Clothing hang tag production and processing equipment
By integrating the base assembly, material transfer guide rail, and flipping actuator, automated double-sided labeling of clothing hang tags is achieved, solving the problems of low efficiency and labeling position deviation in existing equipment, and improving production efficiency and equipment intelligence.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- SHISHI XINGGANG PLASTIC PACKAGING
- Filing Date
- 2025-04-30
- Publication Date
- 2026-05-12
AI Technical Summary
Existing garment hangtag production and processing equipment has insufficient single-sided labeling function, making it difficult to meet diverse production needs. It requires secondary manual operation, resulting in low efficiency, labeling position deviation, high scrap rate, and difficulty in adapting to flexible production of small batches and multiple varieties.
The system employs a base assembly, a material transfer guide rail mechanism, a flipping actuator, and a central control unit to achieve automated flipping and double-sided labeling of hang tags. The motor-driven eccentric shaft and power transmission rod of the flipping actuator ensure precise flipping and transfer of hang tags. The integrated guide roller assembly and finished product collection mechanism achieve full-process automation.
It improves the efficiency and quality of double-sided labeling, reduces the intensity of manual operation and error rate, meets diversified production needs, and enhances the automation level and production efficiency of equipment.
Smart Images
Figure CN224225511U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the technical field of hang tag processing equipment, and in particular to a garment hang tag production and processing equipment. Background Technology
[0002] The current garment hangtag manufacturing industry generally suffers from low production efficiency and insufficient labeling accuracy. Traditional production equipment mostly relies on manual or semi-automatic operation, making it difficult to achieve efficient and stable double-sided labeling, especially when handling ultra-thin materials and smart labels. Existing technologies suffer from positioning deviations in the flipping mechanism, making it difficult to accurately align the label positions on the front and back; the transmission system lacks effective guiding control, easily causing label misalignment; and the equipment's level of intelligence is insufficient, failing to quickly adapt to the production needs of products with different specifications. These problems severely restrict the production efficiency and product quality of garment enterprises, urgently requiring the development of a label production equipment that can achieve high precision, high efficiency, and intelligent control functions to meet the increasingly sophisticated label processing requirements of the modern garment industry.
[0003] Existing garment hangtag production and processing equipment has many shortcomings in practical applications. Some equipment only has single-sided labeling capabilities, which is insufficient to meet diverse production needs. To achieve double-sided labeling, manual secondary operation is required, which is not only inefficient but also prone to quality problems such as label placement deviations, leading to increased scrap rates and production costs. Furthermore, it is difficult to adapt to the trend of flexible production of small batches and multiple varieties. To address these issues, we propose a garment hangtag production and processing equipment. Utility Model Content
[0004] The purpose of this section is to outline some aspects of embodiments of the present invention and to briefly describe some preferred embodiments. Simplifications or omissions may be made in this section, as well as in the abstract and title of the present invention, to avoid obscuring the purpose of these documents, and such simplifications or omissions should not be construed as limiting the scope of the present invention.
[0005] Therefore, the purpose of this utility model is to provide a garment hangtag production and processing equipment that can solve many shortcomings of existing garment hangtag production and processing equipment in practical applications. Some equipment only has single-sided labeling function, which is difficult to meet diverse production needs. To achieve double-sided labeling, manual secondary operation is required, which is not only inefficient but also prone to quality problems such as labeling position deviation, leading to increased scrap rate and production costs. Furthermore, it is difficult to adapt to the trend of flexible production of small batches and multiple varieties.
[0006] To solve the above-mentioned technical problems, this utility model provides a garment hangtag production and processing equipment, which adopts the following technical solution: it includes a base assembly, a material conveying guide rail mechanism is fixedly connected to the top of the base assembly, a raw material input mechanism is arranged on the left side of the material conveying guide rail mechanism, and a first label attaching device and a second label attaching device are arranged side by side on the front side. The material conveying guide rail mechanism includes a first conveyor belt assembly and a second conveyor belt assembly rotatably mounted thereon. The first conveyor belt assembly is located to the left of the second conveyor belt assembly, and a flipping execution mechanism for flipping the hangtag is arranged between the two. After the hangtag is labeled on the front by the first label attaching device, it is flipped by the flipping execution mechanism and then labeled on the back by the second label attaching device.
[0007] Optionally, the flipping actuator includes a first flipping component and a second flipping component arranged opposite to each other. The first flipping component and the second flipping component are connected between the first conveyor belt assembly and the second conveyor belt assembly through a pivot assembly. The top of the first flipping component and the second flipping component are provided with positioning bosses for defining the position of the tag, and the bottom ends are respectively fixedly connected with transmission linkage assemblies. Both are provided with motion avoidance grooves. The motion avoidance grooves ensure that the first flipping component and the second flipping component do not interfere with each other during the flipping process. The sides of the first flipping component and the second flipping component are respectively adapted and connected to the first conveyor belt assembly and the second conveyor belt assembly.
[0008] Optionally, a first drive motor is rotatably mounted below the first and second flipping components. A first eccentric transmission shaft is mounted on the output shaft of the first drive motor. A first power transmission rod is hinged to the end of the first eccentric transmission shaft. The first power transmission rod is movably connected to the transmission linkage assembly below the first flipping component for transmitting power. The first drive motor drives the first eccentric transmission shaft to rotate, and drives the first power transmission rod to switch the first flipping component between horizontal and vertical states.
[0009] Optionally, a second drive motor is fixedly installed on the opposite side of the first drive motor. A second eccentric transmission shaft is mounted on the output shaft of the second drive motor. A second power transmission rod is hinged to the end of the second eccentric transmission shaft. The second power transmission rod is movably connected to the transmission linkage assembly below the second tilting component for transmitting power. The second drive motor drives the second eccentric transmission shaft to rotate and drives the second power transmission rod to switch the second tilting component between horizontal and vertical states. The first eccentric transmission shaft and the second eccentric transmission shaft are coaxially arranged and operate independently.
[0010] Optionally, the hang tag with the front label applied by the first label application device is conveyed by the first conveyor belt assembly to the top of the first flipping member. The first drive motor and the second drive motor operate synchronously, driving the first flipping member and the second flipping member to flip 90° towards each other. After the first eccentric drive shaft and the second eccentric drive shaft complete one revolution, the first flipping member and the second flipping member are reset under the action of the first power transmission rod and the second power transmission rod. The width of the hang tag is greater than the width of the first flipping member and the second flipping member, so that when the second flipping member is reset, the second conveyor belt assembly can generate a driving force on the hang tag and convey the hang tag to the second label application device.
[0011] Optionally, a finished product collection mechanism is fixedly connected to the right side of the material conveying guide rail mechanism for collecting the tags that have been labeled on both sides. Several guide roller assemblies are arranged at intervals on the material conveying guide rail mechanism to limit the lateral displacement of the tags during the conveying process. A central control unit is fixedly connected to the right side of the second label bonding device. The central control unit is used to control the operating parameters of the first drive motor, the second drive motor, the first label bonding device, and the second label bonding device, and is equipped with a human-machine interface for inputting control commands.
[0012] In summary, this utility model has at least one of the following beneficial effects: 1. By installing a flipping actuator consisting of a first flipping component, a second flipping component, a drive motor, and a transmission assembly, the purpose of automatically flipping the hangtag is achieved. This mechanism drives an eccentric shaft via a motor, which in turn drives a power transmission rod and a transmission linkage assembly, enabling stable flipping and resetting of the two flipping components and precise control of the hangtag's posture changes. Compared to traditional manual flipping or single-sided labeling methods, it effectively avoids the problems of low efficiency and large labeling position deviations in manual operation, allowing the hangtag to enter the next labeling process at a precise angle, significantly improving the efficiency and quality of double-sided labeling, and ensuring the continuity and stability of the labeling process.
[0013] 2. By integrating the material transfer guide mechanism, finished product collection mechanism, guide roller assembly, and central control unit, a complete and intelligent labeling production system is constructed. The guide roller assembly ensures stable tag transfer and prevents deviation; the finished product collection mechanism enables automatic material collection, reducing manual intervention; and the central control unit allows for precise control of various equipment parameters through a human-machine interface. The entire system works collaboratively, not only improving the automation level of the equipment but also achieving full automation from raw material input and double-sided labeling to finished product collection. This effectively reduces the intensity of manual operation and error rate, significantly improves production efficiency, and meets diverse production needs. Attached Figure Description
[0014] To more clearly illustrate the technical solutions of the embodiments of this utility model, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.
[0015] Figure 1 This is a schematic diagram of the overall structure of this utility model;
[0016] Figure 2 This is a schematic diagram of the overall upper left structure of this utility model;
[0017] Figure 3 This is a partial structural schematic diagram of the present invention;
[0018] Figure 4 This is a schematic diagram of the operating state of the flipping actuator of this utility model.
[0019] Explanation of reference numerals in the attached diagram: 1. Base assembly;
[0020] 2. Material transfer guide rail mechanism; 21. First conveyor belt assembly; 22. Second conveyor belt assembly; 23. Guide roller assembly;
[0021] 3. Raw material feeding mechanism; 4. First label applying device; 5. Second label applying device;
[0022] 8. Tilting actuator; 81. First tilting component; 82. Second tilting component; 83. Pivot assembly; 84. Positioning boss; 85. Transmission link assembly; 86. Motion clearance groove; 87. First drive motor; 871. First eccentric drive shaft; 872. First power transmission rod; 88. Second drive motor; 881. Second eccentric drive shaft; 882. Second power transmission rod;
[0023] 9. Finished product collection mechanism; 91. Central control unit; 92. Human-machine interface. Detailed Implementation
[0024] The following is in conjunction with the appendix Figure 1-4 The present invention will be described in further detail below.
[0025] Example 1, refer to Figure 1-4In this embodiment, to address the numerous shortcomings of existing garment hang tag production and processing equipment in practical applications, this invention discloses a garment hang tag production and processing equipment. Some equipment only has single-sided labeling capabilities, making it difficult to meet diverse production needs. To achieve double-sided labeling, a second manual operation is required, which is not only inefficient but also prone to quality problems such as label placement deviations, leading to increased scrap rates and production costs. Furthermore, it struggles to adapt to the trend of flexible production with small batches and multiple varieties.
[0026] The system includes a base assembly 1, with a material transfer guide mechanism 2 fixedly connected to the top of the base assembly 1. A raw material input mechanism 3 is arranged on the left side of the material transfer guide mechanism 2, and a first label attaching device 4 and a second label attaching device 5 are arranged side by side on the front side. The material transfer guide mechanism 2 includes a first conveyor belt assembly 21 and a second conveyor belt assembly 22 rotatably mounted thereon. The first conveyor belt assembly 21 is located to the left of the second conveyor belt assembly 22, and a flipping actuator 8 for flipping the hangtag is arranged between the two. The hangtag, after being labeled on the front by the first label attaching device 4, is flipped by the flipping actuator. After flipping, the second label application device 5 performs the back labeling operation. By installing the base assembly 1, material transfer guide mechanism 2, raw material input mechanism 3, first label application device 4, second label application device 5, first conveyor belt assembly 21, second conveyor belt assembly 22, and flipping execution mechanism 8, the goal of constructing a complete double-sided labeling process is achieved. This realizes automated double-sided labeling operation for clothing hang tags, reduces manual intervention, improves labeling efficiency and accuracy, and reduces problems such as labeling position deviation and high scrap rate caused by secondary manual operation, effectively meeting diversified production needs.
[0027] The flipping actuator 8 includes a first flipping member 81 and a second flipping member 82 arranged opposite to each other. The first flipping member 81 and the second flipping member 82 are connected between the first conveyor belt assembly 21 and the second conveyor belt assembly 22 via a pivot assembly 83. Both the first flipping member 81 and the second flipping member 82 have a positioning boss 84 at their top ends to define the position of the hangtag, and transmission connecting rod assemblies 85 are fixedly connected to their bottom ends. Both are provided with motion clearance grooves 86, which prevent the first flipping member 81 and the second flipping member 82 from interfering with each other during the flipping process. The sides of the first flipping member 81 and the second flipping member 82 are respectively connected to the first conveyor belt assembly 21 and the second conveyor belt assembly 22. The conveyor belt assembly 22 is adapted and connected. By installing the flipping actuator 8, which consists of a first flipping component 81, a second flipping component 82, a pivot assembly 83, a positioning boss 84, a transmission linkage assembly 85, and a motion avoidance groove 86, the flipping action of the hang tag is precisely controlled. This achieves stable flipping of the hang tag between the first conveyor belt assembly 21 and the second conveyor belt assembly 22, preventing the hang tag from shifting or slipping during the flipping process. At the same time, the motion avoidance groove 86 prevents the two flipping components from interfering with each other, ensuring that the hang tag can be accurately flipped to the specified angle. This provides a reliable foundation for the subsequent back labeling operation of the second labeling device 5, effectively improving the continuity and stability of the double-sided labeling process.
[0028] A first drive motor 87 is rotatably mounted below the first flipping member 81 and the second flipping member 82. A first eccentric transmission shaft 871 is mounted on the output shaft of the first drive motor 87. A first power transmission rod 872 is hinged to the end of the first eccentric transmission shaft 871. The first power transmission rod 872 is movably connected to the transmission linkage assembly 85 below the first flipping member 81 for transmitting power. The first drive motor 87 drives the first eccentric transmission shaft 871 to rotate, and drives the first power transmission rod 872 to switch the first flipping member 81 between horizontal and vertical states. 1. A first drive motor 87, a first eccentric transmission shaft 871, a first power transmission rod 872, and other transmission components are installed below the second flipping component 82. The first power transmission rod 872 is movably connected to the transmission linkage assembly 85, which achieves the purpose of precisely driving the movement of the first flipping component 81. This enables the first flipping component 81 to stably and efficiently switch between horizontal and vertical states, ensuring that the hangtag moves accurately and responds quickly during the flipping process. This provides reliable power transmission and flipping execution effect for the double-sided labeling process of clothing hangtags, effectively improving the automation level and production efficiency of the equipment.
[0029] A second drive motor 88 is fixedly mounted on the opposite side of the first drive motor 87. A second eccentric drive shaft 881 is mounted on the output shaft of the second drive motor 88. A second power transmission rod 882 is hinged to the end of the second eccentric drive shaft 881. The second power transmission rod 882 is movably connected to the transmission linkage assembly 85 below the second tilting member 82 for transmitting power. The second drive motor 88 drives the second eccentric drive shaft 881 to rotate, and drives the second power transmission rod 882 to switch the second tilting member 82 between horizontal and vertical states. The first eccentric drive shaft 871 and the second eccentric drive shaft 881 are coaxially arranged and operate independently. A second drive motor 88 is fixedly installed on the opposite side of motor 87, and is respectively configured with a second eccentric drive shaft 881, a second power transmission rod 882 and a transmission linkage assembly 85 of the second flipping component 82. At the same time, the first eccentric drive shaft 871 and the second eccentric drive shaft 881 are coaxial and operate independently, achieving the purpose of synchronously and accurately driving the first and second flipping components 82. This realizes the coordinated and stable conversion between the two flipping components in the horizontal and vertical states, ensuring that the hang tag is subjected to uniform force and has a stable posture during the flipping process. It effectively avoids problems such as hang tag offset and falling due to asynchronous flipping, and greatly improves the continuity and reliability of the double-sided labeling process.
[0030] After the hangtag is labeled on the front by the first label-applying device 4, it is conveyed by the first conveyor belt assembly 21 to the top of the first flipping member 81. The first drive motor 87 and the second drive motor 88 operate synchronously, driving the first flipping member 81 and the second flipping member 82 to flip 90° towards each other. After the first eccentric drive shaft 871 and the second eccentric drive shaft 881 complete one revolution, the first flipping member 81 and the second flipping member 82 return to their original positions under the action of the first power transmission rod 872 and the second power transmission rod 882. The width of the hangtag is greater than the width of the first flipping member 81 and the second flipping member 82, so that when the second flipping member 82 returns to its original position, the second conveyor belt assembly 22 can... The system generates a driving force on the hangtag, transporting it to the second label application device 5. The first drive motor 87 and the second drive motor 88 operate synchronously, driving the first and second flipping components 82 to flip 90° towards each other. After the eccentric drive shaft rotates, the components reset. Simultaneously, by utilizing the width difference between the hangtag and the flipping components, the second conveyor belt assembly 22 can drive the hangtag to move when the second flipping component 82 resets. This achieves the purpose of automating the flipping and transfer of the hangtag, realizing continuous operation of labeling clothing hangtags from the front to the back, avoiding efficiency losses and positional deviations caused by manual intervention, effectively improving the smoothness and production efficiency of the double-sided labeling process, and reducing the scrap rate.
[0031] A finished product collection mechanism 9 is fixedly connected to the right side of the material transfer guide rail mechanism 2. This mechanism collects tags that have been double-sided labeled. Several guide roller assemblies 23 are spaced apart on the material transfer guide rail mechanism 2 to limit the lateral displacement of the tags during transport. A central control unit 91 is fixedly connected to the right side of the second label attaching device 5. The central control unit 91 controls the operating parameters of the first drive motor 87, the second drive motor 88, the first label attaching device 4, and the second label attaching device 5. It also features a human-machine interface 92 for inputting control commands. The finished product collection mechanism 9 is equipped with guide roller assemblies 23 arranged at intervals, and a central control unit 91 and a human-machine interface 92 are configured on the right side of the second label application device 5. This achieves the purpose of optimizing the tag processing flow, ensuring operational accuracy and convenient control, realizing the automatic collection and sorting of tags after double-sided labeling, effectively limiting the lateral offset of tags during transmission, and ensuring accurate labeling position. At the same time, operators can flexibly input commands through the human-machine interface, and the central control unit 91 can precisely control the operating parameters of each device, significantly improving the automation level and production flexibility of the equipment, and reducing the intensity of manual operation and error rate.
[0032] Operating principle of the flipping mechanism: After the hangtag with front-side labeling is completed by the first label-applying device 4, it is conveyed by the first conveyor belt assembly 21 to the top of the first flipping member 81. At this time, the first drive motor 87 and the second drive motor 88 operate synchronously. The first eccentric transmission shaft 871 on the output shaft of the first drive motor 87 rotates, transmitting power to the transmission linkage assembly 85 below the first flipping member 81 through the hinged first power transmission rod 872, driving the first flipping member 81 to change from a horizontal to a vertical state. Simultaneously, the second eccentric transmission shaft 881 on the output shaft of the second drive motor 88 rotates synchronously, cooperating with the transmission linkage assembly 85 of the second flipping member 82 through the second power transmission rod 882, causing the second flipping member 82 to flip in opposite directions. Together, they cause the hangtag to complete a 90° flip. After the first eccentric transmission shaft 871 and the second eccentric transmission shaft 881 complete one revolution, the first flipping member 81 and the second flipping member 82 reset under the action of the first power transmission rod 872 and the second power transmission rod 882. Since the width of the hang tag is greater than the width of the first and second flipping components 82, when the second flipping component 82 is reset, the second conveyor belt assembly 22 can contact the hang tag and generate driving force to transport the hang tag to the second label attaching device 5 for back labeling, thereby realizing the double-sided labeling process of the hang tag.
[0033] The specific working principle is as follows: By installing a flipping actuator 8 consisting of a first flipping component 81, a second flipping component 82, a drive motor, and a transmission assembly, the purpose of automatically flipping the hangtag is achieved. This mechanism drives an eccentric shaft via a motor, which in turn drives a power transmission rod and a transmission linkage assembly 85, enabling stable flipping and resetting of the two flipping components and precise control of the hangtag's posture. Compared to traditional manual flipping or single-sided labeling methods, this effectively avoids the problems of low efficiency and large labeling position deviations caused by manual operation, allowing the hangtag to enter the next labeling process at a precise angle, significantly improving the efficiency and quality of double-sided labeling, and ensuring the continuity and stability of the labeling process. By integrating a material conveying guide rail mechanism 2, a finished product collection mechanism 9, a guide roller assembly 23, and a central control unit 91, a complete and intelligent labeling production system is constructed. The guide roller assembly 23 ensures stable hangtag transmission and avoids deviation; the finished product collection mechanism 9 achieves automatic material collection, reducing manual intervention; and the central control unit 91 enables precise control of various equipment parameters through a human-machine interface. The entire system works in tandem, which not only improves the level of equipment automation, but also realizes full-process automation from raw material input and double-sided labeling to finished product collection. This effectively reduces the intensity of manual operation and error rate, greatly improves production efficiency, and meets diverse production needs.
[0034] The wiring diagrams of the first drive motor 87 and the second drive motor 88 in this utility model are common knowledge in the field. Their working principle is a well-known technology. The appropriate model is selected according to the actual use. Therefore, the control method and wiring arrangement of the first drive motor 87 and the second drive motor 88 will not be explained in detail.
[0035] The above are all preferred embodiments of this utility model, and are not intended to limit the scope of protection of this utility model. Therefore, all equivalent changes made to the structure, shape and principle of this utility model should be covered within the scope of protection of this utility model.
Claims
1. A garment hangtag production and processing equipment, comprising a base assembly (1), characterized in that: The base assembly (1) is fixedly connected to the top of the material transfer guide rail mechanism (2). The material transfer guide rail mechanism (2) is provided with a raw material input mechanism (3) on the left side and a first label attaching device (4) and a second label attaching device (5) are arranged side by side on the front side. The material transfer guide rail mechanism (2) includes a first conveyor belt assembly (21) and a second conveyor belt assembly (22) rotatably mounted on it. The first conveyor belt assembly (21) is located to the left of the second conveyor belt assembly (22). A flipping execution mechanism (8) for flipping the hang tag is provided between the two. The hang tag with the front label is completed by the first label attaching device (4). After being flipped by the flipping execution mechanism (8), the second label attaching device (5) performs the back labeling operation.
2. The garment hangtag / label production and processing equipment according to claim 1, characterized in that: The flipping actuator (8) includes a first flipping component (81) and a second flipping component (82) arranged opposite to each other. The first flipping component (81) and the second flipping component (82) are connected between the first conveyor belt assembly (21) and the second conveyor belt assembly (22) through a pivot assembly (83). The top of the first flipping component (81) and the second flipping component (82) are provided with positioning bosses (84) for limiting the position of the tag. The bottom ends are respectively fixedly connected with transmission linkage assemblies (85) and are respectively provided with motion avoidance grooves (86). The motion avoidance grooves (86) make the first flipping component (81) and the second flipping component (82) not interfere with each other during the flipping process. The sides of the first flipping component (81) and the second flipping component (82) are respectively adapted and connected to the first conveyor belt assembly (21) and the second conveyor belt assembly (22).
3. The garment hangtag / label production and processing equipment according to claim 2, characterized in that: A first drive motor (87) is rotatably mounted below the first flipping member (81) and the second flipping member (82). A first eccentric transmission shaft (871) is mounted on the output shaft of the first drive motor (87). A first power transmission rod (872) is hinged to the end of the first eccentric transmission shaft (871). The first power transmission rod (872) is movably connected to the transmission linkage assembly (85) below the first flipping member (81) for transmitting power. The first drive motor (87) drives the first eccentric transmission shaft (871) to rotate and drives the first power transmission rod (872) to make the first flipping member (81) switch between horizontal and vertical states.
4. The garment hangtag / label production and processing equipment according to claim 3, characterized in that: A second drive motor (88) is fixedly installed on the opposite side of the first drive motor (87). A second eccentric drive shaft (881) is mounted on the output shaft of the second drive motor (88). A second power transmission rod (882) is hinged to the end of the second eccentric drive shaft (881). The second power transmission rod (882) is movably connected to the transmission linkage assembly (85) below the second flipping member (82) for transmitting power. The second drive motor (88) drives the second eccentric drive shaft (881) to rotate and drives the second power transmission rod (882) to make the second flipping member (82) switch between horizontal and vertical states. The first eccentric drive shaft (871) and the second eccentric drive shaft (881) are coaxially arranged and operate independently.
5. The garment hangtag / label production and processing equipment according to claim 4, characterized in that: After the tag with front labeling is completed by the first label application device (4), it is transported by the first conveyor belt assembly (21) to the top of the first flipping member (81). The first drive motor (87) and the second drive motor (88) operate synchronously, driving the first flipping member (81) and the second flipping member (82) to flip 90° towards each other. After the first eccentric drive shaft (871) and the second eccentric drive shaft (881) complete one revolution, the first flipping member (81) and the second flipping member (82) are reset under the action of the first power transmission rod (872) and the second power transmission rod (882). The width of the tag is greater than the width of the first flipping member (81) and the second flipping member (82), so that when the second flipping member (82) is reset, the second conveyor belt assembly (22) can generate driving force on the tag and transport the tag to the second label application device (5).
6. The garment hangtag / label production and processing equipment according to claim 1, characterized in that: The material conveying guide rail mechanism (2) is fixedly connected to the right side of the finished product collection mechanism (9), which is used to collect the tags that have been labeled on both sides. Several guide roller assemblies (23) are arranged at intervals on the material conveying guide rail mechanism (2) to limit the lateral displacement of the tags during the transmission process. The second label attaching device (5) is fixedly connected to the right side of the central control unit (91). The central control unit (91) is used to control the operating parameters of the first drive motor (87), the second drive motor (88), the first label attaching device (4) and the second label attaching device (5), and is equipped with a human-machine interactive operation interface (92) for inputting control commands.