beam, the lifting drive mechanism, the transverse displacement drive mechanism, and the rotary drive mechanism.
2. The steel belt traction mechanism according to claim 1, characterized in that: The bottom of the gantry is connected to a sliding base, which is slidably mounted on the corresponding side of the track by a slider. The walking drive mechanism is installed between the sliding base and the track platform. The walking drive mechanism includes a rack mounted on the track platform and parallel to the track. The sliding base is equipped with a walking drive motor, and the output end of the walking drive motor passes through the sliding base and is connected to a gear that meshes with the rack.
3. The steel belt traction mechanism according to claim 2, characterized in that: The gantry frame includes hollow columns vertically mounted on sliding bases on both sides, and a hollow crossbeam is installed between the two hollow columns. The lifting drive mechanism includes worm gear screw jacks installed in the hollow columns on both sides. The drive shafts of the two worm gear screw jacks are connected by a rotating shaft set in the hollow crossbeam. The power input end of one worm gear screw jack is connected to a lifting drive motor. The lifting ends of the two worm gear screw jacks extend upward through the hollow columns and are connected to inverted J-shaped hook side plates. One end of the hook side plates is connected to the lifting end of the worm gear screw jack, and the other end of the hook side plates is vertically downward on the front side of the gantry frame and connected to a moving beam.
4. A steel belt traction mechanism according to claim 3, characterized in that: The slide has two plates, namely the first slide and the second slide, which are arranged side by side. The front of the first slide and the second slide are respectively connected to the fixed base. The fixed base of the first slide is connected to the vertically downward drive shaft. The lower end of the drive shaft extends out of the first slide and is connected to the steel belt drive clamping roller. The fixed base of the second slide is connected to the vertically downward driven shaft. The lower end of the driven shaft extends out of the second slide and is connected to the steel belt driven clamping roller, which is arranged side by side with the steel belt drive clamping roller.
5. A steel belt traction mechanism according to claim 4, characterized in that: The back of the first and second slide plates are respectively connected to a lateral displacement drive mechanism. The lateral displacement drive mechanism includes a lead screw that is rotatably mounted on the moving beam via a lead screw bearing. The lead screws of the first and second slide plates are arranged vertically to each other. The ends of the lead screws are respectively connected to a lateral movement drive motor mounted on the moving beam. The back of the first and second slide plates are respectively fixed with a lead screw nut that is threadedly connected to the lead screw of the corresponding lateral displacement drive mechanism.
6. A steel belt traction mechanism according to claim 5, characterized in that: The rotary drive mechanism includes a drive shaft that is rotatably mounted via a bearing housing. The drive shaft is horizontally positioned and one end is connected to a roller rotary drive motor. The steel belt active roller protrudes upward from the corresponding fixed seat and is connected to the drive shaft by a pair of bevel gears that are in transmission engagement.
7. A steel belt traction mechanism according to claim 6, characterized in that: The track platform is a closed hollow structure, and the upper end face is provided with the first air outlet evenly distributed along the longitudinal direction. The hollow columns and hollow beams of the gantry are interconnected closed structures. The lifting drive motor is located on the outside of the hollow column. The lifting drive motor is provided with a first cover that is sealed and connected to the hollow column. The inner cavity of the first cover is interconnected with the inner cavity of the gantry. The travel drive motor is located on the rear side of the gantry frame. The outer cover of the travel drive motor is provided with a second cover that is sealed between the sliding base and the gantry frame. The second cover is connected to the gantry frame, and a rearward-facing second air outlet is provided on the rear side of the second cover. The moving beam is provided with a hollow cavity, and a third air outlet is provided on the front of the moving beam. A third cover is sealed and connected to the moving beam, which encloses the transverse drive motor and the clamping roller rotation drive motor. The third cover is connected to the inner cavity of the moving beam. The cooling system includes a fan and a pipeline drag chain installed on one side of the steel strip discharge conveyor platform. The pipeline drag chain is equipped with an air pipe. The air inlet of the fan is connected to an air inlet pipe located outdoors. The air outlet of the fan is connected to the air pipe inlet of the air pipe drag chain through a pipe. The air pipe outlet of the air pipe drag chain is connected to the rear end of the track platform, the lower outer wall of one of the hollow columns, and the outer wall of the third cover through pipes.
8. A steel belt traction mechanism according to claim 7, characterized in that: The moving beam has water-cooling channels located at the top and bottom. The pipeline drag chain also has two water pipes. The inlet of one water pipe is connected to the water inlet pipe, and the inlet of the other water pipe is connected to the water return pipe. The outlets of the two water pipes are respectively connected to one end of a water-cooling channel. The other ends of the upper and lower water-cooling channels are connected by a pipeline.
9. A steel belt traction mechanism according to claim 7, characterized in that: The drive shaft, lead screw, and third air outlet are respectively located between the upper and lower water-cooling channels.
10. A steel belt traction mechanism according to claim 7, characterized in that: The pipeline cable chain is also equipped with a high-temperature resistant hose, through which cables are threaded. The walking drive mechanism, lifting drive mechanism, lateral displacement drive mechanism, and rotation drive mechanism are connected to the power supply and control system cables through the cables threaded through the high-temperature resistant hose.