A steel strip winding device with a pressing and anti-deformation function

Abstract

The present invention discloses a steel strip winding device with a pressing and anti-deformation function, which relates to the technical field of metal processing. The winding device includes a winding machine tool, an inlet channel is arranged on the winding machine tool, an adjustment die is arranged in the inlet channel, the adjustment die is slidably connected with the inlet channel, an anti-collision wheel is arranged in the inlet channel, the anti-collision wheel is slidably connected with the inlet channel, a winding frame is arranged on the winding machine tool, a winding roller is arranged on the winding frame, the winding frame is slidably connected with the winding machine tool, a pressing table is slidably connected to the winding frame, a pressing roller is rotatably connected to the pressing table, a high-pressure chip removal box is arranged on the winding machine tool, a waste discharging component is arranged in the high-pressure chip removal box body, a connecting roller group is arranged on the winding machine tool, a power box is arranged on the winding machine tool, a winding motor is arranged in the power box, the output end of the winding motor is connected by a winding chain, and the output end of the winding motor is connected to the connecting roller group through a belt. The present invention has the function of automatically detecting and automatically adjusting the winding force of the steel strip.

Description

Technical Field

[0001] The present invention relates to the technical field of metal processing, and specifically to a steel strip coiling device with a pressing and anti-deformation function. Background Art

[0002] Steel is prone to rusting in air and water. Therefore, steel products need to be made into strip-shaped metals, that is, steel strips. Steel strips are steel materials with large production volume, wide uses and various varieties. And the coiling of steel materials is one of the most common steel processing technologies, which is used to coil cold-rolled sheet coils or hot-rolled sheet coils. Usually, a certain tension will be formed during this process to ensure the flatness and density of the coils. And the coiling of steel materials is an important process for manufacturing cold-rolled strip steel and cold-rolled sheet. The coiling of steel materials can effectively increase the density and hardness of the coils, make them more closely combined, and improve the mechanical properties and surface quality of the sheet coils.

[0003] With the continuous progress of modern industrial technologies, the coiling process of steel materials is also constantly improving. Researchers have developed some efficient and intelligent steel material coiling devices, which can greatly improve production efficiency and production quality. However, during the production process, it is found that the material and specifications of the steel strip will affect the coiling degree and coiling quality. And during the coiling process, a large amount of debris and scale, etc. will affect the steel strip, causing more serious corrosion of the steel strip. And the debris carried by different steel strips is also different. These problems need to be properly solved. Summary of the Invention

[0004] The purpose of the present invention is to provide a steel strip coiling device with a pressing and anti-deformation function to solve the problems raised in the prior art.

[0005] To achieve the above object, the present invention provides the following technical solutions: The winding device includes a winding machine tool, an inlet channel is provided on the winding machine tool, an adjustment die is provided in the inlet channel, the adjustment die is slidably connected to the inlet channel, an anti-collision wheel is provided in the inlet channel, the anti-collision wheel is slidably connected to the inlet channel, a winding frame is provided on the winding machine tool, a winding roller is provided on the winding frame, the winding frame is slidably connected to the winding machine tool, a pressing table is slidably connected to the winding frame, a pressing roller is rotatably connected to the pressing table, a high-pressure chip removal box is provided on the winding machine tool, a waste discharging assembly is provided in the high-pressure chip removal box body, a connecting roller group is provided on the winding machine tool, a power box is provided on the winding machine tool, a winding motor is provided in the power box, the output end of the winding motor is connected by a winding chain, and the output end of the winding motor is connected to the connecting roller group by a belt. During the winding process, first, the steel strip is fed into the inlet channel, and then the power box is started. The winding motor in the power box rotates, driving the connecting roller group and the winding roller to rotate. The steel strip first passes through the adjustment die, and the adjustment die will measure the steel strip and adjust the winding motor and the pressing roller to adapt to various forms and models of steel strips. During the winding process, the anti-collision wheel will prevent the steel strip from colliding, and the connecting roller group will provide power for the movement of the steel strip and embed the steel strip into the card slot of the winding roller to ensure that the steel strip can be normally wound.

[0006] The adjustment die includes an upper inlet shell and a lower inlet shell, the upper inlet shell and the lower inlet shell are slidably connected, a limiting column is provided on the upper inlet shell, the upper inlet shell is sleeved on the limiting column and is slidably connected to the limiting column, an adjustment hydraulic cylinder is provided on the winding machine tool, and the output end of the adjustment hydraulic cylinder is connected to the upper inlet shell. During the measurement, the steel strip will pass through the area between the upper inlet shell and the lower inlet shell. The adjustment hydraulic cylinder can adjust the position of the upper inlet shell to ensure the normal passage of the steel strip. At the same time, by controlling the position of the upper inlet shell, the function of auxiliary detection can also be achieved.

[0007] A sliding measuring plate is slidably connected to the upper feeding shell. A sliding spring is arranged between the sliding measuring plate and the upper feeding shell. A measuring channel is arranged on the lower feeding shell. Distance measuring plates are slidably connected to both sides of the measuring channel respectively. Probing strips are arranged on the distance measuring plates and the sliding measuring plate respectively. Sliding frames are arranged on the upper feeding shell and the lower feeding shell respectively. Detection switches are arranged inside the sliding frames. Each probing strip passes through the corresponding sliding frame and makes sliding contact with the corresponding detection switch. During the measurement process, the steel strip will pass through the measuring channel. Then, the adjustment hydraulic cylinder is started. The adjustment hydraulic cylinder drives the upper feeding shell to move. The sliding measuring plate presses on the steel strip. The sliding measuring plate will drive the probing strip above it to slide and trigger the corresponding detection switch. The detection switch transmits the thickness signal of the steel strip. Under the action of the spring, the distance measuring plate will abut against both sides of the steel strip. To ensure the normal operation of the distance measuring plate, balls can be installed on the measuring distance plate to ensure the normal operation of the steel strip. The probing strip on the distance measuring plate will trigger the corresponding detection switch, thereby transmitting the width signal of the steel strip.

[0008] A signal processor is arranged inside the power box. The signal processor is electrically connected to the detection switch through a wire. The signal processor is electrically connected to the rewinding motor through a wire. The adjustment hydraulic cylinder is electrically connected to the signal processor through a wire. A pressing hydraulic rod is arranged on the pressing table. The output end of the pressing hydraulic rod is connected to the pressing roller. When the detection switches at different positions transmit signals to the signal processor, the signal processor processes different triggering situations. When a thicker steel strip is detected, the pressing hydraulic rod rises, driving the pressing roller to move. The steel strip will be further bent, making it more labor-saving and smooth when the steel strip is rewound. At the same time, the problem of the steel strip rebounding is also avoided.

[0009] The pressing roller includes a guiding frame. Deflecting strips are arranged on the guiding frame. Adjustment tracks are arranged on the pressing table. The deflecting strips are embedded in the adjustment tracks and are slidably connected to the adjustment tracks. Guide rollers and sliding rollers are arranged on the guiding frame. The guide rollers and the sliding rollers are respectively rotatably connected to the guiding frame. During the rewinding process, the guiding frame deflects under the action of the deflecting strips. When encountering a thicker or wider steel strip, the guiding frame moves upward at this time, and the height of the guide roller is also higher than that of the sliding roller, so that the guide roller fully bends the steel strip.

[0010] The connecting roller group includes a flow roller group, a catching roller, and a transfer rack. The transfer rack is arranged on the winding machine tool. The flow roller group is arranged on the winding machine tool. The flow roller group is connected to the output end of the winding motor through a pulley. The catching roller is rotatably connected to the winding machine tool. A guiding groove is arranged on the catching roller, and a lifting roller is rotatably connected in the guiding groove. A transmission belt is arranged on the flow roller group, and the transmission belt is connected to the catching roller. During the winding process, the winding motor drives the flow roller group to rotate through the pulley. When the flow roller group rotates, it can drive the steel strip to move, and the catching roller will continuously lift and transfer the steel strip, while the lifting roller in the guiding groove is responsible for the lifting of the steel strip.

[0011] A sliding cylinder is arranged on the winding machine tool. An adapting frame is arranged at the output end of the sliding cylinder. A plurality of transfer rollers are rotatably connected to the adapting frame. The adapting frame is slidably connected to the winding machine tool. The input end of the sliding cylinder is electrically connected to the detection switch through a wire. During the transfer of the steel strip, the adapting frame is responsible for receiving the transferred steel strip and transferring it into the pressing roller. When the steel strip is thicker or wider, the adapting frame will move away from the winding machine tool. On the contrary, it will move closer to the winding machine tool to ensure that the adapting frame can stably transfer the steel strip, avoid problems such as breakage or accumulation, and reduce the incidence of faults.

[0012] The impurity removal component includes an impurity removal fan. An impurity removal fan blade is arranged at the output end of the impurity removal fan. The impurity removal fan is arranged in the high-pressure chip removal box. The high-pressure chip removal box is slidably connected to the winding machine tool. A lifting ramp is arranged at the bottom of the high-pressure chip removal box, and the lifting ramp is in sliding contact with the adapting frame. During the impurity removal process, the impurity removal fan operates, driving the impurity removal fan blade to rotate, thereby taking away the residual debris on the steel strip, etc., which can reduce the problem of scratching the surface of the steel strip. The cooperation between the lifting and the adapting frame can make the high-pressure chip removal box adapt to steel strips with different bending degrees.

[0013] An impurity removal port is arranged on the high-pressure chip removal box. A wind gathering groove is arranged on the impurity removal port. A guiding grille is arranged on the impurity removal port. An adjusting slide plate is arranged on the guiding grille. The adjusting slide plate is slidably connected to the impurity removal port. A following frame is arranged on the adjusting slide plate. One end of the following frame away from the adjusting slide plate is rotatably connected to the transfer rack. The adjusting slide plate is rotatably connected to the following frame. When the transfer rack moves, it will pull the adjusting slide plate to move. The adjusting slide plate translates on the impurity removal port, making the orientation of the guiding grille closer to the steel strip. When encountering a thinner or narrower steel strip, the direction of the guiding grille will be away from the steel strip, reducing the problem of the steel strip shaking.

[0014] Compared with the prior art, the beneficial effects of the present invention are:

[0015] 1. The present invention adopts a structural component with automatic feeding detection, which can detect the specifications and shapes of steel strips, and timely feedback the detection information. According to the detected information, the winding force and speed are adjusted to avoid the rebound problem caused by inappropriate winding force of the steel coil.

[0016] 2. The present invention adopts a structural component with automatic bending angle adjustment. Through the detection of the steel strip, targeted adjustment of the steel strip feeding is carried out, so that different steel strips can be corrected in time during feeding.

[0017] 3. The present invention adopts a follow-up impurity removal component, which can carry out targeted impurity removal for steel strips of different specifications and shapes, reduce the damage caused by debris to the steel strip, extend the service life of the steel strip, and also reduce the problem of incomplete treatment caused by the debris carried by different steel strips. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a three-dimensional structural schematic diagram of the present invention;

[0019] Figure 2 is a schematic diagram of the internal structure of the winding machine tool of the present invention;

[0020] Figure 3 is Figure 2 a schematic diagram of the structure of the partial enlargement A;

[0021] Figure 4 is a schematic diagram of the internal structure of the adjustment die of the present invention;

[0022] Figure 5 is Figure 4 a schematic diagram of the structure of the partial enlargement B in

[0023] Figure 6 is a schematic diagram of the internal structure of the winding frame of the present invention;

[0024] Figure 7 is Figure 6 a schematic diagram of the structure of the partial enlargement C in

[0025] Figure 8 is a schematic diagram of the internal structure of the high-pressure chip removal box of the present invention.

[0026] In the figure: 1. Rewinding machine tool; 2. Feeding channel; 3. Adjusting die; 301. Upper feeding housing; 302. Lower feeding housing; 303. Limiting column; 304. Adjusting hydraulic cylinder; 305. Sliding measuring plate; 306. Sliding spring; 307. Measuring channel; 308. Distance measuring plate; 309. Probing strip; 310. Sliding frame; 311. Detection switch; 4. Anti-knock wheel; 5. Rewinding rack; 6. Rewinding roller; 7. Pressing table; 701. Pressing hydraulic rod; 8. Pressing roller; 801. Guide frame; 802. Deflection strip; 803. Adjusting track; 804. Guide roller; 805. Sliding roller; 9. High-pressure chip removal box; 901. Impurity discharge port; 902. Air collecting groove; 903. Guide grille; 904. Adjusting slide plate; 905. Following frame; 10. Impurity discharge assembly; 1001. Impurity discharge fan; 1002. Impurity discharge fan blade; 1003. Lifting ramp; 11. Connecting roller group; 1101. Flow roller group; 1102. Capturing roller; 1103. Conveyor frame; 1104. Guide groove; 1105. Lifting roller; 12. Power box; 1201. Signal processor; 13. Rewinding motor; 14. Sliding cylinder; 15. Adaptation frame; 1501. Transfer roller. Detailed implementation mode

[0027] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0028] Embodiment: As Figures 1-8As shown in the figure, the present invention provides a technical solution. The winding device includes a winding machine tool 1, on which there is a feeding channel 2. Inside the feeding channel 2, there is an adjustment die 3 which is slidably connected to the feeding channel 2. Inside the feeding channel 2, there is an anti-collision wheel 4 which is also slidably connected to the feeding channel 2. On the winding machine tool 1, there is a winding frame 5, and on the winding frame 5, there is a winding roller 6. The winding frame 5 is slidably connected to the winding machine tool 1. A pressing table 7 is slidably connected to the winding frame 5, and a pressing roller 8 is rotatably connected to the pressing table 7. On the winding machine tool 1, there is a high-pressure chip removal box 9, and inside the high-pressure chip removal box 9, there is a waste discharging component 10. On the winding machine tool 1, there is a connecting roller group 11, and on the winding machine tool 1, there is a power box 12. Inside the power box 12, there is a winding motor 13. The output end of the winding motor 13 is connected by a winding chain, and the output end of the winding motor 13 is connected to the connecting roller group 11 by a belt. During the winding process, first, the steel strip is fed into the feeding channel 2. Then, the power box 12 is started, and the winding motor 13 inside the power box 12 rotates, driving the connecting roller group 11 and the winding roller 6 to rotate. The steel strip first passes through the adjustment die 3, and the adjustment die 3 will measure the steel strip and adjust the winding motor 13 and the pressing roller 8 to adapt to various forms and models of steel strips. During the winding process, the anti-collision wheel will prevent the steel strip from colliding, and the connecting roller group 11 will provide power for the movement of the steel strip and embed the steel strip into the card slot of the winding roller 6 to ensure that the steel strip can be wound normally.

[0029] The adjustment die 3 includes a feeding upper shell 301 and a feeding lower shell 302 which are slidably connected. On the feeding upper shell 301, there is a limiting column 303, and the feeding upper shell 301 is sleeved on the limiting column 303 and slidably connected to it. On the winding machine tool 1, there is an adjustment hydraulic cylinder 304, and the output end of the adjustment hydraulic cylinder 304 is connected to the feeding upper shell 301. During measurement, the steel strip will pass through the area between the feeding upper shell 301 and the feeding lower shell 302. The adjustment hydraulic cylinder can adjust the position of the feeding upper shell 301 to ensure the normal passage of the steel strip. At the same time, by controlling the position of the feeding upper shell 301, it can also play a role in auxiliary detection.

[0030] A sliding measuring plate 305 is slidably connected to the feeding upper shell 301. A sliding spring 306 is arranged between the sliding measuring plate 305 and the feeding upper shell 301. A measuring channel 307 is arranged on the feeding lower shell 302. Distance measuring plates 308 are slidably connected to both sides of the measuring channel 307 respectively. Probing strips 309 are arranged on the distance measuring plates 308 and the sliding measuring plate 305 respectively. Sliding frames 310 are arranged on the feeding upper shell 301 and the feeding lower shell 302 respectively. Detection switches 311 are arranged inside the sliding frames 310. Each probing strip 309 passes through the corresponding sliding frame 310 and makes sliding contact with the corresponding detection switch 311. During the measurement process, the steel strip will pass through the measuring channel 307. Then, the adjustment hydraulic cylinder 304 is started. The adjustment hydraulic cylinder 304 drives the feeding upper shell 301 to move. The sliding measuring plate 305 presses on the steel strip, and the sliding measuring plate 305 will drive the probing strip 309 above it to slide and trigger the corresponding detection switch 311. The detection switch 311 transmits the thickness signal of the steel strip. Under the action of the spring, the distance measuring plates 308 will abut against both sides of the steel strip. In order to ensure the normal operation of the distance measuring plates 308, balls can be installed on the measuring distance plates to ensure the normal operation of the steel strip. The probing strip 309 on the distance measuring plate 308 will trigger the corresponding detection switch 311, thereby transmitting the width signal of the steel strip.

[0031] A signal processor 1201 is arranged inside the power box 12. The signal processor 1201 is electrically connected to the detection switch 311 through a wire. The signal processor 1201 is electrically connected to the winding motor 13 through a wire. The adjustment hydraulic cylinder 304 is electrically connected to the signal processor 1201 through a wire. A pressing hydraulic rod 701 is arranged on the pressing table 7. The output end of the pressing hydraulic rod 701 is connected to the pressing roller 8. When the detection switches 311 at different positions transmit signals to the signal processor 1201, the signal processor 1201 processes different triggering situations. When a thicker steel strip is detected, the pressing hydraulic rod 701 rises, driving the pressing roller 8 to move. The steel strip will be further bent, so that the steel strip is more labor-saving and smooth during winding, and at the same time, the problem of steel strip rebound is avoided.

[0032] The pressing roller 8 includes a guiding frame 801. A deflecting strip 802 is arranged on the guiding frame 801. An adjustment track 803 is arranged on the pressing table 7. The deflecting strip 802 is embedded in the adjustment track 803 and is slidably connected to the adjustment track 803. A guiding roller 804 and a sliding roller 805 are arranged on the guiding frame 801. The guiding roller 804 and the sliding roller 805 are respectively rotatably connected to the guiding frame 801. During the winding process, under the action of the deflecting strip 802, the guiding frame 801 deflects. When encountering a thicker or wider steel strip, at this time, the guiding frame 801 moves upward, and the height of the guiding roller 804 is also higher than that of the sliding roller 805, so that the guiding roller 804 fully bends the steel strip.

[0033] The connecting roller group 11 includes a flowing roller group 1101, a catching roller 1102, and a conveying frame 1103. The conveying frame 1103 is arranged on the winding machine tool 1, and the flowing roller group 1101 is arranged on the winding machine tool 1. The flowing roller group 1101 is connected to the output end of the winding motor 13 through a pulley. The catching roller 1102 is rotatably connected to the winding machine tool 1. A guiding groove 1104 is arranged on the catching roller 1102, and a lifting roller 1105 is rotatably connected in the guiding groove 1104. A transmission belt is arranged on the flowing roller group 1101, and the transmission belt is connected to the catching roller 1102. During the winding process, the winding motor 13 drives the flowing roller group to rotate through the pulley. When the flowing roller group rotates, it can drive the steel belt to move, and the catching roller 1102 will continuously transfer the steel belt upward, while the lifting roller 1105 in the guiding groove 1104 is responsible for the lifting of the steel belt.

[0034] A sliding cylinder 14 is arranged on the winding machine tool 1. An adaptor frame 15 is arranged on the output end of the sliding cylinder 14. A plurality of transfer rollers 1501 are rotatably connected to the adaptor frame 15. The adaptor frame 15 is slidably connected to the winding machine tool 1. The input end of the sliding cylinder 14 is electrically connected to the detection switch 311 through a wire. During the transfer of the steel belt, the adaptor frame 15 is responsible for receiving the transferred steel belt and transferring it into the pressing roller 8. When the steel belt is thicker or wider, the adaptor frame 15 will move away from the winding machine tool 1. On the contrary, it will move closer to the winding machine tool 1, ensuring that the adaptor frame 15 can stably transfer the steel belt, avoiding problems such as breakage or accumulation, and reducing the incidence of faults.

[0035] The impurity removal component 10 includes an impurity removal fan 1001. An impurity removal fan blade 1002 is arranged on the output end of the impurity removal fan 1001. The impurity removal fan 1001 is arranged in the high-pressure chip removal box 9. The high-pressure chip removal box 9 is slidably connected to the winding machine tool 1. A lifting ramp 1003 is arranged at the bottom of the high-pressure chip removal box 9, and the lifting ramp 1003 is in sliding contact with the adaptor frame 15. During the impurity removal process, the impurity removal fan 1001 operates, driving the impurity removal fan blade 1002 to rotate, thereby taking away the residual debris on the steel belt, etc., which can reduce the problem of scratching the surface of the steel belt. The cooperation with the adaptor frame 15 in terms of lifting can enable the high-pressure chip removal box 9 to adapt to steel belts with different bending degrees.

[0036] A waste discharge port 901 is provided on the high-pressure anti-dandruff box 9. A wind gathering groove 902 is provided on the waste discharge port 901. A guiding grille 903 is provided on the waste discharge port 901. An adjusting slide plate 904 is provided on the guiding grille 903. The adjusting slide plate 904 is slidably connected to the waste discharge port 901. A following frame 905 is provided on the adjusting slide plate 904. One end of the following frame 905 away from the adjusting slide plate 904 is rotatably connected to the conveying frame 1103. The adjusting slide plate 904 is rotatably connected to the following frame 905. When the conveying frame 1103 moves, it will pull the adjusting slide plate 904 to move. The adjusting slide plate 904 translates on the waste discharge port 901, making the orientation of the guiding grille 903 closer to the steel strip. When encountering a thinner or narrower steel strip, the direction of the guiding grille 903 will be away from the steel strip at this time, reducing the problem of the steel strip shaking.

[0037] Working principle: Prepare the steel strip. First, send the steel strip into the feeding channel 2. Then start the power box 12. The winding motor 13 in the power box 12 rotates, driving the connecting roller group 11 and the winding roller 6 to rotate. The steel strip will pass through the measuring channel 307. Then start the adjusting hydraulic cylinder 304. The adjusting hydraulic cylinder 304 drives the feeding upper shell 301 to move. The sliding measuring plate 305 presses on the steel strip. The sliding measuring plate 305 will drive the touch bar 309 above it to slide and trigger the corresponding detection switch 311. The detection switch 311 transmits the thickness signal of the steel strip. The distance measuring plates 308 on both sides measure the width of the steel strip and adjust the winding motor 13 and the pressing roller 8. The rotation speed of the winding motor 13 will be adjusted to adapt to various forms and models of steel strips. During the winding process, the anti-collision wheel 4 will prevent the steel strip from colliding. The connecting roller group 11 will provide power for the movement of the steel strip. At the same time, the winding motor 13 will also adjust the rotation speed of the flow roller group 1101 according to the detection information. The capture roller 1102 will continuously lift and transfer the steel strip. The lifting roller 1105 in the guiding groove 1104 is responsible for the lifting of the steel strip. The adaptation frame 15 is responsible for receiving the transferred steel strip and transferring it into the pressing roller 8. The guiding frame 801 deflects under the action of the deflection bar 802, and then bends under the action of the guiding roller and the sliding roller, and sends the steel strip near the winding roller 6, and then embeds the steel strip into the card slot of the winding roller 6 to ensure that the steel strip can be wound normally. The waste discharge fan 1001 operates, driving the waste discharge fan blade 1002 to rotate, generating negative pressure. The sliding cylinder 14 automatically adjusts the distance of the adaptation frame 15 according to the detection information. When the conveying frame 1103 moves, it will pull the adjusting slide plate 904 to move. The adjusting slide plate 904 translates on the waste discharge port 901, making the orientation of the guiding grille 903 closer to the steel strip.

[0038] For those skilled in the art, it is obvious that the present invention is not limited to the details of the above-described exemplary embodiments, and the present invention can be implemented in other specific forms without departing from the spirit or essential characteristics of the present invention. Therefore, in any regard, the embodiments should be regarded as exemplary and non-limiting. The scope of the present invention is defined by the appended claims rather than the above description. Accordingly, all changes that fall within the meaning and scope of the equivalent elements of the claims are intended to be embraced within the present invention. Any reference signs in the claims should not be construed as limiting the claims involved.

Claims

1. A steel strip winding device with a compression and deformation prevention function, characterized in that: The winding device comprises a winding machine (1), the winding machine (1) being provided with a feed channel (2), an adjustment die (3) being provided in the feed channel (2), the adjustment die (3) being slidably connected to the feed channel (2), an anti-knock wheel (4) being provided in the feed channel (2), the anti-knock wheel (4) being slidably connected to the feed channel (2), a winding frame (5) being provided on the winding machine (1), a winding roller (6) being provided on the winding frame (5), the winding frame (5) being slidably connected to the winding machine (1), and a rolling roller (6) being slidably connected to the winding frame (5). A pressing platform (7) is provided, a pressing roller (8) is rotatably connected to the pressing platform (7), a high-pressure chip removal box (9) is provided on the winding machine (1), a debris removal component (10) is provided in the high-pressure chip removal box (9), a connecting roller group (11) is provided on the winding machine (1), a power box (12) is provided on the winding machine (1), a winding motor (13) is provided in the power box (12), an output end of the winding motor (13) is connected via a winding chain, and an output end of the winding motor (13) is connected to the connecting roller group (11) via a belt; The adjustment die (3) comprises an upper feed shell (301) and a lower feed shell (302), the upper feed shell (301) and the lower feed shell (302) being slidably connected, a limiting column (303) being arranged on the upper feed shell (301), the upper feed shell (301) being sleeved on the limiting column (303) and being slidably connected to the limiting column (303), and an adjustment hydraulic cylinder (304) being arranged on the winding machine (1), the output end of the adjustment hydraulic cylinder (304) being connected to the upper feed shell (301); A sliding measuring plate (305) is slidably connected to the upper feed shell (301), a sliding spring (306) is provided between the sliding measuring plate (305) and the upper feed shell (301), a measuring channel (307) is provided on the lower feed shell (302), distance measuring plates (308) are slidably connected to both sides of the measuring channel (307), a sensing strip (309) is provided on the distance measuring plate (308) and the sliding measuring plate (305), a sliding frame (310) is provided on the upper feed shell (301) and the lower feed shell (302), a detection switch (311) is provided in the sliding frame (310), and each of the sensing strips (309) passes through a corresponding sliding frame (310) and is in sliding contact with a corresponding detection switch (311); A signal processor (1201) is arranged in the power box (12); the signal processor (1201) is electrically connected to the detection switch (311) via a wire; the signal processor (1201) is electrically connected to the winding motor (13) via a wire; the adjustment hydraulic cylinder (304) is electrically connected to the signal processor (1201) via a wire; a clamping hydraulic rod (701) is arranged on the clamping platform (7); an output end of the clamping hydraulic rod (701) is connected to a clamping roller (8).

2. The steel strip winding device with compression and deformation prevention function according to claim 1 is characterized in that: The pressing roller (8) comprises a guide frame (801), a deflection strip (802) being arranged on the guide frame (801), an adjustment track (803) being arranged on the pressing platform (7), the deflection strip (802) being embedded in the adjustment track (803) and being slidably connected to the adjustment track (803), and a guide roller (804) and a sliding roller (805) being arranged on the guide frame (801), and the guide roller (804) and the sliding roller (805) being rotatably connected to the guide frame (801) respectively.

3. The steel strip winding device with a compression and deformation prevention function according to claim 2 is characterized in that: The connecting roller group (11) comprises a flowing roller group (1101), a catching roller (1102), and a conveying frame (1103); the conveying frame (1103) is arranged on a winding machine tool (1); the flowing roller group (1101) is arranged on the winding machine tool (1); the flowing roller group (1101) is connected to an output end of a winding motor (13) via a belt pulley; the catching roller (1102) is rotatably connected to the winding machine tool (1); a guide groove (1104) is arranged on the catching roller (1102); a lifting roller (1105) is rotatably connected in the guide groove (1104); a transmission belt is arranged on the flowing roller group (1101); and the transmission belt is connected to the catching roller (1102).

4. The steel strip winding device with a compression and deformation prevention function according to claim 3 is characterized in that: The winding machine (1) is provided with a sliding cylinder (14), an adaptable frame (15) is provided at the output end of the sliding cylinder (14), a plurality of transfer rollers (1501) are rotatably connected to the adaptable frame (15), the adaptable frame (15) is slidably connected to the winding machine (1), and the input end of the sliding cylinder (14) is electrically connected to a detection switch (311) via a wire.

5. The steel strip winding device with a compression and deformation prevention function according to claim 4 is characterized in that: The debris removal component (10) comprises a debris removal fan (1001), the output end of the debris removal fan (1001) is provided with a debris removal blade (1002), the debris removal fan (1001) is arranged in a high-pressure chip removal box (9), the high-pressure chip removal box (9) is slidably connected to the winding machine (1), and the bottom end of the high-pressure chip removal box (9) is provided with a lifting ramp (1003), and the lifting ramp (1003) is in sliding contact with the adaptability frame (15).

6. The steel strip winding device with a compression and deformation prevention function according to claim 5 is characterized in that: The high-pressure chip removal box (9) is provided with a debris discharge port (901), the debris discharge port (901) is provided with an air gathering slot (902), the debris discharge port (901) is provided with a guide grille (903), the guide grille (903) is provided with an adjustment slide plate (904), the adjustment slide plate (904) is slidably connected to the debris discharge port (901), the adjustment slide plate (904) is provided with a follower frame (905), the follower frame (905) is rotatably connected to the conveying frame (1103) at one end away from the adjustment slide plate (904), and the adjustment slide plate (904) is rotatably connected to the follower frame (905).

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