RFID electronic tag stacking and cutting integrated machine

Abstract

The RFID electronic tag stacking and cutting integrated device includes a base (10), a stacking device (20) and a cutting device (40) mounted on the base (10) and sequentially connected according to the processing order, wherein the stacking device (20) can stack chips and rubber material to form a tagged stacked strip, and the stacking device (20) includes a stand plate (21), a chip supply mechanism (22) and a rubber material supply mechanism (23), the chip supply mechanism (22) and the rubber material supply mechanism (23) are attached to the stand plate (21), and the cutting device (40) can cut the stacked strip, and the cutting device (40) includes a frame body (41), a cutting and transport mechanism (42), a cutting mechanism (43) and a material collection mechanism (44). The RFID electronic tag stacking and cutting integrated device solves the problem that electronic tag stacking devices and cutting devices cannot achieve efficient processing.

Description

Technical Field

[0001] Cross-reference to Related Applications This application claims priority to the patent application with application number 202323583424.9, titled "RFID Electronic Tag Laminating and Cutting Integrated Equipment", filed with the China National Intellectual Property Administration on December 26, 2023, and all of its content is incorporated into this application by reference.

[0002] This application relates to the technical field of tire equipment, and specifically, to an RFID electronic tag laminating and cutting integrated equipment.

Background Art

[0003] In the production of conventional tire treads, the vulcanization tag is the unique identifier of the tire during the tire manufacturing and distribution process. However, with the continuous advancement of the intelligent manufacturing concept, in an environment where the automation level of the tire industry is continuously improving, RFID (Radio Frequency Identification) electronic tags for tires will soon be widely applied. Before embedding the RFID electronic tag in the tire, preprocessing is performed on the electronic tag. For example, the RFID electronic tag is encapsulated inside a specially formulated rubber material, wrapped and laminated with two layers of rubber material, then the preservative film of the strip is peeled off, and then operations such as cutting, grasping, and tag affixing need to be carried out.

[0004] Currently, in the tire manufacturing process, electronic tag laminating equipment and cutting equipment have emerged. After the RFID chip is wrapped and laminated by the laminating equipment, the cutting equipment identifies and positions the strip, cuts a single chip, and transports the single electronic tag formed after cutting to the placement position.

[0005] There are several problems with existing electronic tag laminating equipment and cutting equipment: 1. In the material supply method of the laminating equipment, since it is necessary to supply materials from both sides of the equipment, the operation time for material supply by the operator is increased. 2. The intermediate buffer transfer mechanism, when separating the film from the surface of the strip, causes the roller to easily drag the separated film a certain distance, leading to tearing and even rupture of the film, resulting in the need to frequently rewind the film manually. 3. In the cutting method of the cutting machine, only one tag can be positioned and cut at a time, resulting in a long overall cycle time. In cases of high-volume needs, this method is inefficient and cannot meet the requirements. 4. Existing RFID electronic tag manufacturing methods are inefficient and relatively expensive because they are completed using two machines: a stacking machine and a cutting machine. 5. In the original device, the device door had to be opened manually to collect the material, which increased the time required for opening and closing the door and manual processing.

[0006] As can be seen from the above, existing electronic tag stacking and cutting equipment has various problems that prevent efficient processing, affecting both processing efficiency and quality. [Overview of the project] [Problems that the invention aims to solve]

[0007] The main objective of this application is to provide an integrated RFID electronic tag stacking and cutting device in order to solve the problem that conventional electronic tag stacking and cutting devices cannot achieve efficient processing. [Means for solving the problem]

[0008] To achieve the above objective, according to one selectable embodiment of the present application, an integrated RFID electronic tag stacking and cutting device is provided, the device comprising a base, a stacking device mounted on the base and sequentially connected according to the processing sequence, wherein the stacking device is capable of stacking chips and rubber material to form a tagged stacked strip, the stacking device comprising a stand plate, a chip supply mechanism and a rubber material supply mechanism, the chip supply mechanism and the rubber material supply mechanism mounted on the stand plate, and the cutting device is capable of cutting the stacked strip, the cutting device comprising a frame body, a cutting and transport mechanism, a cutting mechanism and a material collection mechanism.

[0009] In one selectable embodiment, the lamination apparatus further includes a rotating mechanism, the rotating mechanism including sequentially connected longitudinal and transverse segments, comprising a frame on which the longitudinal segments are erected on a base and the transverse segments extend laterally and are connected to the upper ends of the longitudinal segments; a rotating swing arm rotatably penetrating the transverse segments and positioned above a chip feeding mechanism and a rubber material feeding mechanism; a rotating drive member connected to the frame and driven to the rotating swing arm to drive the rotating swing arm to rotate; and a material removal drive member mounted on the rotating swing arm and rotating in accordance with the rotating swing arm, with a material removal head at the bottom end of the material removal drive member for removing material.

[0010] In one selectable embodiment, the lamination apparatus further includes a lamination mechanism, which is installed in a rubber material supply mechanism and can laminate chips transported to the rubber material supply mechanism with rubber material.

[0011] In one selectable embodiment, the RFID electronic tag lamination and cutting integrated device further includes a transfer device, the transfer device including a guide frame and transport rollers, the guide frame having a peeling surface, and the transfer device can peel the film from the surface of the tagged laminated strip with respect to the laminated strip on which the chip and rubber material are laminated, wherein the peeling surface is located on the side of the guide frame facing the input end of the transfer device and is inclined toward the laminated strip along the transport direction of the laminated strip.

[0012] In one selectable embodiment, the transfer device further includes a film take-up reel, the film being wound onto the film take-up reel and collected, and moved along the peeling surface by the drive of the film take-up reel.

[0013] In one selectable embodiment, there are multiple guide frames, at least one of which is provided with a peeling surface; there are multiple transport rollers, at least two of which are positioned opposite each other vertically with a gap between them; the laminated strip is located in the gap between the vertically positioned transport rollers; and the guide frames are located on the transport rollers.

[0014] In one selectable embodiment, the frame body includes a plurality of crossbeams and a plurality of longitudinal beams, the crossbeams and longitudinal beams forming a frame structure, a cutting and conveying mechanism located on the output side of the lamination device, the laminated strips after lamination being conveyed to the cutting and conveying mechanism for cutting, at least a portion of the cutting mechanism being movably mounted on the crossbeams and moving along the extending direction of the crossbeams, the cutting mechanism located above the cutting and conveying mechanism and capable of cutting the laminated strips on the cutting mechanism, a material collection mechanism being movable laterally and located in the next step after the cutting and conveying mechanism, the cutting mechanism conveying the cut tabs to the material collection mechanism after cutting the laminated strips.

[0015] In one selectable embodiment, the cutting mechanism includes a cutting matrix movably mounted on a crossbeam, a cutting drive member mounted at the bottom end of the cutting matrix and having a cutting head at the bottom end for cutting laminated strips, and a lateral movement drive member mounted on the crossbeam and driven to the cutting matrix, which drives the cutting matrix and the cutting drive member to move laterally.

[0016] In one selectable embodiment, the RFID electronic tag stacking and cutting integrated device further includes a material collection device, and the base includes a base body and a protective cover, the stacking device, the cutting device and the material collection device are mounted on the base body, and the protective cover covers the base and the outside of the stacking device and the cutting device.

[0017] In one selectable embodiment, the protective cover has an openable and closable safety door, which is located on a material collection device, and the material collection device can collect, wind up, and transport tags cut in a previous process to the outside of the device, and the material collection device is installed to be reversible, and when the safety door is opened, the material collection device reversible to the outside of the protective cover.

[0018] In one selectable embodiment, the base further includes a fixed axis, and the material collection device includes a material collection matrix rotatably mounted on the fixed axis; a reversing drive member connected to the material collection matrix and driving the material collection matrix to reverse; a material collection hub rotatably mounted on the material collection matrix and extending outward from a protective cover when the material collection matrix is ​​reversed; and a material collection drive member driven to and connected to the material collection hub and driving the material collection hub to rotate.

[0019] By applying the technical solution of this application, through the optimization of the laminating device and the cutting device, the laminating device supplies chips and rubber materials through the chip supply mechanism and the rubber material supply mechanism. When supplying materials, manual supply becomes easier, the supply efficiency is greatly improved, and the processing efficiency is also improved. The laminating device laminates chips and rubber materials. The laminated strip after lamination is conveyed to the cutting device for cutting. The cutting device realizes cutting and placement through the cutting conveyance mechanism, the cutting mechanism and the material collection mechanism, thereby further improving the processing efficiency. In the above installation method, by optimizing the RFID electronic tag laminating and cutting integrated device from two aspects of the laminating device and the cutting device, the RFID electronic tag laminating and cutting integrated device can achieve continuous and efficient processing, thereby improving the processing efficiency. At the same time, in this embodiment, since lamination and cutting are integrated into an integrated device, the RFID electronic tag laminating and cutting integrated device realizes processing in two aspects of lamination and cutting, and can reduce the overall cost of the device while meeting the processing needs compared with two separate devices.

Brief Description of the Drawings

[0020] The drawings in the specification constituting a part of this application are used to provide a further understanding of this application. The exemplary embodiments and their descriptions of this application are used to interpret this application and do not constitute an inappropriate limitation of this application. The drawings are as follows:

[0021] [Figure 1] It is a front view of the RFID electronic tag laminating and cutting integrated device of this application. [Figure 2] It is an isometric view of FIG. 1. [Figure 3] It is a schematic structural view excluding the base in FIG. 1. [Figure 4] It is a schematic structural view of the laminating device in FIG. 1. [Figure 5] It is a schematic structural view of the rotating mechanism in FIG. 4. [Figure 6] It is a schematic structural view of the transfer device in FIG. 1. [Figure 7] It is a schematic structural view of the guide frame in FIG. 6. [Figure 8] It is an isometric view of FIG. 7. [Figure 9] It is a schematic structural view of the cutting device and the material collection device in FIG. 1. [Figure 10] It is a schematic view of the structure combining the frame body and the cutting mechanism in FIG. 9. [Figure 11] It is a schematic structural view of the material collection device in FIG. 9.

Embodiments for Carrying Out the Invention

[0022] Unless there is a contradiction, the embodiments and features in the embodiments in this application can be combined with each other. The following will describe this application in detail by combining the embodiments while referring to the drawings.

[0023] In order to solve the problem that the electronic tag laminating equipment and cutting equipment in the prior art cannot achieve efficient processing, this application provides an RFID electronic tag laminating and cutting integrated device.

[0024] The RFID electronic tag laminating and cutting integrated device shown in FIGS. 1 to 11 includes a base 10, a laminating device 20 installed on the base 10 and sequentially connected according to the processing sequence, and a cutting device 40. Here, the laminating device 20 can laminate chips and rubber materials to form a laminated strip with tags. The laminating device 20 includes a stand plate 21, a chip supply mechanism 22, and a rubber material supply mechanism 23. The chip supply mechanism 22 and the rubber material supply mechanism 23 are attached to the stand plate 21. The cutting device 40 can cut the laminated strip. The cutting device 40 includes a frame body 41, a cutting and conveying mechanism 42, a cutting mechanism 43, and a material collection mechanism 44.

[0025] In this embodiment, by optimizing the lamination device 20 and the cutting device 40, the lamination device 20 supplies chips and rubber material via the chip supply mechanism 22 and the rubber material supply mechanism 23, making manual supply of materials easier and significantly improving supply efficiency, as well as processing efficiency. The lamination device 20 laminates the chips and rubber material, and the laminated strips after lamination are transported to the cutting device 40 for cutting. The cutting device achieves cutting and placement using the cutting and transport mechanism 42, the cutting mechanism 43, and the material collection mechanism 44, thereby further improving processing efficiency. In the above installation method, by optimizing the RFID electronic tag lamination and cutting integrated equipment from two aspects, the RFID electronic tag lamination and cutting integrated equipment can achieve continuous and efficient processing, thereby improving processing efficiency. At the same time, since lamination and cutting are integrated into a single device in this embodiment, the RFID electronic tag lamination and cutting integrated device can perform processing in both aspects, and can reduce the overall cost of the device while meeting processing needs compared to two separate devices.

[0026] In this embodiment, the stand plate 21 of the lamination device 20 is in an upright configuration, and the chip supply mechanism 22 and the rubber material supply mechanism 23 are located on the same side of the stand plate 21. In this way, manual supply can be performed on the same side, eliminating the need to switch positions between the two sides, which facilitates supply, significantly improves supply efficiency, and thus improves processing efficiency.

[0027] The RFID electronic tag stacking and cutting integrated equipment of this embodiment further includes a transfer device 30 and a material collection device 50, in addition to the stacking device 20 and the cutting device 40. The stacking device 20, the transfer device 30, the cutting device 40, and the material collection device 50 are installed sequentially according to the processing sequence.

[0028] In this embodiment, by optimizing the lamination device 20 and the transfer device 30, the chip supply mechanism 22 and the rubber material supply mechanism 23 are installed on the same side in the lamination device 20, and simultaneously, a peeling surface 311 is installed on the guide frame 31 of the transfer device 30. With the above installation method, by optimizing the RFID electronic tag lamination and cutting integrated equipment from two aspects, the RFID electronic tag lamination and cutting integrated equipment can achieve continuous and efficient processing, thereby improving processing efficiency. At the same time, since lamination and cutting are integrated into an integrated device in this embodiment, the RFID electronic tag lamination and cutting integrated equipment can achieve processing in two aspects, lamination and cutting, and can reduce the overall cost of the equipment while meeting processing needs compared to two separate devices.

[0029] Furthermore, the basic structure of the lamination device 20, transfer device 30, cutting device 40, and material collection device 50 in this embodiment, that is, the structure that realizes their functions, can adopt existing technical designs. Therefore, this embodiment mainly describes the improved and optimized structure in detail, and for other structures not specifically described, existing technical designs can be referred to, and repeated explanations will be omitted.

[0030] As shown in Figure 4, the lamination apparatus 20 of this embodiment mainly includes a chip supply mechanism 22, a rubber material supply mechanism 23, a rotating mechanism 24, a lamination mechanism 25, etc., and its operation process is as follows: First, the chip supply mechanism 22 precisely positions the RFID chip on the carrier tape and peels off the sealing film on top of it. Next, the rotating mechanism 24 grasps the positioned chip and rotates it 180°, placing it in the lower layer of rubber material supplied by the rubber material supply mechanism 23. Then, the lamination mechanism 25 wraps the tag with both the upper and lower layers of rubber material and laminates it.

[0031] Specifically, the chip supply mechanism 22 of this embodiment includes components such as a film peeling reel, a chip roll, a feed motor, a chip removal platform, a strip shaft, and a chip positioning sensor. Its operation involves driving the strip shaft to rotate using the feed motor, pulling the chip roll back using the strip shaft, peeling off the upper layer of sealing film from the strip roll using the film peeling reel during the unwinding process, and positioning the chip belt from which the sealing film has been peeled off using the chip positioning sensor on the chip removal platform to accurately position the chips on the chip roll. The rubber material supply mechanism 23 of this embodiment includes a rubber material roll and a conveyor belt, and the rubber material on the rubber material roll is conveyed by the power of the conveyor belt and transported below the rotating mechanism 24 and the lamination mechanism 25.

[0032] As shown in Figure 5, the rotating mechanism 24 of this embodiment includes a frame 241, a rotating swing arm 242, a rotating drive member 243, and a material extraction drive member 244. The frame 241 includes sequentially connected longitudinal and transverse segments, the longitudinal segments being erected on the base 10, and the transverse segments extending laterally and connected to the upper end of the longitudinal segments. This forms an inverted L-shaped structure for the frame 241. The reason for adopting this installation method is that after the chip supply mechanism 22 and the rubber material mechanism 23 are installed on the same side of the stand plate 21, the installation of the rotating mechanism 24 is restricted and cannot be attached to the surface of the platform. Therefore, the frame 241 may be installed independently, or the frame 241 may be supported and erected on the base 10. This allows for the attachment and support of components of the stacking device 20 to the frame 241, and the material extraction head can still perform operations such as material extraction. The rotating swing arm 242 is installed so as to penetrate the lateral segment so as to be rotatable in the vertical direction, and is located above the chip supply mechanism 22 and the rubber material supply mechanism 23. The rotating drive member 243 can be a motor or other component, fixedly mounted to the frame 241, and its output end is driven and connected to the rotating swing arm 242, thereby driving and rotating the rotating swing arm 242. The material extraction drive member 244 can be made of a cylinder or other component and is installed on the rotating swing arm 242. It rotates in accordance with the rotating swing arm 242, and the bottom end of the material extraction drive member 244 has a material extraction head for extracting material. There may be one or more material extraction drive members 244 depending on the needs. In this embodiment, multiple material extraction drive members 244 are installed to improve efficiency. Specifically, two material extraction drive members 244 are installed, and the two material extraction drive members 244 are located at both ends of the rotating swing arm 242, with the rotation axis of the rotating swing arm 242 located in the center. In this way, when the rotating swing arm 242 rotates, the material extraction drive members 244 at both ends extract chips, enabling the extraction of multiple chips and thereby improving processing efficiency.

[0033] The lamination mechanism 25 of this embodiment is installed in the rubber material supply mechanism 23, and can laminate chips transported to the rubber material supply mechanism 23 with rubber material. The lamination apparatus 20 of this embodiment includes components such as a rubber material pressure roller, a lamination cylinder, a lamination power roller, a lamination motor, and a rubber material guide roller, and its operation process is as follows: The lamination motor drives and rotates the lamination power roller, the lamination cylinder operates, the rubber material pressure roller laminates downwards, and the lamination power roller drives and rotates the rubber material pressure roller to laminate two layers of rubber material.

[0034] The transfer device 30 in this embodiment includes a guide frame 31 and a transport roller 32, the guide frame 31 having a peeling surface 311. The transfer device 30 can peel the film from the surface of a laminated strip in which chips and rubber material are laminated. During the peeling process, the peeling surface 311 can guide the peeled film, so that the film moves along the direction of the peeling surface 311 after peeling and is collected. This prevents the film from being continuously dragged forward by the transport roller 32, getting caught in the transport roller 32, tearing, and even rupturing, enabling continuous collection of the film, reducing the time required for manual film winding, and thereby improving processing efficiency.

[0035] As shown in Figures 6 to 8, in this embodiment, the peeling surface 311 is located on the side of the guide frame 31 facing the input end of the transfer device 30, and is inclined in the direction approaching the laminated strip along the conveying direction of the laminated strip, i.e., in the conveying direction from left to right in Figures 6 and 7, while the peeling surface 311 of the upper guide frame 31 is inclined downward to the right. In this way, the film is peeled off with an inclination to the left along the conveying direction of the laminated strip, so that situations such as the film getting caught in the conveying roller 32 and tearing can be avoided.

[0036] In this embodiment, the transfer device 30 further includes a film winding reel 33, which is used to wind the film. That is, when used, the operator pre-peeles the end of the film and winds it onto the film winding reel 33 for collection. In this way, as the film winding reel 33 rotates, it is possible to drive the peeling of the film and the belt film, thereby enabling the peeled film to move along the peeling surface 311 and simultaneously collecting the film.

[0037] In this embodiment, in order to ensure the stability of the conveyance of the laminated strip by the transfer device 30, a plurality of guide frames 31 are installed, and each guide frame 31 is arranged along the conveyance direction of the laminated strip. At least one of all guide frames 31 is provided with a peeling surface 311, preferably the guide frame 31 at the film peeling location is provided with a peeling surface 311, and the other guide frames 31 do not need to have a peeling surface 311, or all guide frames 31 may have a peeling surface 311 to ensure uniformity of processing.

[0038] In this embodiment, there are also multiple transport rollers 32, and at least two of the transport rollers 32 are installed facing each other vertically with a gap between them, and the laminated strip is located in the gap between the vertically installed transport rollers. In this embodiment, the transport rollers 32 are arranged in pairs of two, and the two transport rollers 32 are installed aligned vertically, so that the laminated strip is held and stabilized, and the laminated strip can be transported as the transport rollers 32 rotate. With the above installation method of the transport rollers 32, the guide frame 31 is located on the transport rollers 32, or more precisely, the guide frame 31 is located on the input side of the mounting frame on which the transport rollers 32 are arranged, so that the peeled film can be immediately guided by the peeling surface 311 and separated from the laminated strip, thereby ensuring the peeling effect. Of course, the specific installation method of the guide frame 31 and the transport rollers 32 is not limited to the above method in this embodiment, and other installation configurations can be adopted.

[0039] As shown in Figure 9, in this embodiment, the cutting device 40 includes a frame body 41, a cutting and conveying mechanism 42, a cutting mechanism 43, and a material collection mechanism 44. Here, the frame body 41 is the support part, the cutting mechanism 43 is attached to and connected to the frame body 41, and the cutting and conveying mechanism 42 is attached to the base 10 and docked to the transfer device 30, and is used to convey the laminated strips conveyed by the transfer device 30 to the cutting and conveying mechanism 42, thereby allowing the laminated strips to be processed by the cutting mechanism 43. The frame body 41 includes a plurality of crossbeams and a plurality of longitudinal beams, the crossbeams and longitudinal beams being connected to each other to form a frame structure, and parts such as the cutting and conveying mechanism 42, the cutting mechanism 43, and the material collection mechanism 44 are all housed within the frame structure. At least a portion of the cutting mechanism 43 is movably mounted on the crossbeams and moves along the extending direction of the crossbeams, so that the cutting mechanism 43 is more stable and can achieve high-speed operation to improve processing efficiency. The cutting mechanism 43 is located above the cutting and transporting mechanism 42 and can cut the laminated strips on the cutting and transporting mechanism 42. The material collection mechanism 44 is installed to be movable laterally and is located in the next step after the cutting and transporting mechanism 42, so that after the cutting mechanism 43 cuts the laminated strips, it transports the cut tags to the material collection mechanism 44.

[0040] In this embodiment, one cutting and conveying mechanism 42, two material collection mechanisms 44, and two cutting mechanisms 43 are installed, thereby improving efficiency. Here, the two cutting mechanisms 43 are located above the cutting and conveying mechanism 42 and spaced apart laterally, the cutting and conveying mechanism 42 is located below the space between them, and the two material collection mechanisms 44 are located on both sides of the cutting and conveying mechanism 42, thereby enabling simultaneous cutting operations corresponding to the two cutting mechanisms 43. The operation process is as follows: The two cutting mechanisms 43 move simultaneously, cutting tags on the conveying line of the intermediate cutting and conveying mechanism 42 and placing them on the attachment reference plate platforms of the material collection mechanisms 44 on both sides, after which the cut tags are collected and wound up by the subsequent material collection device 50.

[0041] The cutting and transport mechanism 42 of this embodiment includes parts such as a vision camera, an attachment reference plate, a transport belt, a transport belt motor, a tag positioning sensor, and a tension wheel. Its role is to drive the belt with the transport belt motor and transport the electronic tags on the transport belt to a predetermined position. In this process, the vision camera identifies and positions the electronic tags, and the positioned electronic tags may be cut by the cutting mechanism 43 and placed on the attachment reference plate of the mechanism.

[0042] The material collection mechanism 44 in this embodiment includes parts such as a lateral movement guide rail, a tag positioning sensor, an attachment reference plate, and a tension wheel. Its main role is for the cutting mechanism 43 to cut the tags and place them on the attachment reference plate of the mechanism.

[0043] As shown in Figure 10, the cutting mechanism 43 of this embodiment includes parts such as a cutting matrix 431, a cutting drive member 432, and a lateral movement drive member 433. Here, the cutting matrix 431 is the main body and is movably installed on a crossbeam, and can move along the longitudinal direction of the crossbeam. Since the longitudinal direction of the crossbeam is the same as the arrangement direction of the cutting transport mechanism 42 and the material collection mechanism 44, the cutting mechanism 43 can switch positions between the cutting transport mechanism 42 and the material collection mechanism 44 as it moves along the longitudinal direction of the crossbeam. The cutting drive member 432 can employ a component such as a cylinder and is installed at the bottom end of the cutting matrix 431. It moves synchronously with the cutting matrix 431, and a cutting head for cutting laminated strips is located at the bottom end of the cutting drive member 432, thereby enabling the cutting of laminated strips. The lateral movement drive member 433 can employ components such as an electric cylinder, is installed on a horizontal beam, and is driven and connected to the cutting matrix 431. This drives the cutting matrix 431 and the cutting drive member 432 to move laterally, sequentially placing the cut chips onto the isolation membrane of the attachment reference plate.

[0044] As shown in Figures 1 and 2, in this embodiment, the base 10 includes a base body 11 and a protective cover 12. The base 11 is the main part, and the stacking device 20, transfer device 30, cutting device 40, and material collection device 50 are installed on the base body 11. The protective cover 12 covers the base body 11, and naturally, the protective cover 12 covers the outside of the stacking device 20, transfer device 30, and cutting device 40, thereby integrating the entire equipment as a single unit.

[0045] In this embodiment, the material collection device 50 does not always keep the material inside the protective cover 12 because it is necessary to remove the material roll when the amount of material collected reaches a certain level. Specifically, there is an openable and closable safety door 121 at the end of the protective cover 12, i.e., the end along the conveying direction of the laminated strip. The safety door 121 is located on the material collection device 50, which is installed to be reversible and can collect, wind up, and transport the tags cut in the previous process to the outside of the equipment. Thus, when material collection is performed normally, the safety door 121 is closed and the material collection device 50 remains inside the protective cover 12 without reversing. When it operates normally, it winds up the isolation film on which the tabs are placed into a roll. When the amount of collected material reaches a certain amount, the safety door 121 opens, and at this time the material collection device 50 operates and reverses to the outside of the protective cover 12, thereby allowing the material roll of the material collection device 50 to be removed. In this way, after manufacturing is complete, the material is automatically transported to the outside of the equipment, significantly reducing the frequent opening and closing of the device door and the manual operation time when the worker takes out the material, improving the safety of the worker's operation and the intelligence of the equipment.

[0046] In this embodiment, a fixed base is installed on the base 10, a fixed shaft is attached to the fixed base, and the material collection device 50 rotates around the fixed shaft. As shown in Figure 11, the material collection device 50 includes a material collection matrix 51, a reversing drive member 52, a material collection hub 53, and a material collection drive member 54, where the material collection matrix 51 is the main body, and the fixed shaft is installed passing through the material collection matrix 51, thereby rotatably mounting the material collection matrix 51 on the fixed shaft. The reversing drive member 52 can be a member such as a cylinder, with one end fixed to the base 10 and the other end connected to the reversing shaft on the material collection matrix 51. In this way, when the reversing drive member 52 operates, it pushes the reversing shaft, thereby operating the material collection matrix 51 and achieving the effect of reversing the material collection matrix 51. The material collection hub 53 is rotatably mounted on the material collection matrix 51 and is used to collect material rolls. In this embodiment, the material collection hub 53 is located at the upper end of the material collection matrix 51, and the fixed shaft is located at the bottom end of the material collection matrix 51. Thus, when the material collection matrix 51 is inverted, the material collection hub 53 located at the upper end can extend outside the protective cover 12, thereby enabling material discharge by an operator or subsequent equipment. The material collection drive member 54 may be a motor or other component, and is driven and connected to the material collection hub 53, driving the material collection hub 53 to rotate, thereby enabling rotation of the material collection hub 53 and material collection.

[0047] In the above examples, "multiple" means at least two.

[0048] From the above description, it can be seen that the above embodiment of this application achieves the following technical effects: 1. To solve the problem that conventional electronic tag stacking and cutting equipment cannot achieve efficient processing, 2. Since the material can be manually supplied on the same side of the lamination device, there is no need to switch positions between the two sides, thereby simplifying material supply, significantly improving material supply efficiency, and thus improving processing efficiency. 3. By preventing the film from being continuously dragged forward by the conveyor rollers, getting caught in the rollers, tearing, and even rupturing, continuous film collection becomes possible, the time required for manual film winding is reduced, and the effect of improving processing efficiency is achieved. 4. By optimizing the RFID electronic tag stacking and cutting integrated equipment, the RFID electronic tag stacking and cutting integrated equipment can achieve continuous and efficient processing, thereby improving processing efficiency. 5. The RFID electronic tag stacking and cutting integrated machine can perform both stacking and cutting operations, and compared to two separate machines, it can meet processing needs while reducing the overall cost of the machine. 6. The equipment automatically transports the material outside the machine after manufacturing is complete, significantly reducing the frequent opening and closing of the machine door and the time required for manual operation when workers retrieve the material, thereby improving worker safety and the intelligence of the equipment.

[0049] Clearly, the embodiments described above are only a part of the embodiments of this application, not all of them. All other embodiments that can be obtained by a person skilled in the art without creative work based on the embodiments of this application should fall within the scope of protection of this application.

[0050] The embodiments described above are merely preferred embodiments of this application and are not intended to limit it. To those skilled in the art, this application is subject to various modifications and changes. All modifications, equivalent substitutions, and improvements made within the spirit and principles of this application should be included within the scope of protection. [Explanation of Symbols]

[0051] Here, the above drawings include the following reference numerals: 10: Bass, 11: Base body, 12: Protective cover, 121: Safety door, 20: Lamination equipment, 21: Stand board, 22: Chip supply mechanism, 23: Rubber material supply mechanism, 24: Rotating mechanism, 241: Frame, 242: Rotating swing arm, 243: Rotary drive member, 244: Material extraction drive member, 25: Stacking mechanism, 30: Transition device, 31: Guide frame, 311: Peeling surface, 32: Conveyor roller, 33: Film take-up reel, 40: Cutting device, 41: Frame body, 42: Cutting and conveying mechanism, 43: Cutting mechanism, 431: Cutting matrix, 432: Cutting drive member, 433: Lateral movement drive member, 44: Material collection mechanism, 50: Material collection device, 51: Material collection matrix, 52: Reversing drive member, 53: Material collection hub, 54: Material collection drive component.

Claims

1. An integrated RFID electronic tag stacking and cutting device, comprising a base (10), a stacking device (20) installed on the base (10) and sequentially connected according to the processing order, wherein, The lamination apparatus (20) can laminate chips and rubber material to form a tagged laminated strip, and the lamination apparatus (20) includes a stand plate (21), a chip supply mechanism (22), and a rubber material supply mechanism (23), the chip supply mechanism (22) and the rubber material supply mechanism (23) are attached to the stand plate (21). The cutting device (40) is capable of cutting laminated strips, and the cutting device (40) is characterized by including a frame body (41), a cutting and transporting mechanism (42), a cutting mechanism (43), and a material collection mechanism (44) in an integrated RFID electronic tag lamination and cutting device.

2. The stacking apparatus (20) further includes a rotating mechanism (24), and the rotating mechanism (24) A frame (241), the frame (241) includes sequentially connected vertical segments and horizontal segments, the vertical segments being erected on the base (10), and the horizontal segments extending laterally and connected to the upper end of the vertical segments of the frame (241), A rotating swing arm (242) is installed so as to rotatably penetrate the lateral segment and is located above the chip supply mechanism (22) and the rubber material supply mechanism (23), A rotary drive member (243) is connected to the frame (241) and is driven to the rotary swing arm (242) to drive the rotary swing arm (242) and rotate it. The RFID electronic tag stacking and cutting integrated apparatus according to claim 1, characterized in that it includes a material extraction drive member (244), the material extraction drive member (244) being installed on the rotating swing arm (242), rotating in accordance with the rotating swing arm (242), and having a material extraction head at the bottom end of the material extraction drive member (244) for extracting material.

3. The RFID electronic tag stacking and cutting integrated device according to claim 1, wherein the stacking device (20) further includes a stacking mechanism (25), the stacking mechanism (25) is installed in the rubber material supply mechanism (23), and is capable of stacking chips transported to the rubber material supply mechanism (23) with rubber material.

4. The RFID electronic tag stacking and cutting integrated device further includes a transfer device (30), the transfer device (30) includes a guide frame (31) and a transport roller (32), the guide frame (31) having a peeling surface (311), and the transfer device (30) can peel off the film on the surface of a stacked strip in which chips and rubber material are stacked, wherein the peeling surface (311) is located on the side of the guide frame (31) facing the input end of the transfer device (30), and the peeling surface (311) is inclined toward the stacked strip along the transport direction of the stacked strip, characterized in that the RFID electronic tag stacking and cutting integrated device according to claim 3.

5. The RFID electronic tag stacking and cutting integrated device according to claim 4, wherein the transfer device (30) further includes a film take-up reel (33), the film being wound onto the film take-up reel (33) and collected, and moving along the peeling surface (311) by the drive of the film take-up reel (33).

6. The RFID electronic tag lamination and cutting integrated device according to claim 4, characterized in that there are multiple guide frames (31), at least one of the guide frames (31) is provided with the peeling surface (311), there are multiple transport rollers (32), at least two of the transport rollers (32) are installed facing each other vertically with a gap between them, the laminated strip is located in the gap between the vertically installed transport rollers (32), and the guide frame (31) is located on the transport rollers (32).

7. The RFID electronic tag stacking and cutting integrated device according to claim 1, wherein the frame body (41) includes a plurality of crossbeams and a plurality of vertical beams, the crossbeams and vertical beams form a frame structure, the cutting and transporting mechanism (42) is located on the output side of the stacking device (20), the stacked strips after stacking are transported to the cutting and transporting mechanism (42) and cut, at least a part of the cutting mechanism (43) is movably installed on the crossbeam and moves along the extending direction of the crossbeam, the cutting mechanism (43) is located above the cutting and transporting mechanism (42) and can cut the stacked strips on the cutting and transporting mechanism (42), the material collection mechanism (44) is installed movably in the lateral direction and is located in the next step after the cutting and transporting mechanism (42), and after the cutting mechanism (43) cuts the stacked strips, the cut tabs are transported to the material collection mechanism (44).

8. The cutting mechanism (43) is A cutting matrix (431), wherein the cutting matrix (431) is movably installed on the crossbeam, A cutting drive member (432), wherein the cutting drive member (432) is installed at the bottom end of the cutting matrix (431), and the bottom end of the cutting drive member (432) has a cutting head for cutting the laminated strip, The RFID electronic tag stacking and cutting integrated device according to claim 7, characterized in that a lateral movement drive member (433) is installed on the crossbeam, is driven and connected to the cutting matrix (431), and drives the cutting matrix (431) and the cutting drive member (432) to move in the lateral direction.

9. The RFID electronic tag stacking and cutting integrated device further includes a material collection device (50), the base (10) includes a base body (11) and a protective cover (12), the stacking device (20), the cutting device (40) and the material collection device (50) are installed on the base body (11), and the protective cover (12) covers the base (11) and covers the outside of the stacking device (20) and the cutting device (40), as described in claim 1.

10. The RFID electronic tag stacking and cutting integrated device according to claim 9, characterized in that the protective cover (12) has an openable and closable safety door (121), the safety door (121) is located on the material collection device (50), the material collection device (50) can collect, wind up, and transport tags cut in a previous step to the outside of the device, the material collection device (50) is installed to be reversible, and when the safety door (121) is opened, the material collection device (50) reverses to the outside of the protective cover (12).

11. The base (10) further includes a fixed shaft, and the material collection device (50) is A material collection matrix (51), wherein the material collection matrix (51) is rotatably mounted on the fixed axis, A reversal drive member (52) is connected to the material collection matrix (51) and drives the material collection matrix (51) to reverse it. A material collection hub (53) is rotatably mounted on the material collection matrix (51), and when the material collection matrix (51) is inverted, the material collection hub (53) extends outside the protective cover (12), The RFID electronic tag stacking and cutting integrated device according to claim 10, characterized in that it includes a material collection drive member (54), the material collection drive member (54) being driven and connected to the material collection hub (53), and driving the material collection hub (53) to rotate.

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