Full-automatic production equipment for zero-tension bandage

Abstract

The utility model discloses full-automatic production equipment for zero-tension bandages, which comprises a feeding and gluing mechanism, a tension control mechanism, a paper core feeding mechanism, a rewinding mechanism, a cutting mechanism and a discharging mechanism. The feeding and gluing mechanism is used for gluing raw materials to form adhesive bandages and conveying the adhesive bandages to the rewinding mechanism; the tension control mechanism is used for adjusting the tension of the adhesive bandage so that the previous section of adhesive bandage entering the rewinding mechanism can be kept in a zero-tension state, the rewinding mechanism comprises a rewinding shaft, the paper element feeding mechanism is used for moving a paper element onto the rewinding shaft, the rewinding shaft is used for rewinding the adhesive bandage on the paper element when rotating, and the rewinding shaft is used for winding the adhesive bandage on the paper element when rotating. The cutting mechanism is used for cutting off the adhesive bandage after rewinding is completed, and the discharging mechanism is used for taking down the paper core after rewinding is completed from the rewinding shaft. According to the equipment, the bandage can be glued and rewound into a finished product at a time, full automation of the technological process is achieved, and the problems that time and labor are wasted during bandage turnover are solved.

Description

Technical Field

[0001] This utility model relates to the field of rewinding technology, specifically to a fully automated production equipment for zero-tension bandages. Background Technology

[0002] The herringbone bandage is made of 100% cotton elastic fabric with good shrinkage properties; the base material has low breakage and high load-bearing capacity. The traditional process involves applying adhesive and then rewinding, followed by manual unwinding and secondary rewinding and cutting into finished products. In the market, adhesive application equipment and product forming equipment are often separate. Due to product limitations, the adhesive application and rewinding / cutting processes are not interconnected. Typically, glued products need to be transferred to a manual rewinding and cutting area, requiring repeated manual work. Utility Model Content

[0003] In order to overcome the shortcomings of the existing technology, this utility model provides a fully automatic production equipment for zero-tension bandages. This equipment can coat the bandage with glue and rewind it into a finished product in one go, and the process is fully automated, solving the problems of wasted time and manpower in bandage turnover.

[0004] The technical solution adopted by this utility model to solve its technical problem is:

[0005] A fully automated production line for zero-tension bandages includes a feeding and gluing mechanism, a tension control mechanism, a paper core feeding mechanism, a rewinding mechanism, a cutting mechanism, and a unloading mechanism. The feeding and gluing mechanism applies glue to the raw materials to form an adhesive bandage and conveys it to the rewinding mechanism. The tension control mechanism adjusts the tension of the adhesive bandage to maintain zero tension in the initial section before it enters the rewinding mechanism. The rewinding mechanism includes a rewinding shaft. The paper core feeding mechanism moves the paper core onto the rewinding shaft, and the rotating rewinding shaft rewinds the adhesive bandage onto the paper core. The cutting mechanism cuts the adhesive bandage after rewinding, and the unloading mechanism removes the rewound paper core from the rewinding shaft.

[0006] As a further improvement to the above technical solution, the feeding and coating mechanism includes an unwinding assembly, a coating assembly, and a power conveying roller assembly. The unwinding assembly is used to unwind the bandage raw material, the coating assembly is used to apply adhesive to the unwound bandage to form an adhesive bandage, and the power conveying roller assembly is used to provide traction force for conveying the adhesive bandage.

[0007] As a further improvement to the above technical solution, the feeding and coating mechanism also includes a cold air assembly, which is used to provide cold air to cool the adhesive surface of the bandage.

[0008] As a further improvement to the above technical solution, the feeding and gluing mechanism also includes a guide wheel assembly for guiding the bandage conveying path. The guide wheel assembly includes two guide wheels for guiding the bandage to convey horizontally, and the gluing assembly and the cooling air assembly are located between the two guide wheels.

[0009] As a further improvement to the above technical solution, the paper core feeding mechanism includes a hopper, a vibrating conveying guide trough, a transfer trough, and a feeding pusher. An inclined guide plate is provided on one side of the hopper, and the vibrating conveying guide trough is connected to the top outer side of the guide plate. A lifting plate is provided inside the hopper and is slidably connected to the guide plate. When the lifting plate moves upward, it is used to lift the paper core and drop it into the vibrating conveying guide trough. The discharge end of the vibrating conveying guide trough is connected to the inlet end of the transfer trough. The feeding pusher is used to push the paper core located at the discharge end of the transfer trough to be fitted onto the rewinding shaft.

[0010] As a further improvement to the above technical solution, the discharge end of the vibrating conveyor guide trough is provided with an air blowing port, which is used to blow the paper core into the transfer trough.

[0011] As a further improvement to the above technical solution, the rewinding shaft includes a turntable assembly, a rewinding assembly, and a sealing assembly. The turntable assembly includes a turntable and a turntable drive for driving the turntable to rotate. Multiple rewinding shafts are arranged around the turntable, and when the turntable rotates, it is used to rotate the rewinding shafts to the feeding position, the rewinding position, and the sealing and unloading position. The rewinding assembly includes a first rewinding drive and a second rewinding drive. The second rewinding drive is used to drive the rewinding shaft located at the rewinding position to rotate. The sealing assembly includes a first sealing drive and a second sealing drive. The first sealing drive is used to press the adhesive tape against the paper core on the rewinding shaft at the rewinding position, and the second sealing drive is used to drive the rewinding shaft located at the sealing and unloading position to rotate.

[0012] As a further improvement to the above technical solution, the cutting mechanism includes pneumatic scissors and a scissor translation component for driving the pneumatic scissors to move towards / away from the turntable. The pneumatic scissors are used to cut the adhesive bandage located between the rewinding position and the sealing and unloading position.

[0013] As a further improvement to the above technical solution, the feeding mechanism includes a paddle, a paddle cylinder, and a scraper cylinder. The paddle is connected to the output end of the paddle cylinder, and the paddle cylinder is connected to the output end of the scraper cylinder. The paddle cylinder is used to drive the paddle to move away from / near the rewinding shaft located at the material sealing position, and the scraper cylinder is used to drive the paddle to move along the length direction of the rewinding shaft.

[0014] As a further improvement to the above technical solution, the feeding mechanism also includes a guide rod and a feeding cylinder. The guide rod is connected to the output end of the feeding cylinder, and the feeding cylinder is used to drive the guide rod to rotate. When the guide rod rotates to a horizontal state, it is coaxial with the rewinding shaft. When the scraper cylinder drives the paddle to move, it can push the rewound paper core with adhesive tape onto the guide rod. The diameter of the guide rod is smaller than the inner diameter of the paper core.

[0015] The beneficial effects of this invention are as follows: the bandage raw materials are automatically coated and rewound through a feeding and gluing mechanism, a tension control mechanism, and a rewinding mechanism, and the bandage is rewound under zero tension, ensuring the quality of the finished bandage. The feeding of the paper core and the unloading of the finished product are achieved through a paper core feeding mechanism, a cutting mechanism, and an unloading mechanism, making the entire process fully automated and solving the problems of wasted time and manpower in bandage turnover. Attached Figure Description

[0016] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0017] Figure 1 This is an assembly diagram of a fully automated production equipment for zero-tension bandages according to an embodiment of this utility model;

[0018] Figure 2 This is a front view of the feeding and gluing mechanism in an embodiment of this utility model;

[0019] Figure 3 This is an isometric view of the feeding and gluing mechanism in an embodiment of this utility model;

[0020] Figure 4 This is a front view of the tension control mechanism in an embodiment of this utility model;

[0021] Figure 5 This is a front view of the rewinding mechanism in an embodiment of this utility model;

[0022] Figure 6 It is the axial side of the rewinding mechanism in the embodiment of this utility model. Figure 1 ;

[0023] Figure 7 It is the axial side of the rewinding mechanism in the embodiment of this utility model. Figure 2 ;

[0024] Figure 8 This is an isometric view of the cutting mechanism in an embodiment of this utility model;

[0025] Figure 9 This is an isometric view of the paper core feeding mechanism in an embodiment of this utility model;

[0026] Figure 10 This is a schematic diagram of the lifting plate structure of the paper core feeding mechanism in this embodiment of the utility model;

[0027] Figure 11 This is an isometric view of the feeding mechanism (with the guide rod in a horizontal state) in an embodiment of this utility model;

[0028] Figure 12 This is an isometric view of the feeding mechanism (with the guide rod in a vertical state) in an embodiment of this utility model.

[0029] Reference numerals: 1. Frame; 2. Feeding and gluing mechanism; 20. Feeding bracket; 21. Unwinding assembly; 22. Gluing head; 23. Cold air blower; 24. Guide wheel; 25. Power conveying roller; 26. Encoder; 3. Tension control mechanism; 30. Tension bracket; 31. Guide rail; 32. Slider; 33. Tension adjusting shaft; 34. Tension limit sensor; 35. Distance sensor; 4. Rewinding mechanism; 40. Rewinding bracket; 41. Turntable; 42. Rewinding shaft; 43. Second rewinding drive component; 431. Rewinding motor; 432. Drive pulley; 433. Driven pulley; 434. Rewinding double-sided synchronous belt; 435. Rewinding synchronous pulley; 44. Second sealing drive component; 45. 46. ​​Pressing cylinder; 47. Sealing cylinder; 48. Cutting sensor; 5. Turntable motor; 5. Cutting mechanism; 50. Cutting bracket; 52. Forward and backward moving cylinder; 52. Pneumatic shears; 6. Paper core feeding mechanism; 60. Feeding bracket; 61. Hopper; 62. First guide plate; 63. Second guide plate; 64. First lifting plate; 65. Second lifting plate; 66. Vibrating conveyor guide trough; 67. Air outlet; 68. Guide trough adjusting block; 69. Transfer trough; 610. Push block; 611. Push tube cylinder; 612. Lifting cylinder; 613. Connecting plate; 7. Unloading mechanism; 71. Paddle; 72. Paddle cylinder; 73. Scraper cylinder; 74. Unloading cylinder; 75. Guide rod;

[0030] A. Rewinding position; B. Sealing and unloading position; C. Loading position. Detailed Implementation

[0031] The following will clearly and completely describe the concept, specific structure, and technical effects of this utility model in conjunction with embodiments and accompanying drawings, so as to fully understand the purpose, features, and effects of this utility model. Obviously, the described embodiments are only a part of the embodiments of this utility model, not all of them. Other embodiments obtained by those skilled in the art based on the embodiments of this utility model without creative effort are all within the scope of protection of this utility model. Furthermore, all connections / connections involved in the patent do not simply refer to direct contact between components, but rather to the ability to form a better connection structure by adding or reducing connecting accessories according to specific implementation conditions. For example, fixed connections / fixed installations can use screw connections, bolt connections, pin connections, key connections, adhesive connections, mortise and tenon connections, welding, riveting, etc., as needed. For detachable connections, screw connections, bolt connections, threaded connections, snap-fit ​​connections, mortise and tenon connections, Velcro connections, etc., can be used as needed. The various technical features in this utility model can be combined interactively without contradicting each other.

[0032] Reference Figure 1 This utility model provides a fully automatic production equipment for zero-tension bandages, including a feeding and gluing mechanism 2, a tension control mechanism 3, a rewinding mechanism 4, a cutting mechanism 5, a paper core feeding mechanism 6, and a unloading mechanism 7. The raw material of the bandage is unwound through the feeding and gluing mechanism 2, which applies glue to the raw material to form an adhesive bandage and conveys it to the rewinding mechanism 4. During this process, the tension control mechanism 3 adjusts the tension of the adhesive bandage to keep the first section of the adhesive bandage entering the rewinding mechanism 4 in a zero-tension state. The paper core feeding mechanism 6 moves the paper core onto the rewinding shaft 42 of the rewinding mechanism 4, and the rewinding mechanism 4 rewinds the adhesive bandage onto the paper core. Then, the cutting mechanism 5 cuts the adhesive bandage after rewinding, and the unloading mechanism 7 removes the rewound paper core from the rewinding shaft 42 to obtain the finished product. As can be seen from the above, the equipment in this embodiment can coat the bandage with glue and rewind it into a finished product in one go, and the process is fully automated, solving the problems of wasted time and manpower during bandage turnover.

[0033] In this embodiment, refer to Figure 2 and Figure 3The feeding and gluing mechanism 2 includes a feeding bracket 20 and an unwinding assembly 21, a gluing assembly, a guide wheel assembly 24, and a power conveying roller assembly 25 mounted on the feeding bracket 20. The unwinding assembly 21 includes an unwinding shaft, on which the bandage raw material is unwound. The gluing assembly includes gluing heads 22. While the bandage is being unwound and conveyed, an even number of gluing heads 22 apply glue to the bandage to form an adhesive bandage. The start control of the gluing heads 22 is matched with the amount of glue applied and the feeding speed, and is fed back to the PLC by an encoder 26 for control. The power conveying roller assembly 25 includes multiple power conveying rollers 25, and the power conveying rollers 25 are non-adhesive rollers. When the multiple power conveying rollers 25 rotate, they provide traction to drive the conveying of the adhesive bandage. The guide wheel assembly 24 provides support and guidance for the conveying of the bandage.

[0034] Furthermore, the feeding and coating mechanism 2 also includes a cooling air assembly, which includes a cooling air nozzle 23. The cooling air nozzle 23 blows cold air onto the bandage to cool the adhesive surface of the bandage. Specifically, the guide wheel 24 assembly includes two horizontally arranged guide wheels 24. The bandage is conveyed horizontally between the two guide wheels 24. The coating head 22 and the cooling air nozzle 23 are located between the two guide wheels 24 to facilitate the coating and cooling processes.

[0035] In this embodiment, refer to Figure 4 The tension control mechanism 3 includes a tension bracket 30 and a linear guide rail 31, a tension limit sensor 34 and a distance sensor 35 mounted on the tension bracket 30. The linear guide rail 31 includes a slide rail and a slider 32. A tension adjustment shaft 33 is provided on the slider 32, and the adhesive bandage is located below the tension adjustment shaft 33.

[0036] When there is insufficient bandage, the distance sensor detects the distance to the bandage and sends a signal to the unwinding assembly 21 and the power conveying roller 25 assembly to accelerate the feeding speed. This ensures that the bandage remains suspended throughout the rewinding process, almost unaffected by external forces, achieving zero-tension rewinding. When the bandage cannot be wound up due to external force, it will tighten upwards, touching the tension adjusting shaft 33 and causing the slider 32 to move. This triggers the tension limit sensor, causing the rewinding machine to alarm and stop rewinding.

[0037] It is understood that zero tension in this utility model does not mean that the tension of the bandage is 0, but only that the bandage is in a suspended state.

[0038] In this embodiment, refer to Figures 5-7The rewinding mechanism 4 includes a rewinding bracket 40 and a turntable assembly, a rewinding assembly, and a sealing assembly mounted on the rewinding bracket 40. The turntable assembly includes a turntable 41 and a turntable drive for driving the turntable 41 to rotate. The turntable drive includes a turntable motor 48. Three rewinding shafts 42 are arranged around the turntable 41, and when the turntable 41 rotates, it rotates the rewinding shafts 42 to the loading position C, the rewinding position A, and the sealing unloading position B. The rewinding assembly includes a first rewinding drive and a second rewinding drive 43. The second rewinding drive 43 is used to drive the rewinding shaft 42 located at the rewinding position A to rotate. The sealing assembly includes a first sealing drive and a second sealing drive 44. The first sealing drive is used to press the adhesive bandage against the paper core on the rewinding shaft 42 at the rewinding position A, and the second sealing drive 44 is used to drive the rewinding shaft 42 located at the sealing unloading position B to rotate.

[0039] The first rewinding drive and the first sealing drive are both cylinders, labeled as pressing cylinder 45 and sealing cylinder 46 respectively. The second rewinding drive 43 and the second sealing drive 44 are both belt driven. Taking the second rewinding drive 43 as an example, the second rewinding drive 43 includes a rewinding motor 431, a driving pulley 432, a driven pulley 433, a rewinding double-sided synchronous belt 434, and a rewinding synchronous pulley 435. The rewinding double-sided synchronous belt 43... 4 is connected between the driving pulley 432 and the driven pulley 433. The driving pulley 432 is connected to the main shaft of the rewinding motor 431, and the rewinding synchronous pulley 435 is connected to the rewinding shaft 42. The rewinding synchronous pulley 435 meshes with the rewinding double-sided synchronous belt 434. Thus, when the rewinding motor 431 drives the driving pulley 432 to rotate, the rewinding double-sided synchronous belt 434 drives the rewinding synchronous pulley 435 to rotate, which in turn drives the rewinding shaft 42 to rotate, thus performing the rewinding operation.

[0040] In this embodiment, refer to Figure 8 The cutting mechanism 5 includes a cutting bracket 50, a scissor translation component, and a pneumatic scissor 52. The scissor translation component includes a front-to-back moving cylinder 521, which is mounted on the cutting bracket 50. The pneumatic scissor 52 is mounted on the output end of the front-to-back moving cylinder 521. When the front-to-back moving cylinder 521 extends or retracts, it drives the pneumatic scissor 52 to move closer to or further away from the turntable 41. The pneumatic scissor 52 is used to cut the adhesive tape located between the rewinding position A and the sealing and unloading position B.

[0041] In this embodiment, refer to Figure 9 and Figure 10The paper core feeding mechanism 6 includes a feeding bracket 60, a hopper 61, a vibrating conveying guide 66, a transfer groove 69, and a feeding pusher. An inclined guide plate is provided on one side of the hopper 61, and the vibrating conveying guide 66 is connected to the top outer side of the guide plate. A lifting plate is provided inside the hopper 61 and is slidably connected to the guide plate. When the lifting plate moves upward, it is used to lift the paper core and drop it into the vibrating conveying guide 66. The discharge end of the vibrating conveying guide 66 is connected to the inlet end of the transfer groove 69. The feeding pusher is used to push the paper core located at the discharge end of the transfer groove 69 to be sleeved on the rewinding shaft 42.

[0042] Furthermore, the guide plate includes a first guide plate 62 and a second guide plate 63, which are arranged in a stepped manner and have a gap between them. The lifting plate includes a first lifting plate 64 and a second lifting plate 65. The first lifting plate 64 is slidably connected to the side of the first guide plate 62 near the hopper 61, and the second lifting plate 65 is slidably connected between the first guide plate 62 and the second guide plate 63. A lifting cylinder 612 and a connecting plate 6 are provided at the bottom of the hopper 61. 13. The lifting cylinder 612 moves the first lifting plate 64 and the second lifting plate 65 up and down through the connecting plate 613. When the paper core in the hopper 61 rolls onto the first lifting plate 64, the first lifting plate 64 rises up and moves against the paper core. After the paper core passes the first guide plate 62, it will roll towards the second guide plate 63. When it rolls onto the second lifting plate 65, the second lifting plate 65 rises up and continues to move against the paper core. After the paper core passes the second guide plate 63, it will roll towards the vibrating conveying guide 66 and roll into the vibrating conveying guide 66.

[0043] Furthermore, the discharge end of the vibrating conveying guide 66 is provided with an air blowing port 67. The paper core that rolls into the vibrating conveying guide 66 moves to the discharge end of the vibrating conveying guide 66 under vibration, and then the air blowing port 67 blows the paper core into the transfer groove 69.

[0044] Furthermore, the feeding pusher includes a pusher cylinder 611 and a pusher block 610 connected to the output end of the pusher cylinder 611. The pusher cylinder 611 is coaxial with the rewinding shaft 42 located at the feeding position C, thereby pushing the paper core in the transfer groove 69 onto the rewinding shaft 42.

[0045] In a preferred embodiment, a guide channel adjusting block 68 is slidably connected to the discharge end of the vibrating conveying guide channel 66. Moving the guide channel adjusting block 68 can adjust the size of the discharge port of the vibrating conveying guide channel 66 to accommodate paper cores of different sizes.

[0046] In this embodiment, refer to Figure 11 and Figure 12The feeding mechanism 7 includes a paddle 71, a paddle cylinder 72, and a scraper cylinder 73. The paddle 71 is connected to the output end of the paddle cylinder 72, and the paddle cylinder 72 is connected to the output end of the scraper cylinder 73. The paddle cylinder 72 is used to drive the paddle 71 to move away from / near the rewinding shaft 42 located at the material sealing position, and the scraper cylinder 73 is used to drive the paddle 71 to move along the length direction of the rewinding shaft 42.

[0047] Furthermore, the feeding mechanism 7 also includes a guide rod 75 and a feeding cylinder 74. The guide rod 75 is connected to the output end of the feeding cylinder 74. The feeding cylinder 74 is used to drive the guide rod 75 to rotate. When the guide rod 75 rotates to a horizontal state, it is coaxial with the rewinding shaft 42. When the scraper cylinder 73 drives the paddle 71 to move, it can push the rewound paper core with adhesive tape onto the guide rod 75. The diameter of the guide rod 75 is smaller than the inner diameter of the paper core so that the paper core can fall off and be fed.

[0048] It is understood that the rewinding action in this embodiment is as follows:

[0049] 1. While the unwinding assembly 21 and the power conveying roller 25 assembly pull and unwind the bandage raw material, the gluing head 22 applies glue to it. After the gluing is completed, the cold air blower 23 blows cold air to cool the glued surface.

[0050] 2. The paper core feeding mechanism 6 uses the lifting action of the lifting plate to send the paper core in the hopper 61 to the vibrating conveyor guide 66. As the vibrating conveyor guide 66 vibrates, the paper core is sent to the end of the vibrating conveyor guide 66. The air blowing port 67 of the vibrating conveyor guide 66 blows the paper core to the transfer groove 69. Then, the pushing cylinder pushes the paper core into the rewinding shaft 42. A plunger is installed on the rewinding shaft 42, so the paper core is fixed on the rewinding shaft 42.

[0051] 3. The turntable 41 rotates, causing the rewinding shaft 42 with the paper core to rotate 120 degrees clockwise from the feeding position C to the rewinding position A. The forward and backward moving cylinder 521 drives the pneumatic scissors 52 to move forward, cutting the bandage. Then the forward and backward moving cylinder 521 retracts, and at this time, the rewinding synchronous wheel 435 at the rear end of the rewinding shaft 42 meshes with the rewinding double-sided synchronous belt 434. The rewinding double-sided synchronous belt 434 starts to rotate clockwise, simultaneously driving the rewinding shaft 42 to rotate counterclockwise. The pressing cylinder 45 covers the material, and the tail of the bandage will adhere to the paper core as the rewinding shaft 42 rotates counterclockwise. When the tail of the paper core is completely adhered to the tail of the bandage, the rewinding double-sided synchronous belt 434 starts to rotate counterclockwise, and the rewinding shaft 42 drives the paper core to rotate clockwise for rewinding. After the rewound bandage reaches the specified length, the rewinding double-sided synchronous belt 434 stops rotating.

[0052] 4. After rewinding, the rewinding shaft 42 rotates 120 degrees clockwise from the rewinding position A to the sealing and unloading position B. At this time, the front and rear moving cylinder 521 drives the pneumatic scissors 52 to cut the bandage. The cutting sensor 47 senses and determines whether the bandage is cut. The sealing cylinder 46 covers the rewinding product. At this time, the sealing synchronous wheel at the rear end of the rewinding shaft 42 located at the sealing and unloading position B engages with the sealing double-sided synchronous belt. The sealing double-sided synchronous belt rotates counterclockwise, driving the rewinding shaft 42 to rotate clockwise. The bandage at the scissor tip is wound up and sealed as the rewinding shaft 42 rotates. At this time, the product is glued and rewound.

[0053] 5. The rewound product is on the rewinding shaft 42. The paddle cylinder 72 of the feeding mechanism 7 extends, driving the paddle 71 to be tangent to the rewinding shaft 42. Then, the scraping cylinder 73, along with the paddle 71, scrapes the rewound product onto the guide rod 75 of the feeding cylinder 74. Then, the feeding cylinder 74, along with the guide rod 75, rotates 90 degrees. The rewound product is fed out by gravity, completing the entire rewinding process of the equipment.

[0054] The above is a detailed description of the preferred embodiments of the present utility model. However, the present utility model is not limited to the described embodiments. Those skilled in the art can make various equivalent modifications or substitutions without departing from the spirit of the present utility model. All such equivalent modifications or substitutions are included within the scope defined by the claims of this application.

Claims

1. A fully automated production equipment for zero-tension bandages, characterized in that: The device includes a feeding and gluing mechanism, a tension control mechanism, a paper core feeding mechanism, a rewinding mechanism, a cutting mechanism, and a unloading mechanism. The feeding and gluing mechanism is used to apply glue to the raw material to form an adhesive bandage and then transport it to the rewinding mechanism. The tension control mechanism is used to adjust the tension of the adhesive bandage so that the first section of the adhesive bandage entering the rewinding mechanism is kept in a zero-tension state. The rewinding mechanism includes a rewinding shaft. The paper core feeding mechanism is used to move the paper core onto the rewinding shaft. When the rewinding shaft rotates, it is used to rewind the adhesive bandage onto the paper core. The cutting mechanism is used to cut the adhesive bandage after rewinding. The unloading mechanism is used to remove the rewound paper core from the rewinding shaft.

2. The fully automated production equipment for zero-tension bandages according to claim 1, characterized in that: The feeding and coating mechanism includes an unwinding assembly, a coating assembly, and a power conveying roller assembly. The unwinding assembly is used to unwind the bandage raw material, the coating assembly is used to apply adhesive to the unwound bandage to form an adhesive bandage, and the power conveying roller assembly is used to provide traction for conveying the adhesive bandage.

3. The fully automated production equipment for zero-tension bandages according to claim 2, characterized in that: The feeding and coating mechanism also includes a cooling air assembly, which provides cooling air to cool the adhesive surface of the bandage.

4. The fully automated production equipment for zero-tension bandages according to claim 3, characterized in that: The feeding and gluing mechanism also includes a guide wheel assembly for guiding the bandage conveying path. The guide wheel assembly includes two guide wheels for guiding the bandage to convey horizontally, and the gluing assembly and the cooling air assembly are located between the two guide wheels.

5. The fully automated production equipment for zero-tension bandages according to claim 1, characterized in that: The paper core feeding mechanism includes a hopper, a vibrating conveyor guide trough, a transfer trough, and a feeding pusher. An inclined guide plate is provided on one side of the hopper, and the vibrating conveyor guide trough is connected to the top outer side of the guide plate. A lifting plate is provided inside the hopper and is slidably connected to the guide plate. When the lifting plate moves upward, it is used to lift the paper core and drop it into the vibrating conveyor guide trough. The discharge end of the vibrating conveyor guide trough is connected to the inlet end of the transfer trough. The feeding pusher is used to push the paper core located at the discharge end of the transfer trough to fit onto the rewinding shaft.

6. The fully automated production equipment for zero-tension bandages according to claim 5, characterized in that: The discharge end of the vibrating conveyor guide trough is provided with an air blowing port, which is used to blow the paper core into the transfer trough.

7. The fully automated production equipment for zero-tension bandages according to claim 1, characterized in that: The rewinding shaft includes a turntable assembly, a rewinding assembly, and a sealing assembly. The turntable assembly includes a turntable and a turntable drive for driving the turntable to rotate. Multiple rewinding shafts are arranged around the turntable, and when the turntable rotates, it is used to rotate the rewinding shafts to the feeding position, the rewinding position, and the sealing and unloading position. The rewinding assembly includes a first rewinding drive and a second rewinding drive. The second rewinding drive is used to drive the rewinding shaft located at the rewinding position to rotate. The sealing assembly includes a first sealing drive and a second sealing drive. The first sealing drive is used to press the adhesive tape against the paper core on the rewinding shaft at the rewinding position, and the second sealing drive is used to drive the rewinding shaft located at the sealing and unloading position to rotate.

8. The fully automated production equipment for zero-tension bandages according to claim 7, characterized in that: The cutting mechanism includes pneumatic scissors and a scissor translation component for driving the pneumatic scissors to move towards / away from the turntable. The pneumatic scissors are used to cut the adhesive tape located between the rewinding position and the sealing and unloading position.

9. The fully automated production equipment for zero-tension bandages according to claim 7, characterized in that: The feeding mechanism includes a paddle, a paddle cylinder, and a scraper cylinder. The paddle is connected to the output end of the paddle cylinder, and the paddle cylinder is connected to the output end of the scraper cylinder. The paddle cylinder is used to drive the paddle to move away from / near the rewinding shaft located at the material sealing position, and the scraper cylinder is used to drive the paddle to move along the length direction of the rewinding shaft.

10. The fully automated production equipment for zero-tension bandages according to claim 9, characterized in that: The feeding mechanism also includes a guide rod and a feeding cylinder. The guide rod is connected to the output end of the feeding cylinder. The feeding cylinder is used to drive the guide rod to rotate. When the guide rod rotates to a horizontal state, it is coaxial with the rewinding shaft. When the scraper cylinder drives the paddle to move, it can push the rewound paper core with adhesive tape onto the guide rod. The diameter of the guide rod is smaller than the inner diameter of the paper core.

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