Wrapping cloth forming equipment

Abstract

The utility model provides wrapping cloth forming equipment which comprises a capsule drum device, a tire bead feeding device, a wrapping cloth feeding device and a transfer ring, the capsule drum device comprises a capsule drum and a capsule assembly, the capsule assembly is arranged on the circumferential side face of the capsule drum, and at least one part of the capsule assembly is arranged in an expandable mode and drives the two sides of wrapping cloth to bulge to wrap a tire bead; the tire bead feeding device is arranged in the axial direction of the capsule drum and conveys tire beads to the capsule drum device. The wrapping cloth feeding device is arranged on the peripheral side of the capsule drum device and conveys wrapping cloth for the capsule drum device. The transfer ring is located between the tire bead feeding device and the capsule drum device and can convey the tire beads to the capsule drum and take away the wrapped tire beads on the capsule drum. The wrapping cloth forming device solves the problem that in the prior art, wrapping cloth forming equipment is complex in structure.

Description

Technical Field

[0001] This utility model relates to the field of tire processing, and more specifically, to a fabric wrapping forming equipment. Background Technology

[0002] In tire manufacturing, the bonding between the rubber compound and the steel rim during bead production typically relies on adhesives. A more refined process, the U-shaped wrapping process, uses a layer of nylon wrapping fabric to bond the steel rim and rubber compound, covering and bonding the seam between them. Current U-shaped wrapping processes employ a dual-station drum rotating around a central frame. The forming drum uses a composite structure, arranged in a mirror image. After wrapping fabric is wrapped around an empty drum at one station, the drum rotates to a second station, where the steel rim and triangular rubber are applied. A flap on the drum flips up, and simultaneously, the bladder on the drum inflates, forming the bead. The drum then rotates back to the first station. The bladder remains inflated during rotation to ensure effective wrapping. Afterward, the bladder is deflated, and the robot removes the finished product. The empty drum then continues wrapping fabric. This method results in a complex forming drum structure, high maintenance costs, and the drum only has a bladder on one side, meaning the wrapping fabric can only be applied to one side of the bead. Utility Model Content

[0003] The main objective of this invention is to provide a fabric wrapping forming device to solve the problem of complex structure in existing fabric wrapping forming devices.

[0004] To achieve the above objectives, according to one aspect of the present invention, a fabric wrapping forming device is provided, comprising a capsule drum device, a bead feeding device, a fabric wrapping feeding device, and a transfer ring. The capsule drum device includes a capsule drum and a capsule assembly, the capsule assembly being disposed on the circumferential side of the capsule drum. At least a portion of the capsule assembly is inflatable and causes the sides of the fabric wrapping to bulge out to cover the bead. The bead feeding device is disposed along the axial direction of the capsule drum and supplies the bead to the capsule drum device. The fabric wrapping feeding device is disposed on the circumferential side of the capsule drum device and supplies the fabric wrapping to the capsule drum device. The transfer ring is located between the bead feeding device and the capsule drum device and is capable of supplying the bead to the capsule drum and removing the fabric-wrapped bead from the capsule drum.

[0005] Furthermore, the capsule drum is expandable and retractable, and has a support position and a waiting position. When the capsule drum is in the support position, the capsule drum expands to support the bead and the wrapping fabric. When the capsule drum is in the waiting position, the capsule drum contracts to wait for the bead and the wrapping fabric.

[0006] Furthermore, the capsule assembly includes multiple capsule chambers located on the peripheral side of the capsule drum. Each capsule chamber is arranged along the axial direction of the capsule drum and forms a receiving area for accommodating the tire bead. The capsule chambers are expandable and contractible. When the capsule chamber is in a contracted state, it releases the wrapping cloth and the tire bead. When the capsule chamber is in an expanded state, it expands and causes the two sides of the wrapping cloth to bulge out to cover the tire bead.

[0007] Furthermore, the fabric feeding device includes a fabric feeding frame, which includes a frame body, a fabric conveying device, and a bonding device. The bonding device is movably disposed at the end of the fabric conveying device and located at the capsule drum device. The bonding device rotates and bonds the fabric to the capsule drum device. The bonding device includes a cutting component.

[0008] Furthermore, the bonding device also includes a feeding assembly, a suction assembly, and a pressure roller assembly. Along the fabric conveying direction, the cutting assembly is located downstream of the feeding assembly, and the feeding assembly is used to convey the cut fabric head towards the capsule drum device. Along the fabric conveying direction, the suction assembly is located downstream of the feeding assembly, and the cutting assembly is located between the suction assembly and the feeding assembly. The suction assembly is used to suck up the fabric head on the feeding assembly and convey it to the capsule drum device. Along the fabric conveying direction, the suction assembly is located upstream of the pressure roller assembly, and the pressure roller assembly is used to roll the fabric on the capsule drum device.

[0009] Furthermore, the fabric feeding rack also includes a pressing device, which is located at the axial end face of the capsule drum device. The pressing device includes a rotatable pressing arm that can swing to the circumferential side of the capsule drum device and press the fabric.

[0010] Furthermore, the fabric feeding rack also includes a length-fixing device, which is located above the fabric conveying device and measures the length of the fabric.

[0011] Furthermore, along the conveying direction of the fabric, the bonding device is movably arranged relative to the fabric conveying device, and the fabric feeding rack also includes an adjustment component, which is arranged between the fabric conveying device and the bonding device. The bonding device moves laterally relative to the fabric conveying device through the adjustment component.

[0012] Furthermore, the fabric conveying device is rotatably connected to the frame, and the fabric feeding frame also includes a lifting component. The lifting component is driven to connect to the fabric conveying device and drives the fabric conveying device and the bonding device to lift and swing synchronously.

[0013] Furthermore, the fabric feeding device also includes a fabric guiding component and a fabric storage component, which are arranged sequentially along the fabric conveying direction.

[0014] Furthermore, the fabric-covering forming equipment also includes a finished product conveying device and an unloading robot. The finished product conveying device is located on one side of the transfer ring, and the unloading robot is located between the transfer ring and the finished product conveying device. The unloading robot can remove the fabric-covered tire bead from the transfer ring to the finished product conveying device.

[0015] By applying the technical solution of this utility model, a fabric feeding device is set up to feed the fabric to the capsule drum device, and a bead feeding device is set up to feed the bead to the capsule drum device. The capsule assembly of the capsule drum device can expand, causing the two sides of the fabric to bulge, thereby changing the fabric from a flat shape to a U-shape, thus covering the bead placed in the middle of the fabric, making the fabric and the bead a whole, thereby improving the structural strength and stability of the bead. This embodiment of the arrangement feeds the fabric and the bead to the same capsule drum device, and the entire process of receiving the fabric, receiving the bead, and covering the bead with the fabric can be completed on one capsule drum device. The structure is simple, the operation is convenient, and the degree of automation is high. Moreover, the fabric forming equipment of this embodiment is a separate module, separate from the bead forming process, and can be directly integrated into the existing triangular rubber equipment without much modification, which is beneficial to saving costs and is easier to control and maintain. Attached Figure Description

[0016] 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:

[0017] Figure 1 A schematic diagram of the fabric forming equipment of this utility model is shown;

[0018] Figure 2 A top view of the fabric feeding rack is shown;

[0019] Figure 3 The front view of the fabric feeding rack is shown.

[0020] The above figures include the following reference numerals:

[0021] 10. Capsule drum device; 20. Tire bead feeding device; 30. Fabric feeding device; 31. Fabric feeding frame; 311. Frame body; 312. Fabric conveying device; 313. Bonding device; 3131. Feeding assembly; 3132. Suction assembly; 3133. Pressure roller assembly; 3134. Cutting assembly; 314. Pressing device; 315. Length fixing device; 316. Adjustment assembly; 317. Lifting assembly; 32. Fabric guide; 33. Fabric storage assembly; 40. Transfer ring; 50. Finished product conveying device; 60. Unloading robot; 70. Fabric wrapping. Detailed Implementation

[0022] 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.

[0023] 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.

[0024] 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.

[0025] To address the problem of complex structures in existing fabric forming equipment, this utility model provides a fabric forming device.

[0026] like Figures 1 to 3 The illustrated fabric wrapping forming equipment includes a capsule drum device 10, a bead feeding device 20, a fabric wrapping feeding device 30, and a transfer ring 40. The capsule drum device 10 includes a capsule drum and a capsule assembly. The capsule assembly is disposed on the peripheral side of the capsule drum, and at least a portion of the capsule assembly is inflatable, causing the sides of the fabric wrapping 70 to bulge to cover the bead. The bead feeding device 20 is disposed along the axial direction of the capsule drum and feeds the bead to the capsule drum device 10. The fabric wrapping feeding device 30 is disposed on the periphery of the capsule drum device 10 and feeds the fabric wrapping 70 to the capsule drum device 10. The transfer ring 40 is located between the bead feeding device 20 and the capsule drum device 10 and is capable of feeding the bead onto the capsule drum and removing the fabric-wrapped bead from the capsule drum.

[0027] In this embodiment, a fabric feeding device 30 feeds fabric 70 to a bladder drum device 10, and a bead feeding device 20 feeds bead to the bladder drum device 10. The bladder assembly of the bladder drum device 10 expands, causing the sides of the fabric 70 to bulge, thus changing the fabric 70 from a planar shape to a U-shape. This covers the bead placed in the middle of the fabric 70, making the fabric 70 and the bead a single unit, thereby improving the structural strength and stability of the bead. This arrangement in this embodiment feeds the fabric 70 and the bead to the same bladder drum device 10, allowing the entire process of receiving the fabric 70, receiving the bead, and covering the bead with the fabric 70 to be completed on a single bladder drum device 10. The structure is simple, the operation is convenient, and the degree of automation is high. Moreover, the fabric forming equipment in this embodiment is a separate module, distinct from the bead forming process, and can be directly integrated into existing triangular rubber equipment without much modification, which helps save costs and makes it easier to control and maintain.

[0028] In this embodiment, the tire bead refers to the steel rim and the rubber compound, with a seam at the joint between them. In this embodiment, the covering fabric 70 is wrapped once around the bladder drum device 10, and then the tire bead is placed around the outer periphery of the covering fabric 70. The covering fabric 70 is applied to the tire bead in a U-shape, thus covering both sides of the tire bead and simultaneously enclosing the seam between the steel rim and the rubber compound. Furthermore, it can simultaneously enclose the seams on both sides, thereby improving the stability of the tire bead. The fabric feeding device 30 conveys the fabric 70 to the capsule drum device 10 and adheres it to the outer periphery of the capsule drum device 10. At this time, the shape of the fabric 70 is consistent with the shape of the outer periphery of the capsule drum. Preferably, the fabric 70 is placed at the center of the outer periphery of the capsule drum device 10. Then, the bead feeding device 20 and the transfer ring 40 convey the bead to the capsule drum device 10 and place the bead at the middle of the outer periphery of the fabric 70. Preferably, both the fabric 70 and the bead are placed at the center of the outer periphery of the capsule drum device 10. At this time, the capsule chamber is located on the circumferential surface between the fabric 70 and the capsule drum. When the capsule drum expands, the fabric 70 and the bead can be placed together. The capsule drum is stably supported on the capsule drum device 10, thus preventing the wrapping cloth 70 and the capsule from moving or falling off during the subsequent bonding process. When the capsule chamber expands, it avoids the middle position of the wrapping cloth 70, that is, the placement position of the tire bead, and bulges on both sides of the wrapping cloth 70, so that the wrapping cloth 70 can bulge on both sides. At this time, the cross-section of the wrapping cloth 70 is U-shaped, and the wrapping cloth 70 extends in a ring along the outer periphery of the capsule drum device 10, thereby covering the tire bead located in the middle position of the wrapping cloth 70, so that the two sides of the wrapping cloth 70 are in contact with the tire bead, forming the wrapping cloth 70 and the tire bead into a ring-shaped whole, which is the tire bead with the wrapping cloth completed.

[0029] The bead feeding device 20 in this embodiment includes an unloading robot that removes the bead requiring wrapping 70 from the bead feeding device and moves it to the center of the transfer ring 40. The unloading robot is arranged along the axial direction of the capsule drum device 10 to facilitate the transfer of the bead between the bead conveying line and the transfer ring 40. A track for the transfer ring 40 to move is provided between the unloading robot and the capsule drum device 10, facilitating the transfer ring 40 to move the bead requiring wrapping 70 onto the capsule drum device 10 and remove the wrapped bead from the capsule drum device 10. Preferably, the track for the transfer ring 40 to move is arranged along the axis of the capsule drum device 10 to facilitate the movement of the transfer ring 40, while saving movement path and reducing space occupation. Of course, other devices, such as robots, can also be used instead of the unloading robot.

[0030] In this embodiment, the capsule drum is expandable and has a support position and a waiting position. When the capsule drum is in the support position, it expands to support the bead and the wrapping cloth 70. When the capsule drum is in the waiting position, it contracts to wait for the bead and the wrapping cloth 70, so that the bead and the wrapping cloth 70 can be transported to the same capsule drum device 10 and the wrapping cloth 70 can be wrapped and formed on the bead on the capsule drum device 10. Specifically, when the capsule drum is in the support position, the diameter of its outer circumference is larger than that when it is in the waiting position. This allows the tire bead to be easily fitted onto the outer circumference of the capsule drum device 10 when the capsule drum is in the waiting position. It also allows the tire bead to be easily removed from the capsule drum device 10 after the fabric wrapping 70 is completed. When the capsule drum is in the support position, the expansion of the capsule drum causes the capsule assembly on the outer circumference of the capsule drum to expand, which allows the fabric wrapping 70 and the tire bead to be stably supported on the outer circumference of the capsule drum device 10, preventing the fabric wrapping 70 and the tire bead from slipping or tilting. This helps to improve the stability and accuracy of the fabric wrapping 70 forming process.

[0031] Optionally, the expansion and contraction of the capsule drum can be achieved in various ways. It can be air / hydraulic expansion, that is, an air or hydraulic cavity is designed inside the capsule drum, and the drum surface is expanded by the pressure of air or hydraulic pressure to support the tire bead and the wrapping fabric 70. Alternatively, a mechanical expansion structure, such as a screw, connecting rod or gear, can be used to drive the components on the surface of the capsule drum to undergo physical deformation, thereby achieving expansion and contraction.

[0032] In this embodiment, the capsule assembly includes multiple capsule chambers located on the peripheral side of the capsule drum. Each capsule chamber is arranged along the axial direction of the capsule drum and forms a receiving area for accommodating the tire bead. The capsule chambers are expandable and contractible. When the capsule chamber is in a contracted state, it releases the covering fabric 70 and the tire bead. When the capsule chamber is in an expanded state, it expands and causes the two sides of the covering fabric 70 to bulge to cover the tire bead. Thus, through the expansion and contraction of the capsule chambers, the covering fabric 70 and the tire bead are precisely fitted and stably fixed. The arrangement of multiple capsule chambers allows the two sides of the covering fabric 70 to bulge evenly to cover the tire bead. After the covering is completed, the capsule chambers retract, releasing the covering fabric 70 and the tire bead, so that the transfer ring 40 can remove the tire bead from the capsule drum device 10. Specifically, this embodiment has two capsule chambers, each extending circumferentially along the capsule drum. The connection point between the two capsule chambers forms the receiving area. The bead is placed within this area, allowing the two capsule chambers to expand on both sides of the bead when they inflate, thus sandwiching the bead between the covering fabric 70 and forming the covering fabric 70 and the bead into a single unit. This allows the covering fabric 70 to adhere to both sides of the bead, improving its fit. When the two capsule chambers inflate, the connection point should only be sufficient to ensure the bead's stability and should not expand synchronously with the expansion of each capsule chamber.

[0033] Preferably, each capsule chamber expands simultaneously and synchronously, thereby improving the uniformity of the fit between the wrapping fabric 70 and the bead, and thus improving the fit quality between the wrapping fabric 70 and the bead.

[0034] In this embodiment, the fabric feeding device 30 includes a fabric feeding frame 31, which includes a frame 311, a fabric conveying device 312, and a bonding device 313. The bonding device 313 is movably disposed at the end of the fabric conveying device 312 near the capsule drum device 10 and located at the capsule drum device 10. The bonding device 313 rotates and bonds the fabric 70 to the capsule drum device 10. The bonding device 313 includes a cutting component 3134.

[0035] In this embodiment, the fabric feeding rack 31 is located at one end of the fabric feeding device 30 near the capsule drum device 10, enabling the fabric 70 to be adhered to the capsule drum device 10. Both the fabric conveying device 312 and the adhesion device 313 are positioned above the rack 311, with the adhesion device 313 positioned closer to the capsule drum device 10 than the fabric conveying device 312. The rack 311 has a certain height, ensuring that the end of the adhesion device 313 near the capsule drum device 10 is at a certain height, allowing the end of the capsule drum device 10 to be positioned above it, facilitating the adhesion of the fabric 70. The cutting component 3134, as part of the adhesion device 313, is also positioned near the capsule drum device 10. When the fabric 70 is adhered to the capsule drum device 10, it can cut off the tail of the fabric 70 being adhered, forming the head of the next section of fabric 70. In this way, compared with the traditional process of cutting the wrapping fabric 70 and then bonding it, the cutting component 3134 of this embodiment is set on the bonding device 313, which makes the cutting component 3134 closer to the capsule drum device 10. This shortens the distance between the cutting component 3134 and the capsule drum device 10, so that the wrapping fabric 70 does not need to be cut before bonding. When the cutting component 3134 is activated, the wrapping fabric 70 has already been partially bonded and fixed to the capsule drum device 10, thereby shortening the distance from the fixed point of the wrapping fabric 70 to the cutting point. This reduces the shaking and displacement of the wrapping fabric 70 during the cutting process, thereby ensuring the accuracy of the cutting position and improving the accuracy of the bonding of the wrapping fabric 70.

[0036] In this embodiment, the bonding device 313 further includes a feeding assembly 3131, a suction assembly 3132, and a pressure roller assembly 3133. Along the conveying direction of the fabric 70, the cutting assembly 3134 is located downstream of the feeding assembly 3131, and the feeding assembly 3131 is used to convey the cut end of the fabric 70 towards the capsule drum device 10. Along the conveying direction of the fabric 70, the suction assembly 3132 is located downstream of the feeding assembly 3131, and the cutting assembly 3134 is located between the suction assembly 3132 and the feeding assembly 3131. The suction assembly 3132 is used to suck up and convey the end of the material on the feeding assembly 3131 to the capsule drum device 10. Along the conveying direction of the fabric 70, the suction assembly 3132 is located upstream of the pressure roller assembly 3133, and the pressure roller assembly 3133 is used to roll the fabric 70 on the capsule drum device 10. In this way, through the coordinated action of the feeding assembly 3131, the suction assembly 3132 and the pressure roller assembly 3133, the fabric 70 is precisely fitted and firmly fixed. The feeding assembly 3131 can ensure the accurate positioning of the fabric 70 head, the suction assembly 3132 will absorb the head and send it to the capsule drum device 10, and the pressure roller assembly 3133 will make the fabric 70 fit tightly against the surface of the capsule drum device 10 through the rolling action.

[0037] like Figure 2 , Figure 3As shown, in this embodiment, the bonding device 313 is movably arranged relative to the fabric conveying device 312 along the conveying direction of the fabric 70, and the feeding assembly 3131, the cutting assembly 3134, the suction assembly 3132, and the pressure roller assembly 3133 are arranged sequentially along the conveying direction of the fabric 70. Specifically, the feeding assembly 3131 is movably arranged relative to the fabric conveying device 312. When the head of the fabric 70 is conveyed to the feeding assembly 3131, the feeding assembly 3131 can move relative to the fabric conveying device 312 towards the capsule drum device 10, thereby conveying the head of the fabric 70 directly below the suction assembly 3132. The suction assembly 3132 is vertically adjustable. When the feeding assembly 3131 conveys the head of the fabric 70 directly below the suction assembly 3132, the suction assembly 3132 can fall and absorb the head of the fabric 70. Simultaneously, the suction component 3132 can be moved along the conveying direction of the fabric 70, thereby enabling the suction component 3132 to adsorb the material head and convey it to the capsule drum device 10. When the fabric 70 is partially attached to the capsule drum device 10 but not completely attached, that is, when the fabric 70 is close to its fixed length, the cutting component 3134 cuts the fabric 70, so that the fabric 70 being attached is separated from the subsequent fabric 70 being conveyed, thereby allowing the material tail of the fabric 70 being attached to be smoothly attached to the capsule drum device 10. When the material head of the fabric 70 is attached to the capsule drum device 10, the capsule drum device 10 rotates, so that the fabric 70 can be attached to the outer periphery of the capsule drum device 10 along the rotation direction of the capsule drum device 10. The pressure roller assembly 3133 is located at the end of the bonding device 313 away from the fabric conveying device 312. When the material head is bonded to the capsule drum device 10, after the capsule drum device 10 rotates at a small angle, the material head moves away from the bonding device 313 as the capsule drum device 10 rotates. At this time, the pressure roller assembly 3133 falls down and presses the fabric 70, so that the fabric 70 is stably wrapped on the capsule drum device 10.

[0038] The feeding assembly 3131 in this embodiment includes a feeding tray and a feeding drive, which are driven together. The feeding drive can be disposed below the feeding tray and connected to the fabric conveying device 312. The fabric 70 is conveyed to the feeding tray by the fabric conveying device 312. The feeding drive can drive the feeding tray to move towards the capsule drum device 10 to convey the fabric 70 to the area below the suction assembly 3132. Optionally, the feeding drive can be a cylinder, an electric cylinder, etc.

[0039] Optionally, the suction assembly 3132 can be configured to include a suction cup, a suction cup lifting drive, and a suction cup horizontal drive. The suction cup can be a vacuum suction cup, magnetic suction cup, electrostatic suction cup, etc., as long as it can stably adsorb the material head of the wrapping fabric 70. The suction cup lifting drive and the suction cup horizontal drive are both connected to the suction cup drive. When the material head is conveyed by the feeding assembly 3131 to directly below the suction cup, the suction cup lifting drive drives the suction cup to descend, and the suction cup adsorbs the material head. After the suction cup stably adsorbs the material head, the suction cup horizontal drive drives the suction cup and the suction cup lifting drive to move above the capsule drum device 10 to wait for the material head to be bonded. Optionally, the suction cup lifting drive and the suction cup horizontal drive can be configured as a cylinder, an electric cylinder, etc.

[0040] In this embodiment, the cutting component 3134 includes a cutting blade and a pressure block. The cutting blade can be configured as a guillotine, spanning the width of the covering fabric 70. The cutting blade is positioned above the covering fabric 70, and when it is necessary to cut the covering fabric 70, the cutting blade falls to make the cut. When the cutting of the covering fabric 70 requires a certain angle, that is, when the cutting direction is not along the width direction of the covering fabric 70, the cutting blade can be adjusted to the corresponding angle. Both sides of the cutter are equipped with pressure blocks. On one hand, when the covering fabric 70 needs to be cut, the pressure blocks fall and press down on the covering fabric 70, preventing the covering fabric 70 from shifting when the cutter cuts it, thereby improving the accuracy of the cut, ensuring a smooth cut, and preventing the joint of the covering fabric 70 from shaking. On the other hand, after the covering fabric 70 is cut, the pressure blocks on both sides of the cutter press down on the tail of the previous section of the covering fabric 70 and the head of the next section of the covering fabric 70, respectively, to prevent the head and tail of the covering fabric 70 from lifting or shifting after cutting. At the same time, when the feeding component 3131 conveys the head of the next section of the covering fabric 70 downwards to the adsorption component, the pressure blocks can press down on the head of the material to ensure the stability of the feeding component 3131 and prevent the covering fabric 70 from shifting on the feeding component 3131. The cutting component 3134 may also include a pressure block drive component. When the fixed length of the covering fabric 70 is conveyed to the position, the pressure block drive component controls the pressure block to fall, and the cutter cuts the covering fabric 70. The pressure blocks on both sides of the cutter can use the same pressure block drive or separate pressure block drive. The pressure block drive can be a cylinder, electric cylinder, etc., as long as it can control the pressure block to fall and press down on the covering fabric 70. It should be noted that the width direction of the covering fabric 70 refers to the direction perpendicular to the conveying direction of the covering fabric 70.

[0041] Optionally, the pressure roller assembly 3133 may include a pressure roller and a pressure roller drive component. The pressure roller drive component is connected to the pressure roller drive and can be configured as a cylinder, electric cylinder, etc. The pressure roller drive component can drive the pressure roller to approach the capsule drum device 10 to press the fabric 70. The pressure roller can be configured as a cylinder and can be rotated. The outer peripheral side of the pressure roller rolls the fabric 70. Preferably, the axial length of the pressure roller is not less than the width of the fabric 70 to improve the pressing quality of the fabric 70. After the fabric 70 is attached to the capsule drum device 10, the pressure roller moves away from the capsule drum device 10 under the drive of the pressure roller drive component to achieve avoidance.

[0042] In this embodiment, the fabric feeding rack 31 further includes a pressing device 314, which is located at the axial end face of the capsule drum device 10. The pressing device 314 includes a rotatably configured pressing arm that can swing to the circumferential side of the capsule drum device 10 and press the fabric 70, thereby improving the stability and efficiency of the fabric 70 bonding, reducing the displacement and loosening of the fabric 70 during the bonding process, and ensuring the stable bonding of the fabric 70 on the capsule drum device 10. Specifically, the pressing device 314 can be disposed on the capsule drum device 10 and rotate synchronously with the rotation of the capsule drum device 10. When the adsorption component delivers the material head to the capsule drum device 10, the pressing arm swings to the material head of the wrapping fabric 70 and presses down the front end of the material head to stably fix the material head onto the capsule drum device 10. When the capsule drum device 10 rotates, the pressing arm rotates synchronously, so that the pressing device 314 can always press the material head tightly during the entire bonding process of the wrapping fabric 70, thereby ensuring reliable bonding of the material head, preventing the material head from shifting or falling off, and facilitating the bonding of the material tail and the material head when the wrapping fabric 70 approaches the material head, avoiding wrinkles.

[0043] Preferably, the pressing device 314 further includes a pressing drive and a pressing drive. The pressing arm can be cylindrical to facilitate pressing down on the covering fabric 70. Both the pressing drive and the pressing drive are driven to the pressing arm. The pressing drive can drive the pressing arm to swing to the circumferential side of the capsule drum device 10, and the pressing drive can drive the pressing arm to press the covering fabric 70. When the pressing device 314 is not working, the axial direction of the pressing arm is arranged along the tangential direction of the capsule drum device 10 to avoid other components. When the material head is conveyed to the capsule drum device 10, the pressing drive drives the pressing arm to swing ninety degrees so that the axial direction of the pressing arm can be parallel to the width direction of the covering fabric 70 and located above the covering fabric 70 to facilitate pressing down on the covering fabric 70. In this embodiment, when the bonding device 313 bonds the fabric 70, the material head is located above the capsule drum. Therefore, the pressing device 314 is correspondingly located above the capsule drum device 10. When the pressing arm swings above the fabric 70, the pressing drive drives the pressing arm to fall onto the surface of the material head, so as to stably bond the material head to the capsule drum device 10 and prevent it from falling off during the rotation of the capsule drum device 10. Optionally, the pressing drive and the pressing drive can be configured as a cylinder, servo motor, cam transmission, or other drive structure, which can realize the swing and pressing of the pressing device 314. Of course, depending on the actual situation, the pressing device 314 can also be set at other positions around the capsule drum device 10, as long as the pressing arm can press and fix the fabric 70.

[0044] In this embodiment, the fabric feeding rack 31 also includes a length-fixing device 315. The length-fixing device 315 is located above the fabric conveying device 312 and measures the length of the fabric 70 to achieve precise control of the fabric 70's length, ensuring that the fabric 70 meets the requirements and reducing waste, thus lowering costs. Considering that the bonding device 313 is located near the capsule drum device 10 and has limited space, the length-fixing device 315 is positioned above the fabric conveying device 312. The length-fixing device 315 provides a fixed length of fabric 70, which is then conveyed by the fabric conveying device 312 to the bonding device 313, providing an accurate cutting position for the cutting device to cut the fabric 70. Optionally, the length-fixing device 315 can be a servo motor, which offers high precision and rapid response, providing both length measurement and fabric conveying functions.

[0045] In this embodiment, along the conveying direction of the fabric 70, the bonding device 313 is movably arranged relative to the fabric conveying device 312. The fabric feeding rack 31 also includes an adjustment component 316, which is arranged between the fabric conveying device 312 and the bonding device 313. The bonding device 313 moves laterally relative to the fabric conveying device 312 through the adjustment component 316 to adjust the position of the fabric 70 material head falling on the capsule drum device 10. In this way, on the one hand, along the conveying direction of the wrapping fabric 70, the feeding component 3131 of this embodiment can be movably set relative to the wrapping fabric conveying device 312, so that the feeding component 3131 can convey the wrapping fabric 70 to the bottom of the adsorption component. On the other hand, by adjusting the component 316, the lateral position of the bonding device 313 can be moved as a whole. That is, by adjusting the component 316, the position of the feeding component 3131 is moved, and the adsorption component 3132, the pressure roller component 3133, the cutting component 3134 and the wrapping fabric 70 are moved laterally in sync. This allows the material head of the wrapping fabric 70 to be accurately bonded to the designated position on the capsule drum device 10, avoiding the wrapping fabric 70 from shifting and causing subsequent process operation failures, thereby improving the accuracy and efficiency of the wrapping fabric 70 bonding. Moreover, when it is necessary to adjust the bonding position of the wrapping fabric 70 and the tire bead, the position of the wrapping fabric 70 wrapped on the capsule drum device 10 can be easily adjusted by adjusting the bonding device 313.

[0046] Optionally, the adjustment component 316 may include structures such as an adjustment drive and an adjustment guide rail. An adjustment guide rail is provided between the bonding device 313 and the fabric conveying device 312, with the extension direction of the adjustment guide rail perpendicular to the conveying direction of the fabric 70. A servo drive or cylinder drive is used to drive the bonding device 313 to move laterally relative to the fabric conveying device 312, that is, to adjust the position of the bonding device 313 along the axial direction of the capsule drum device 10. Of course, the adjustment component 316 can also be configured with other structural forms, as long as it can achieve the overall lateral movement of the bonding device 313 to precisely control the lateral position of the fabric 70 on the capsule drum device 10. It should be noted that in this embodiment, "lateral" refers to being perpendicular to the conveying direction of the fabric 70.

[0047] In this embodiment, the fabric conveying device 312 is rotatably connected to the frame 311. The fabric feeding frame 31 also includes a lifting component 317. The lifting component 317 is driven to connect with the fabric conveying device 312 and drives the fabric conveying device 312 and the bonding device 313 to lift and swing synchronously. This allows the suction component 3132 to convey the fabric 70 to the capsule drum device 10. When the fabric 70 needs to be wrapped around the capsule drum device 10, the bonding device 313 can swing downward to accurately bond the fabric 70 to the outer periphery of the capsule drum device 10. After the fabric 70 is bonded, the bonding device 313 is driven to swing upward to avoid the tire bead placement process.

[0048] In this embodiment, the lifting assembly 317 may include a rotating shaft and a lifting cylinder. Both the rotating shaft and the lifting cylinder are disposed between the fabric conveying device 312 and the frame 311, and are arranged along the conveying direction of the fabric 70. When the cylinder rod of the lifting cylinder extends, it lifts the fabric conveying device 312, causing the rotating shaft to rotate. This keeps the height of the end of the fabric conveying device 312 away from the capsule drum device 10 constant, while the end closer to the capsule drum device 10 rises. This causes the fabric conveying device 312 to move the bonding device 313 away from the capsule drum device 10. When the cylinder rod of the lifting cylinder retracts, the end of the fabric conveying device 312 closer to the capsule drum device 10 descends, causing the bonding device 313 to descend as well. This allows the bonding device 313 to abut against the outer peripheral surface of the capsule drum device 10, thus bonding the fabric 70 to the outer peripheral surface of the capsule drum device 10. Optionally, the lifting cylinder may be replaced by an electric cylinder, servo motor, or other drive mechanism. Of course, the lifting component 317 can also adopt other structural forms, as long as it can meet the requirements of the bonding device 313 approaching and moving away from the capsule drum device 10. For example, it can also not adopt the swing motion form, but can also set a lifting cylinder at the rotating shaft, so that the lifting cylinder can drive the fabric conveying device 312 to lift as a whole. When the bonding device 313 drops to a certain height, the end of the bonding device 313 that is close to the capsule drum device 10 can bond the fabric 70 to the capsule drum device 10.

[0049] In this embodiment, the fabric feeding device 30 also includes a fabric guide 32 and a fabric storage component 33. Along the conveying direction of the fabric 70, the fabric guide 32, the fabric storage component 33, and the fabric feeding frame 31 are arranged in sequence to achieve stable unfolding and storage of the fabric roll 70, and to ensure the flatness and stability of the fabric 70 during the conveying process.

[0050] In this embodiment, the fabric-wrapping forming equipment also includes a finished product conveying device 50 and an unloading robot 60. The finished product conveying device 50 is disposed on one side of the transfer ring 40, and the unloading robot 60 is disposed between the transfer ring 40 and the finished product conveying device 50. The unloading robot 60 is capable of removing the wrapped bead from the transfer ring 40 and transferring it to the finished product conveying device 50. Figure 1 As shown, the conveying direction of the finished product conveying device 50 is opposite to that of the bead feeding device 20. The bead feeding device 20 conveys the bead to the transfer ring 40 along the axial direction of the bladder drum device 10, while the finished product conveying device 50 conveys the wrapped bead away from the bladder drum device 10 along the axial direction of the bladder drum device 10. Optionally, the finished product conveying device 50 can be an automatic or manual conveyor line, a tank car, or a louvered car.

[0051] In this embodiment, the fabric feeding device 30 and the transfer ring 40 move in perpendicular directions, which facilitates the conveying and overall forming of the fabric 70 and the tire bead. At the same time, this layout reduces unnecessary transfer and handling, which helps to improve work efficiency.

[0052] The capsule drum device 10 in this embodiment integrates the functions of a traditional mechanical drum and a capsule drum. When changing the bead size, only the capsule drum device 10 needs to be replaced, eliminating the need to replace both drums simultaneously, making bead size changes easier and faster. The capsule assembly expands to form a U-shaped receiving area, which facilitates the wrapping fabric 70's coverage of the bead. The application position and form of the wrapping fabric 70 are more precisely controlled. The application device 313 of the wrapping fabric feeder 31 integrates a cutting component, enabling automatic cutting of the wrapping fabric 70. The joint size and cutting effect of the wrapping fabric 70 are also more stable. The use of a transfer ring 40 to transport the bead and precisely position it in segments helps improve the quality of the wrapping fabric 70 on the bead.

[0053] This embodiment also provides a fabric wrapping forming method using the aforementioned fabric wrapping forming equipment. The method includes: a fabric wrapping feeding device 30 conveys fabric 70 to the capsule drum device 10 and adheres the fabric 70 to the periphery of the capsule drum device 10; a bead feeding device 20 removes the bead from the bead feeding device and conveys the bead to a transfer ring 40; the transfer ring 40 conveys the bead to the capsule drum device 10; the capsule assembly of the capsule drum device 10 expands to cover the bead with fabric 70; and the transfer ring 40 moves to the capsule drum device 10 to remove the bead covered with fabric 70. Thus, through the coordinated action of the fabric wrapping feeding device 30, the bead feeding device 20, the transfer ring 40, and the capsule drum device 10, automated feeding, precise application, and secure fixing of the fabric 70, as well as stable support and rapid replacement of the bead, are achieved.

[0054] In this embodiment, the fabric wrapping method further includes: when the transfer ring 40 conveys the tire bead to the bladder drum device 10, the bladder drum of the bladder drum device 10 expands to support the tire bead and the fabric wrapping 70. Through the expansion function of the bladder drum, stable support of the tire bead is achieved during the bonding process of the fabric wrapping 70, and the expansion of the bladder drum ensures the stability and firmness of the tire bead and the fabric wrapping 70 during the bonding process.

[0055] In this embodiment, the fabric covering method further includes: when the capsule assembly of the capsule drum device 10 expands, the capsule chambers on both sides of the receiving area expand simultaneously, causing the sides of the fabric covering 70 to bulge to cover the tire bead. Through the synchronous expansion of each capsule chamber, the fabric covering 70 is evenly bulged on both sides and covers the tire bead. The expansion of the capsule chambers ensures that the sides of the fabric covering 70 can bulge evenly and fit tightly against the tire bead.

[0056] In this embodiment, the fabric forming method further includes: when the fabric feeding device 30 is bonding the fabric 70, the fabric conveying device 312 conveys the fabric 70 to the bonding device 313. The bonding device 313 rotates and bonds the beginning of the fabric 70 to the capsule drum device 10. The capsule drum device 10 rotates to bond the fabric 70. Before the bonding of the fabric 70 is completed, the cutting component 3134 moves and cuts the fabric 70. The capsule drum device 10 continues to rotate until the end of the material is bonded. Through the coordinated action of the fabric conveying device 312 and the cutting component 3134, the precise bonding and cutting of the fabric 70 is achieved, ensuring that the length of the fabric 70 meets the production requirements. The rotation action of the bonding device 313 ensures that the fabric 70 can be accurately bonded to the capsule drum.

[0057] In this embodiment, the fabric forming method further includes: when the fabric 70 is conveyed to the bonding device 313, the feeding component 3131 drives the material head of the fabric 70 to be conveyed a predetermined distance towards the capsule drum device 10; the suction component 3132 sucks up the material head and conveys it to the capsule drum device 10; the pressure roller component 3133 operates to press the fabric 70 onto the capsule drum device 10; and the capsule drum device 10 rotates to bond the fabric 70. The feeding component 3131 conveys the material head of the fabric 70 to the capsule drum device 10 to facilitate bonding between the fabric 70 and the capsule drum device 10. During the bonding process, the pressure roller component 3133 continuously presses the fabric 70, thereby ensuring the bonding quality between the fabric 70 and the capsule drum device 10.

[0058] In this embodiment, the fabric forming method further includes: when the suction assembly 3132 picks up the material head and conveys it to the capsule drum device 10, the pressing device 314 is activated, and the pressing arm swings to the material head and presses the material head firmly onto the capsule drum device 10. The pressing device 314 ensures reliable contact between the material head and the capsule drum device 10, preventing the material head from falling off or shifting.

[0059] In this embodiment, the fabric covering forming method further includes: when the transfer ring 40 removes the completed tire bead from the fabric covering 70, the unloading robot 60 clamps the tire bead on the transfer ring 40 to the finished product conveying device 50, and the finished product conveying device 50 conveys the tire bead to the subsequent process. By having the unloading robot 60 remove the completed tire bead, the entire fabric covering 70 forming process is automated from loading to unloading, thereby reducing manual intervention and improving work efficiency.

[0060] The overall process of the fabric forming method in this embodiment is as follows: 1. Conveying and bonding the fabric 70: The fabric 70 passes sequentially through the fabric guide 32 and the fabric storage unit 33. The fabric guide 32 provides the fabric roll, and the fabric storage unit 33 stores a certain length of fabric 70 and conveys the fabric 70 to the fabric feeding rack 31. A fixed length device 315 is provided above the fabric conveying device 312 of the fabric feeding rack 31, so as to convey a fixed length of fabric 70 to the bonding device 313. When the material head reaches the feeding component 3131 of the bonding device 313, the feeding component 3131 drives the fabric 70 to move towards the capsule drum device 10, so as to convey the material head of the fabric 70 to the underside of the adsorption component. The adsorption component falls and adsorbs the fabric 70. The material head is fed into the capsule drum device 10, and then the adsorption component drives the wrapping fabric 70 to move towards the capsule drum device 10, thereby conveying the material head to the capsule drum device 10; subsequently, the lifting component 317 drives the wrapping fabric conveying device 312 to drive the bonding device 313 to swing downwards to bond the material head to the capsule drum device 10; the pressing device 314 swings above the material head and moves downwards to approach the material head, stably fixing the material head to the capsule drum device 10; then the capsule drum device 10 starts to rotate, and the material head rotates synchronously with the capsule drum device 10. When the capsule drum device 10 rotates at a small angle, the pressure roller component 3133 presses the wrapping fabric 70 with the lower roller, so that the wrapping fabric 70 can be stably wrapped around the capsule drum device 10; when the wrapping fabric 70 is close to the fixed length, the cutting component 3134 cuts the wrapping fabric. After the cutting blade cuts the fabric 70 that is being laminated, the feeding assembly 3131 moves towards the capsule drum device 10, conveying the head of the next section of fabric 70 to below the suction assembly 3132. The approximate fixed length here can be set according to the actual situation, such as setting the approximate fixed length to 80% or 90% of the fixed length, etc. The capsule drum device 10 continues to rotate, and the tail of the fabric 70 is smoothly rolled onto the capsule drum device 10 and pressed by the pressure roller assembly 3133 at the joint of the head and tail. Then the pressure roller assembly 3133 is lifted, and the pressure arm of the pressing device 314 swings back to be parallel to the tangential direction of the capsule drum device 10 to avoid the position above the fabric 70. The lifting assembly 317 drives the fabric conveying device 312 to move. 1. The bonding device 313 is raised away from the capsule drum device 10; 2. The bead conveying: The unloading robot or robot of the bead feeding device 20 takes the bead that needs to be wrapped with cloth 70 from the bead feeding device and moves it to the center position of the transfer ring 40 of the wrapping forming equipment in this embodiment. The transfer ring 40 takes the bead from the unloading robot and moves it to the middle of the capsule drum device 10. At this time, a layer of cloth 70 has been wrapped on the capsule drum device 10, and the bead is sleeved on the outer periphery of the cloth 70; 3. The combination and forming of the bead and the cloth 70: The capsule drum includes two capsule chambers. The two capsule chambers can bulge along the middle part of the capsule assembly, that is, the connection between the two capsule chambers; the capsule drum undergoes the first expansion to fix the bead to the capsule drum device 10;The capsule assembly undergoes secondary expansion, folding up both sides of the covering fabric 70 to form a U-shaped structure, thus applying the covering fabric 70 to both sides of the tire bead. The capsule assembly maintains pressure for a certain period to ensure the application effect. The capsule assembly quickly releases air to loosen the covered tire bead. The transfer ring 40 removes the covered tire bead and moves it to the middle of the path of the track on which the transfer ring 40 moves. The unloading robot 60 removes the tire bead from the transfer ring 40 and stacks it onto the finished product conveyor 50.

[0061] It should be noted that "multiple" in the above embodiments refers to at least two.

[0062] As can be seen from the above description, the embodiments of this utility model achieve the following technical effects:

[0063] 1. It solves the problem of complex structure in existing fabric wrapping forming equipment;

[0064] 2. By setting up a fabric feeding device to feed the fabric to the capsule drum device, and a bead feeding device to feed the bead to the capsule drum device, the capsule assembly of the capsule drum device can expand and cause the two sides of the fabric to bulge, thereby changing the fabric from a flat shape to a U-shape, thus covering the bead placed in the middle of the fabric, making the fabric and the bead a whole, thereby improving the structural strength and stability of the bead.

[0065] 3. The fabric and bead are conveyed to the same capsule drum device, which can complete the entire process of receiving the fabric, receiving the bead, and wrapping the bead with the fabric on a single capsule drum device. The structure is simple, easy to operate, and highly automated. Moreover, the fabric forming equipment in this embodiment is a separate module, which is separate from the bead forming process. It can be directly integrated into the existing triangular rubber equipment without much modification, which helps to save costs and makes it easier to control and maintain.

[0066] 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.

[0067] 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.

[0068] 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.

[0069] 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 fabric covering forming device, characterized in that, include: The capsule drum device (10) includes a capsule drum and a capsule assembly. The capsule assembly is disposed on the peripheral side of the capsule drum. At least a portion of the capsule assembly is inflatable and causes the two sides of the wrapping cloth (70) to bulge to cover the tire bead. A bead feeding device (20) is provided along the axial direction of the bladder drum and feeds bead to the bladder drum device (10). A fabric feeding device (30) is provided on the periphery of the capsule drum device (10) and feeds fabric (70) to the capsule drum device (10); A transfer ring (40) is located between the bead feeding device (20) and the capsule drum device (10), and is capable of conveying the bead to the capsule drum and removing the wrapping (70) on the capsule drum to complete the bead feeding.

2. The fabric forming equipment according to claim 1, characterized in that, The capsule drum is expandable and has a support position and a waiting position. When the capsule drum is in the support position, the capsule drum expands to support the bead and the wrapping cloth (70). When the capsule drum is in the waiting position, the capsule drum contracts to wait for the bead and the wrapping cloth (70).

3. The fabric forming equipment according to claim 1, characterized in that, The capsule assembly includes multiple capsule chambers located on the peripheral side of the capsule drum. Each capsule chamber is arranged along the axial direction of the capsule drum and forms a receiving area for accommodating the bead. The capsule chambers are expandable and contractible. When the capsule chamber is in a contracted state, it releases the covering fabric (70) and the bead. When the capsule chamber is in an expanded state, it expands and causes the two sides of the covering fabric (70) to bulge to cover the bead.

4. The fabric forming equipment according to claim 1, characterized in that, The fabric feeding device (30) includes a fabric feeding frame (31), which includes: Frame (311); Fabric conveying device (312); A bonding device (313) is movably disposed at the end of the fabric conveying device (312) and located at the capsule drum device (10). The bonding device (313) rotates and bonds the fabric (70) to the capsule drum device (10). The bonding device (313) includes a cutting component (3134).

5. The fabric forming equipment according to claim 4, characterized in that, The bonding device (313) further includes: The feeding assembly (3131) is located along the conveying direction of the covering fabric (70), and the cutting assembly (3134) is located downstream of the feeding assembly (3131). The feeding assembly (3131) is used to convey the cut end of the covering fabric (70) towards the capsule drum device (10). The suction assembly (3132) is located downstream of the feeding assembly (3131) along the conveying direction of the covering fabric (70), and the cutting assembly (3134) is located between the suction assembly (3132) and the feeding assembly (3131). The suction assembly (3132) is used to suck up and convey the material head on the feeding assembly (3131) to the capsule drum device (10). The pressure roller assembly (3133) is located upstream of the pressure roller assembly (3132) along the conveying direction of the fabric (70). The pressure roller assembly (3133) is used to roll the fabric (70) on the capsule drum device (10).

6. The fabric forming equipment according to claim 4, characterized in that, The fabric feeding rack (31) also includes a pressing device (314), which is located at the axial end face of the capsule drum device (10). The pressing device (314) includes a rotatable pressing arm, which can swing to the circumferential side of the capsule drum device (10) and press the fabric (70).

7. The fabric forming equipment according to claim 4, characterized in that, The fabric feeding rack (31) also includes a length fixing device (315), which is located above the fabric conveying device (312) and measures the length of the fabric (70).

8. The fabric forming equipment according to claim 4, characterized in that, Along the conveying direction of the covering fabric (70), the bonding device (313) is movably disposed relative to the covering fabric conveying device (312). The covering fabric feeding rack (31) also includes an adjusting component (316), which is disposed between the covering fabric conveying device (312) and the bonding device (313). The bonding device (313) moves laterally relative to the covering fabric conveying device (312) via the adjusting component (316).

9. The fabric forming equipment according to claim 4, characterized in that, The fabric conveying device (312) is rotatably connected to the frame (311). The fabric feeding rack (31) also includes a lifting assembly (317). The lifting assembly (317) is driven to connect to the fabric conveying device (312) and drives the fabric conveying device (312) and the bonding device (313) to lift and swing synchronously.

10. The fabric forming equipment according to claim 4, characterized in that, The fabric feeding device (30) further includes: Fabric-covered guide opening component (32); The fabric storage unit (33) is arranged in sequence along the conveying direction of the fabric (70), including the fabric guide (32), the fabric storage unit (33), and the fabric feeder (31).

11. The fabric forming equipment according to any one of claims 1 to 10, characterized in that, The fabric forming equipment also includes: Finished product conveying device (50), the finished product conveying device (50) is disposed on one side of the transfer ring (40); An unloading robot (60) is disposed between the transfer ring (40) and the finished product conveying device (50), and the unloading robot (60) is capable of removing the wrapped tire bead from the transfer ring (40) to the finished product conveying device (50).

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