Liner winding device and liner production line

Abstract

The utility model provides a kind of inner liner coiling device and inner liner production line, wherein, inner liner coiling device, including the coiling assembly and power control assembly of mobile setting, coiling assembly has multiple rotating rollers for winding storage rubber material, and the end of rotating roller has connecting structure;Power control assembly is located at the end of rotating roller, power control assembly is detachably connected with connecting structure, and power control assembly has working position and avoiding position, when power control assembly is located at working position, power control assembly is located on the moving path of coiling assembly and is connected with connecting structure, and the rotation of driving and / or braking rotating roller, when power control assembly is located at avoiding position, power control assembly is separated from connecting structure, and avoiding the moving path of coiling assembly, coiling assembly can move along the axial movement of rotating roller.The utility model solves the problem of higher cost in prior art that inner liner coiling device is connected to automatic production line.

Description

Technical Field

[0001] This utility model relates to the field of inner lining processing and manufacturing, and more specifically, to an inner lining winding device and an inner lining production line. Background Technology

[0002] Currently, with the increase in automation, both ends of the inner liner winding device are usually connected to the logistics system, meaning the inner liner winding device is transported via logistics. The transfer of the inner liner winding device is usually achieved by turning around and then driving again using a turntable. However, this method increases the cost of two turntables at two workstations. Moreover, the turntables are below ground level, requiring ground foundations, resulting in high infrastructure costs. Furthermore, the complex structure leads to poor stability and increases the probability of failure. Utility Model Content

[0003] The main objective of this invention is to provide an inner lining layer winding device and an inner lining layer production line to solve the problem of high cost of integrating the inner lining layer winding device into an automated production line in the prior art.

[0004] To achieve the above objectives, according to one aspect of the present invention, an inner liner winding device is provided, comprising a movably disposed winding assembly and a power control assembly. The winding assembly has a plurality of rotating rollers for winding and storing adhesive material, and the ends of the rotating rollers have connecting structures. The power control assembly is located at the ends of the rotating rollers and is detachably connected to the connecting structures. The power control assembly has a working position and a clearance position. When the power control assembly is in the working position, it is located on the moving path of the winding assembly and connected to the connecting structures, and drives and / or brakes the rotation of the rotating rollers. When the power control assembly is in the clearance position, it is separated from the connecting structures and clears the moving path of the winding assembly. The winding assembly is capable of moving along the axial direction of the rotating rollers.

[0005] Furthermore, the multiple rotating rollers include a first rotating roller and a second rotating roller. The first rotating roller conveys the rubber material to the second rotating roller, and the second rotating roller winds up the rubber material. There are multiple power control components, including a braking component and a driving component. The braking component is connected to the connection structure on the first rotating roller and can be docked and detached, and is used to brake the rotation of the first rotating roller. The driving component is connected to the connection structure on the second rotating roller and can be docked and detached, and is used to drive the rotation of the second rotating roller. When the power control components are in the avoidance position, along the moving path of the winding component, the braking component and the driving component are respectively located on both sides of the winding component, and an avoidance channel for the winding component to pass through is formed between the braking component and the driving component.

[0006] Furthermore, the braking assembly and / or drive assembly includes a base, a swing arm, and a swing arm drive member. The swing arm is rotatably mounted on the base and is capable of rotating onto the movement path of the winding assembly or avoiding the movement of the winding assembly. The end of the swing arm has a connector for connecting and separating from the connecting structure. The swing arm drive member is drivenly connected to the swing arm and drives the swing arm to swing.

[0007] Furthermore, the drive assembly and / or braking assembly also includes a lateral drive member, which is driven to connect to the swing arm and drives the swing arm to move along the movement path of the take-up assembly, so that the connector moves closer to the mating or separates away from the connecting structure.

[0008] Furthermore, the drive assembly also includes a rotary drive component, which is driven to connect with the drive assembly connector. When the power control assembly is in the working position, the rotary drive component drives the drive assembly connector to rotate the second rotary roller and wind up the rubber material.

[0009] Furthermore, the braking assembly also includes a braking element, which is connected to the connecting element of the braking assembly. When the power control assembly is in the working position, the braking element controls the rotation of the first rotating roller through the connecting element of the braking assembly.

[0010] Furthermore, the plane in which the swing arm rotates is set at an angle to the axis of the rotating roller.

[0011] Furthermore, both the braking assembly and the drive assembly have swing arms. When the power control assembly switches between the avoidance position and the working position, the swing arms of the braking assembly and the drive assembly move toward each other or away from each other.

[0012] Furthermore, the bottom of the winding assembly has wheels for ground movement.

[0013] According to another aspect of the present invention, an inner liner production line is provided, including a film conveying device for conveying film and the aforementioned inner liner winding device. The film conveying device conveys film to the second rotating roller of the inner liner winding device and combines it with the adhesive material conveyed by the first rotating roller of the inner liner winding device to the second rotating roller. When the power control component of the inner liner winding device is switched to the avoidance position, the winding component can move along the axial direction of the rotating roller.

[0014] By applying the technical solution of this utility model, the power control component and the winding component are detachably connected, and the power control component is movable relative to the winding component, allowing the power control component to switch between a working position and a clearance position. When the connection structure of the power control component and the winding component is engaged, the power control component can drive or brake the rotating roller on the winding component, enabling the winding component to complete the winding of the rubber material or other tasks. When the winding component completes its work, the connection structure of the power control component and the winding component disengages, and the power control component switches from the working position to the clearance position, allowing the power control component to clear the position of the rotating roller end. This allows the material storage component to move out of the workstation along the axial direction of the rotating roller and be conveyed to the next process. This embodiment achieves the integration of the inner lining winding device into an automated production line in this way, without manual intervention or the need for a turntable, thus saving labor, infrastructure, and turntable costs. Moreover, the inner lining winding device of this embodiment has a simple structure, stable and reliable operation, reduces the probability of malfunctions, and improves production efficiency. Attached Figure Description

[0015] The accompanying drawings, which form part of this application, are used to provide a further understanding of the present invention. The illustrative embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute an undue limitation of the present invention. In the drawings: Figure 1 A schematic diagram of the inner lining layer winding device of this utility model is shown; Figure 2 A schematic diagram of the braking assembly of this utility model is shown; Figure 3 A schematic diagram of the drive component of this utility model is shown.

[0016] The above figures include the following reference numerals: 10. Winding assembly; 11. First rotating roller; 111. Connecting structure; 12. Second rotating roller; 13. Traveling wheel; 20. Power control assembly; 21. Braking assembly; 211. Connecting member; 212. Base; 213. Swing arm; 214. Swing arm drive; 215. Lateral drive; 216. Braking member; 22. Drive assembly; 221. Rotation drive. Detailed Implementation

[0017] It should be noted that, unless otherwise specified, the embodiments and features described in this application can be combined with each other. The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0018] It should be noted that, unless otherwise specified, all technical and scientific terms used in this application have the same meaning as commonly understood by one of ordinary skill in the art to which this application pertains.

[0019] In this utility model, unless otherwise stated, directional terms such as "upper," "lower," "top," and "bottom" are generally used in relation to the direction shown in the accompanying drawings, or in relation to the vertical, perpendicular, or gravitational direction of the component itself; similarly, for ease of understanding and description, "inner" and "outer" refer to the inner and outer contours of each component itself, but the above directional terms are not used to limit this utility model.

[0020] To address the high cost of integrating existing liner winding devices into automated production lines, this invention provides an liner winding device and an liner production line.

[0021] like Figures 1 to 3 The illustrated inner liner winding device includes a movably configured winding assembly 10 and a power control assembly 20. The winding assembly 10 has multiple rotating rollers for winding and storing rubber material, and the ends of the rotating rollers have connecting structures 111. The power control assembly 20 is located at the ends of the rotating rollers and is detachably connected to the connecting structures 111. The power control assembly 20 has a working position and a clearance position. When the power control assembly 20 is in the working position, it is located on the moving path of the winding assembly 10 and connected to the connecting structures 111, and drives and / or brakes the rotation of the rotating rollers. When the power control assembly 20 is in the clearance position, it is separated from the connecting structures 111 and clears the moving path of the winding assembly 10. The winding assembly 10 can move along the axial direction of the rotating rollers.

[0022] In this embodiment, the power control component 20 and the take-up component 10 are detachably connected, and the power control component 20 is movable relative to the take-up component 10. This allows the power control component 20 to switch between a working position and a avoidance position. When the connection structure 111 between the power control component 20 and the take-up component 10 is engaged, the power control component 20 can drive or brake the rotating roller on the take-up component 10, enabling the take-up component 10 to complete the take-up of the rubber material or other tasks. When the take-up component 10 has completed its work, the power control component 20 and the take-up component... The connection structure 111 of 10 is disconnected, and the power control component 20 is switched from the working position to the avoidance position, so that the power control component 20 can move away from the position of the rotating roller end, thereby enabling the storage component to move out of the workstation along the axial direction of the rotating roller and be transported to the next process. In this embodiment, the inner lining layer winding device is connected to the automated production line in this way without manual intervention and without the need to set up a turntable, thereby saving labor, infrastructure and turntable costs. Moreover, the inner lining layer winding device of this embodiment has a simple structure, stable and reliable operation, can reduce the probability of failure and improve production efficiency.

[0023] In this embodiment, the multiple rotating rollers include a first rotating roller 11 and a second rotating roller 12. The first rotating roller 11 conveys the adhesive to the second rotating roller 12, and the second rotating roller 12 winds up the adhesive. There are multiple power control components 20, and the multiple power control components 20 include a braking component 21 and a driving component 22. The braking component 21 can be docked and detached from the connecting structure 111 on the first rotating roller 11, and is used to brake the rotation of the first rotating roller 11. The driving component 22 can be docked and detached from the connecting structure 111 on the second rotating roller 12, and is used to drive the rotation of the second rotating roller 12. When the power control components 20 are in the avoidance position, along the moving path of the winding component 10, the braking component 21 and the driving component 22 are respectively located on both sides of the winding component 10, and an avoidance channel for the winding component 10 to pass through is formed between the braking component 21 and the driving component 22. In this way, the braking assembly 21 and the drive assembly 22 are respectively arranged so that they can be located close to each other on the corresponding rotating roller side. This simplifies the connection and cooperation between the braking assembly 21, the drive assembly 22 and the rotating roller, and optimizes the control of rubber tension and the winding efficiency during the winding process of the winding assembly 10. Specifically, in this embodiment, the axes of the first rotating roller 11 and the second rotating roller 12 are arranged parallel to each other. The first rotating roller 11 and the second rotating roller 12 can be arranged in a direction perpendicular to the axial direction of the rotating rollers. This allows the braking assembly 21 to be located closer to the first rotating roller 11, facilitating the docking and disengagement of the braking assembly 21 with the first rotating roller 11. The drive assembly 22 can be located closer to the second rotating roller 12, facilitating the docking and disengagement of the drive assembly 22 with the second rotating roller 12. This reduces the difficulty of docking and disengaging the power control assembly 20 with the winding assembly 10 and improves the efficiency of the power control assembly 20 in switching between the working position and the avoidance position. When the first rotating roller 11 conveys the rubber material to the second rotating roller 12, the braking component 21 engages with the connecting structure 111 at the end of the first rotating roller 11, and the driving component 22 engages with the connecting structure 111 at the end of the second rotating roller 12. This allows the driving component 22 to drive the second rotating roller 12 to rotate and wind up the rubber material. The braking component 21 controls the rotation speed of the first rotating roller 11, ensuring that the rubber material maintains a certain tension during conveying, facilitating its winding into the second rotating roller 12. In this way, the braking component 21 and the driving component 22 work together to ensure the smoothness and quality of the rubber material winding process. After the rubber material is wound up, both the braking component 21 and the driving component 22 separate from the connecting structure 111 and switch to a clearance position, thus freeing up the position of the connecting structure 111. This allows the winding component 10 to move along the axial direction of the rotating roller, thereby improving the automation level of the inner lining winding, reducing manual intervention, and lowering production costs.This embodiment takes the conveying of the rubber material from the first rotating roller 11 to the second rotating roller 12 as an example. Depending on the different winding processes of different rubber materials, a third rotating roller can also be set. The multiple power control components 20 can also include other components with braking, driving and other functions, so as to realize the docking and separation of the rotating roller and the power control components 20, and the power control components 20 can switch between the working position and the avoidance position.

[0024] In this embodiment, the braking assembly 21 and / or the driving assembly 22 include a base 212, a swing arm 213, and a swing arm drive member 214. The swing arm 213 is rotatably mounted on the base 212 and can rotate onto the moving path of the winding assembly 10 or avoid the movement of the winding assembly 10. The end of the swing arm 213 has a connector 211 for connecting and separating from the connecting structure 111. The swing arm drive member 214 is drivenly connected to the swing arm 213 and drives the swing arm 213 to swing, thereby realizing the flexible docking and separation of the power control assembly 20 and the winding assembly 10. Specifically, the braking assembly 21 and the driving assembly 22 in this embodiment have similar structures, the only difference being that the braking assembly 21 includes a braking element 216, while the driving assembly 22 includes a rotation driving element 221. This allows the braking assembly 21 to brake the rotating roller, and the driving assembly 22 to rotate the rotating roller. Therefore, both the braking assembly 21 and the driving assembly 22 in this embodiment include a base 212, a swing arm 213, and a swing arm driving element 214. The swing arm 213 can be rod-shaped, with one end hinged to a support and the other end provided with a connecting element 211, which connects to the connecting structure 111. In this embodiment, the base 212 is positioned to avoid the area extended by the winding assembly 10 along the axial direction of the rotating roller. That is, when the winding assembly 10 moves along the axial direction of the rotating roller, the base 212 should not interfere with the winding assembly 10. The swing arm drive 214 can be mounted on the base 212. When the winding assembly 10 is in place and the power control assembly 20 needs to engage with the connecting structure 111 at the end of the rotating roller, the swing arm drive 214 of the braking assembly 21 and the swing arm drive 214 of the driving assembly 22 can simultaneously drive the swing arm 213 to move towards the connecting structure 111. That is, the swing arm 213 of the braking assembly 21 moves towards the connecting structure 111 at the end of the first rotating roller 11, and the swing arm 213 of the driving assembly 22 moves towards the connecting structure 111 at the end of the second rotating roller 12. In other words, the swing arm 213 of the driving assembly 22 and the swing arm 213 of the braking assembly 21 move towards each other, so that the connector 211 can move to the axis of the rotating roller to facilitate the engagement of the connector 211 and the connecting structure 111. When the winding assembly 10 finishes its work and leaves the workstation, the sway drive drives the sway arm 213 to move away from each other, thereby causing the connecting piece 211 to avoid the axial position of the rotating roller. This creates a clearance channel between the drive assembly 22 and the braking assembly 21 for the winding assembly 10 to pass through, ensuring unobstructed movement of the winding assembly 10 when entering and leaving the workstation, and providing a stable interface for the winding operation of the winding assembly 10. Optionally, the sway drive can be a cylinder, hydraulic cylinder, etc. In this embodiment, a cylinder is used as the sway drive.

[0025] Preferably, the braking assembly 21 and / or the drive assembly 22 further include a proximity switch, which is disposed at the connector 211 or the connecting structure 111 to detect the swing position of the swing arm 213.

[0026] like Figure 1 As shown, in this embodiment, the connecting structure 111 of the first rotating roller 11 and the connecting structure 111 of the second rotating roller 12 are located at the same end of the rotating rollers. Therefore, considering the ease of cooperation between the connector 211 and the connecting structure 111, the drive assembly 22 and the brake assembly 21 are arranged opposite to each other. Optionally, the connecting structure 111 of the first rotating roller 11 and the connecting structure 111 of the second rotating roller 12 can also be located at different ends. Correspondingly, the brake assembly 21 and the drive assembly 22 can be arranged to cooperate with the connecting structure 111 nearby. According to actual needs, along the moving path of the winding assembly 10, when the drive assembly 22 and the brake assembly 21 need to be located on the same side of the winding assembly 10, they can also be adjusted accordingly. Of course, the arrangement of the first rotating roller 11 and the second rotating roller 12 can also be arranged vertically along the height direction, and the cooperation between the drive assembly 22 and the brake assembly 21 and the connecting structure 111 at the end of the rotating roller can be adjusted accordingly.

[0027] In this embodiment, the drive assembly 22 and / or braking assembly 21 further includes a lateral drive member 215. The lateral drive member 215 is drivenly connected to the swing arm 213 and drives the swing arm 213 to move along the moving path of the winding assembly 10, so that the connector 211 moves closer to the docking or separates away from the connecting structure 111, thereby ensuring reliable docking and separation of the connector 211 and the connecting structure 111. Specifically, both the drive assembly 22 and the braking assembly 21 in this embodiment include a lateral drive member 215. Along the axial direction of the rotating roller, the lateral drive 215 can be positioned on the side of the base 212 away from the winding assembly 10, and the movement direction of the lateral drive 215 is along the axial direction of the rotating roller. In this way, when the connecting piece 211 moves with the swing arm 213 to align with the connecting structure 111 along the axial direction of the rotating roller, driving the lateral drive 215 to move the connecting piece 211 closer to the connecting structure 111 can ensure a reliable connection between the connecting piece 211 and the connecting structure 111. Driving the lateral drive 215 to move the connecting piece 211 away from the connecting structure 111 can ensure the separation of the connecting piece 211 and the connecting structure 111, thereby making the docking and separation of the power control assembly 20 and the winding assembly 10 more stable and reliable. This method, which first uses the swing arm 213 to swing the connector 211 to axial alignment with the connecting structure 111, and then uses the lateral drive 215 to move the connector 211 axially closer to the connecting structure 111 to achieve docking, ensures reliable docking and avoids docking failure due to positional deviation. Optionally, the connection between the connector 211 and the connecting structure 111 can be a gear meshing structure or a shift fork and shift wheel structure, which can satisfy both docking and separation of the connector 211 and the connecting structure 111. Preferably, a guide rail extending axially along the rotating roller is provided, and a slider is provided at the bottom of the swing arm 213, so that the slider can move along the guide rail to ensure that when the connector 211 moves laterally, it can move axially along the rotating roller, thus ensuring effective docking between the connector 211 and the connecting structure 111. Depending on actual needs, a detection element can be installed at the transverse drive component 215 to detect the operating state of the transverse drive component 215, ensuring that the lateral movement of the transverse drive component 215 can drive the connecting component 211 to move closer to and away from the connecting structure 111 along the axial direction of the rotating roller, thereby ensuring the successful docking and separation of the connecting component 211 and the connecting structure 111. Optionally, the detection element can be a magnetic switch, and the transverse drive component 215 can be a cylinder, hydraulic cylinder, etc. In this embodiment, a cylinder is used.

[0028] like Figure 3As shown, the drive assembly 22 in this embodiment also includes a rotation drive member 221. The rotation drive member 221 is drivenly connected to the connector 211 of the drive assembly 22. When the power control assembly 20 is in the working position, the rotation drive member 221 drives the connector 211 of the drive assembly 22 to rotate the second rotating roller 12 and wind up the rubber material. Specifically, the rotation drive member 221 in this embodiment is disposed on the base 212 and is located at the end of the swing arm 213 away from the connecting structure 111. A transmission member, such as a sprocket or chain, can be disposed along the length of the swing arm 213 to transmit the power output by the rotation drive member 221 to the connector 211, thereby enabling the connector 211 to drive the second rotating roller 12 to rotate through the connecting structure 111. When a chain or sprocket is disposed along the length of the swing arm 213, a protective cover can be disposed on the outer periphery of the swing arm 213 along the length of the swing arm 213 to protect the transmission member. Of course, the drive of the rotating drive component 221 to the connecting component 211 can also adopt other structural forms, as long as the power of the rotating drive component 221 can drive the second rotating roller 12 to rotate when the power control component 20 is in the working position. Optionally, the rotating drive component 221 can be set as a servo motor, DC motor, etc. The rotating drive component 221 can be equipped with a built-in encoder to realize feedback signals such as speed.

[0029] like Figure 2 As shown, the braking assembly 21 in this embodiment further includes a braking element 216, which is connected to the connecting member 211 of the braking assembly 21. When the power control assembly 20 is in the working position, the braking element 216 controls the rotation of the first rotating roller 11 through the connecting member 211 of the braking assembly 21, thereby achieving effective braking of the first rotating roller 11. The braking element 216 can be located at one end of the swing arm 213 of the braking assembly 21 near the connecting structure 111, so that it can directly act on the connecting member 211 and then on the connecting structure 111, thereby controlling the rotation of the first rotating roller 11. Optionally, the braking element 216 can be an electromagnetic brake, which generates friction through electromagnetic force to prevent the rotation of the first rotating roller 11. At the same time, the braking force is adjusted in real time according to the speed of the second rotating roller 12 and the diameter of the roll, maintaining appropriate tension of the rubber material, thereby ensuring the flatness and density of the rubber material during the winding process, and thus improving product quality. In other embodiments, the braking response speed and strength issues during high-speed winding can also be addressed by using pneumatic or hydraulic brakes. It should be noted that the braking described in this embodiment is not complete stillness, but rather a method of damping and controlling the rotational speed to maintain a balance between the rotational speed of the first rotating roller 11 and the rotational speed of the second rotating roller 12. This ensures that the rubber compound maintains a certain tension during transport, facilitating its winding.

[0030] In this embodiment, the plane in which the swing arm 213 rotates is angled to the axial direction of the rotating roller. This allows the swing arm 213 to swing towards the connecting structure 111 and away from the connecting structure 111, while avoiding the axial position of the rotating roller, so that the take-up assembly 10 can move along the axial direction of the rotating roller. Specifically, in this embodiment, the plane in which the swing arm 213 rotates is perpendicular to the axial direction of the rotating roller. This allows the swing arm 213 to approach the connecting structure 111 and avoid the take-up assembly 10 via the shortest path, thereby reducing the docking time with the take-up assembly 10, simplifying the entry and exit operations of the take-up assembly 10, and improving docking and avoidance efficiency, thus increasing production efficiency.

[0031] In this embodiment, considering the entry and exit paths of the winding assembly 10 and the spatial layout of the power control assembly 20, when the power control assembly 20 switches between the avoidance position and the working position, the swing arm of the braking assembly 21 and the swing arm of the drive assembly 22 both move toward each other or away from each other, thereby ensuring the coordination of the braking assembly 21 and the drive assembly 22 when switching states, while ensuring efficient space utilization and continuity of action, and improving the overall stability and reliability of the inner liner winding device.

[0032] In this embodiment, the bottom of the winding assembly 10 has wheels 13 for ground movement, enabling the winding assembly 10 to not only be automatically conveyed on the production line but also to move freely on the ground, thereby improving the mobility and flexibility of the winding assembly 10. Optionally, the wheels 13 can be configured as self-lubricating bearing wheels, casters, etc.

[0033] This embodiment also provides an inner liner production line, including a film conveying device for conveying film and the aforementioned inner liner winding device. The film conveying device conveys the film to the second rotating roller 12 of the inner liner winding device, where it is combined with the adhesive material conveyed by the first rotating roller 11 of the inner liner winding device to the second rotating roller 12. When the power control component 20 of the inner liner winding device switches to the avoidance position, the winding component 10 can move along the axial direction of the rotating roller, thereby realizing continuous bonding and winding of the film and adhesive material on the winding component 10, improving the automation level and production efficiency of the production line. In this embodiment, the adhesive material may refer to a padding cloth. A padding cloth roll is wound on the first rotating roller 11. The first rotating roller 11 conveys the padding cloth to the second rotating roller 12, and the film conveying device conveys the film to the second rotating roller 12. The film and padding cloth are bonded and wound at the second rotating roller 12, thereby realizing the production of the inner liner. After the winding component completes the winding, it is automatically conveyed to the logistics storage warehouse by the conveying mechanism. In this embodiment, the conveying mechanism for the winding assembly 10 can be a chain conveyor, which conveys the winding assembly 10 along the axial direction of the rotating roller.

[0034] When the power control component 20 of this embodiment is in the avoidance position, the swing arms 213 of both the drive component 22 and the brake component 21 are raised, that is, moved away from the connecting structure 111. The connector 211 is separated from the connecting structure 111 of the winding assembly. In this embodiment, the connector 211 is also called the shift fork, and the connecting structure 111 is also called the dial. When the power control component 20 is in the working position, the winding assembly 10 is conveyed to the work station by the chain conveyor. After the winding assembly 10 is fixed, the swing arm 213 falls, that is, the swing arm 213 moves towards the connecting structure 111. The shift fork engages with the dial on the winding assembly 10, waiting for the rotation drive component 221 to rotate and wind up the rubber material. After the rubber material is wound up, the shift fork separates from the dial of the winding assembly 10, the swing arm 213 is raised away from the dial, and the winding trolley passes through the avoidance channel between the drive component 22 and the brake component 21.

[0035] The operation of the inner lining winding device in this embodiment is as follows: Before the winding assembly 10 enters the workstation, the cylinder rod of the transverse drive 215 retracts, the cylinder rod of the swing drive retracts, and the swing arm 213 is raised away from the clearance passage. The winding assembly 10 is conveyed to the workstation by the chain conveyor and locked by the locking member that cooperates with the winding assembly 10, so that the winding assembly 10 is completely fixed; after the winding assembly 10 enters the workstation, the cylinder rod of the swing arm drive 214 extends, and the swing arm 213 falls. At this time, the shift fork at the end of the swing arm 213 is separated from the dial wheel of the winding assembly 10. Then, the cylinder rod of the transverse drive 215 extends and drives the shift fork to approach the dial wheel along the axial direction of the rotating roller, thereby realizing the engagement of the shift fork and the dial wheel. Then, the drive unit 221 outputs power, which drives the second rotating roller 12 of the winding assembly 10 to rotate the roll material through the sprocket and chain drive. The brake unit 216 brakes the second steering roller, so that the rubber material maintains a certain tension and ensures smooth winding. After winding is completed, the cylinder rod of the transverse drive unit 215 retracts, causing the shift fork to separate from the shift wheel. The cylinder rod of the swing arm drive unit 214 retracts, causing the swing arm 213 to lift. The locking device that cooperates with the winding assembly 10 unlocks and releases the winding assembly 10. The winding assembly 10 moves out of the winding station along the axial direction of the rotating roller, waiting for the next roll material cycle of the winding assembly 10, ultimately realizing uninterrupted station-changing winding.

[0036] The inner lining winding device in this embodiment has a stable structure and is easy to maintain. It fully meets the production conditions of the inner lining and can be adapted to a fully automatic inner lining production line, improving the automation level of the inner lining production line, and saving labor and reducing costs.

[0037] It should be noted that "multiple" in the above embodiments refers to at least two.

[0038] As can be seen from the above description, the embodiments of this utility model achieve the following technical effects: 1. This solves the problem of high cost when integrating the inner lining layer winding device into an automated production line in existing technologies; 2. By setting the power control component and the take-up component to be detachably connected, and setting the power control component to be movable relative to the take-up component, the power control component can switch between the working position and the avoidance position; 3. The power control component switches from the working position to the avoidance position, thereby allowing the power control component to move away from the end of the rotating roller, so that the material storage component can move out of the workstation along the axial direction of the rotating roller and be conveyed to the next process. 4. The inner lining layer winding device is integrated into the automated production line without manual intervention or the need for a turntable, thus saving labor, infrastructure, and turntable costs. Moreover, the inner lining layer winding device in this embodiment has a simple structure, stable and reliable operation, reduces the probability of failure, and improves production efficiency.

[0039] Obviously, the embodiments described above are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort should fall within the protection scope of this utility model.

[0040] It should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the exemplary embodiments according to this application. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. Furthermore, it should be understood that when the terms "comprising" and / or "including" are used in this specification, they indicate the presence of features, steps, operations, devices, components, and / or combinations thereof.

[0041] It should be noted that the terms "first," "second," etc., used in the specification, claims, and accompanying drawings of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate so that the embodiments of this application described herein can be implemented in sequences other than those illustrated or described herein.

[0042] The above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Various modifications and variations can be made to this utility model by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A liner layer winding device, characterized in that, include: A movably configured take-up assembly (10) has a plurality of rotating rollers for winding and storing adhesive, the ends of which have connecting structures (111). A power control assembly (20) is located at the end of the rotating roller. The power control assembly (20) is detachably connected to the connecting structure (111). The power control assembly (20) has a working position and a avoidance position. When the power control assembly (20) is in the working position, it is located on the moving path of the take-up assembly (10) and connected to the connecting structure (111), and drives and / or brakes the rotation of the rotating roller. When the power control assembly (20) is in the avoidance position, it is separated from the connecting structure (111) and avoids the moving path of the take-up assembly (10). The take-up assembly (10) can move along the axial direction of the rotating roller.

2. The inner lining layer winding device according to claim 1, characterized in that, The plurality of rotating rollers includes a first rotating roller (11) and a second rotating roller (12), the first rotating roller (11) conveying the rubber material to the second rotating roller (12) and the second rotating roller (12) winding up the rubber material. The power control assembly (20) is plurality of multiple power control assemblies (20), and the plurality of power control assemblies (20) include: Braking assembly (21), wherein the braking assembly (21) is connected to and separated from the connecting structure (111) on the first rotating roller (11), and is used to brake the rotation of the first rotating roller (11); The drive assembly (22) is connected to the connection structure (111) on the second rotating roller (12) and is used to drive the rotation of the second rotating roller (12). When the power control assembly (20) is in the avoidance position, it moves along the movement path of the winding assembly (10). The braking assembly (21) and the drive assembly (22) are located on both sides of the winding assembly (10). An avoidance channel is formed between the braking assembly (21) and the drive assembly (22) for the winding assembly (10) to pass through.

3. The inner lining layer winding device according to claim 2, characterized in that, The braking assembly (21) and / or the drive assembly (22) include: Base (212); A swing arm (213) is rotatably mounted on the base (212) and can rotate to the moving path of the winding assembly (10) or avoid the movement of the winding assembly (10). The end of the swing arm (213) has a connector (211) for connecting and separating from the connecting structure (111). A swing arm drive (214) is driven to connect with the swing arm (213) and drives the swing arm (213) to swing.

4. The inner lining layer winding device according to claim 3, characterized in that, The drive assembly (22) and / or the braking assembly (21) further include: A transverse drive (215) is driven to connect with the swing arm (213) and drives the swing arm (213) to move along the moving path of the winding assembly (10) so that the connector (211) moves closer to the docking or separates away from the connecting structure (111).

5. The inner liner winding device according to claim 3, characterized in that, The drive assembly (22) further includes a rotation drive (221), which is driven to connect with the connector (211) of the drive assembly (22). When the power control assembly (20) is in the working position, the rotation drive (221) drives the connector (211) of the drive assembly (22) to rotate the second rotating roller (12) and wind up the rubber material.

6. The inner liner winding device according to claim 3, characterized in that, The braking assembly (21) further includes a brake element (216), which is connected to the connector (211) of the braking assembly (21). When the power control assembly (20) is in the working position, the brake element (216) controls the rotation of the first rotating roller (11) by braking the connector (211) of the braking assembly (21).

7. The inner liner winding device according to claim 4, characterized in that, The plane in which the swing arm (213) rotates is set at an angle to the axis of the rotating roller.

8. The inner liner winding device according to claim 4, characterized in that, Both the braking assembly (21) and the driving assembly (22) have the swing arm (213). When the power control assembly (20) switches between the avoidance position and the working position, the swing arm of the braking assembly (21) and the swing arm of the driving assembly (22) move toward each other or away from each other.

9. The inner liner winding device according to claim 1, characterized in that, The bottom of the winding assembly (10) has wheels (13) for ground movement.

10. A production line for an inner lining layer, characterized in that, include: Film conveying device for transporting film; According to any one of claims 1 to 9, in the inner lining layer winding device, the film conveying device conveys the film to the second rotating roller (12) of the inner lining layer winding device and combines it with the adhesive material conveyed by the first rotating roller (11) of the inner lining layer winding device to the second rotating roller (12). When the power control component (20) of the inner lining layer winding device switches to the avoidance position, the winding component (10) is able to move along the axial direction of the rotating roller.

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