Non-slip glove production process and production line

Abstract

The application relates to an antiskid glove production line, which comprises a conveying mechanism, a water spraying device, a first drying mechanism, a plastic spraying device, a second drying mechanism, a glue dipping groove, a particle spraying gun and a third drying mechanism. The conveying mechanism comprises a plurality of connecting pieces, a plurality of hand mold pieces, a supporting rack and a circulating assembly for moving the connecting pieces. The hinged frame is hinged to the connecting column through a hinge shaft, the end of the main shaft is rotationally connected to the hinged frame, the hinge shaft is perpendicular to the length direction of the main shaft, the main gear is coaxially rotationally connected to the main shaft, the main gear is placed on the supporting rack and is engaged with the supporting rack, the outer end of the coil spring is fixed to the connecting disc, and the inner end is fixed to the main gear. Through the clamping structure and the supporting frame, the clamping piece automatically releases the hand mold piece during feeding, the clamping piece automatically releases the lining during discharging, feeding and discharging are facilitated, the lining is fixed during glove processing, the lining is not easy to fall off or wrinkle, subsequent processing is facilitated, and the production qualified rate of the gloves is improved.

Description

Technical Field

[0001] This application relates to the field of glove manufacturing technology, and in particular to a process for manufacturing anti-slip gloves and its production line. Background Technology

[0002] Plastic gloves have the following advantages: they contain no natural latex, are non-allergenic to human skin, non-toxic, harmless, and odorless; they are ambidextrous; they have good tensile strength, are durable, have good fit, and are resistant to acids, alkalis, and oils. Therefore, plastic gloves are widely used in clean environments such as semiconductor, microelectronics, precision equipment, medical, pharmaceutical, and bioengineering production workshops, as well as food and beverage processing facilities.

[0003] In the production of rubber gloves, the lining fabric is attached to the hand mold, and then the outer layer of the lining fabric is impregnated with rubber to form a plastic layer, thus obtaining the plastic glove.

[0004] Patent application number 202110495252.6 discloses a conveyor system for a rubber glove production line, including: a conveyor belt, a slide rail, and a guide rail. The conveyor belt is movably mounted on both the front and rear sides, and the movable wheels are rolled on the slide rail. The slide rail is fixedly mounted on the upper end of the guide rail. The conveyor belt is provided with connecting components on both the front and rear sides, and a movable frame is movably mounted on the connecting components. A hand mold component is provided at the lower end of the movable frame.

[0005] In the aforementioned rubber glove production line conveyor system, the hand mold component is the hand mold itself. During glove processing, the hand mold component moves and rotates simultaneously. Due to the soft texture of the lining fabric, the fingers of the hand mold component sometimes point downwards when the hand mold component moves. This may cause the lining fabric attached to the hand mold component to slip off at the wrist, resulting in wrinkles in the lining fabric. This affects the subsequent processing and molding of the plastic layer and reduces the product qualification rate. Summary of the Invention

[0006] In order to improve the production qualification rate of plastic gloves, this application provides a production process and production line for anti-slip gloves.

[0007] In a first aspect, this application provides an anti-slip glove production line, which adopts the following technical solution:

[0008] The anti-slip glove production line includes a conveying mechanism, a water spraying device, a first drying mechanism, a coating device, a second drying mechanism, a dipping tank, a granulation gun, and a third drying mechanism. The conveying mechanism drives the gloves to pass sequentially through the water spraying device, the first drying mechanism, the coating device, the second drying mechanism, the dipping tank, the granulation gun, and the third drying mechanism for processing. The conveying mechanism includes several connecting parts, several hand mold parts, a support rack, and a circulation assembly that drives the connecting parts to move. The connecting parts include a connecting column, a hinge frame, a main shaft, and a clamping structure. The connecting column is connected to the circulation assembly, the hinge frame is hinged to the connecting column by a hinge shaft, and the end of the main shaft is rotatably connected to the hinge frame. The hinge shaft is perpendicular to the length direction of the main shaft.

[0009] The clamping structure includes a main gear, a coil spring, and at least two clamping members. The main gear is coaxially rotatably connected to the main shaft. The arm end of the hand mold member is fixed to the end of the main shaft away from the connecting column. The main gear is placed on the support rack and meshes with the support rack.

[0010] A connecting disc is fixed on the main shaft, the outer end of the coil spring is fixed on the connecting disc, and the inner end is fixed on the main gear; it also includes a loading and unloading support structure for placing the hinge frame;

[0011] The clamping member includes a clamping rack and a clamping piece fixed to one end of the clamping rack. The clamping rack is slidably connected to the end face of the arm end of the hand mold member, and the clamping rack meshes with the main gear. The hand mold member is located between at least two clamping pieces.

[0012] When conveying gloves, the circulating belt drives the hand mold and connecting piece to slide, the main gear meshes with the support rack, the coil spring tightens, and at the same time, the main gear drives the clamping rack to slide to the clamping plate to clamp the lining fabric on the hand mold; when gloves are loaded or unloaded, the circulating belt drives the hand mold and connecting piece to slide, the hinge frame is placed on the loading and unloading support structure, and the coil spring expands to drive the main gear to rotate until the clamping plate releases the hand mold.

[0013] By adopting the above technical solution, the hand mold is connected to the circulation assembly via a connector. During glove production, the lining fabric is fitted onto the hand mold, and the circulation assembly drives the hand mold to the corresponding equipment for processing. The hand mold is manually loaded by fitting the lining fabric onto it. During loading or unloading, the hinge frame is placed on the loading / unloading support structure. At this time, the expansion of the coil spring drives the main gear to rotate until the clamping plate releases the hand mold, facilitating loading or unloading. When the hinge frame is placed on the loading / unloading support structure, the lining fabric is fitted and the glove is demolded. During glove processing, after the lining is fitted onto the hand mold, the circulation assembly drives the hand mold to continue moving. After movement, the hinge frame disengages from the loading and unloading support structure, and simultaneously the main shaft is placed on and meshes with the support rack. As the hand mold moves, the main gear rotates, while the hand mold and main shaft remain stationary. This rotation of the main gear causes the coil spring to tighten, and simultaneously the clamping rack slides, causing the clamping plates to clamp the outer wall of the hand mold's arm end. The clamping plates also clamp the lining fixed to the hand mold. After clamping, the hand mold, main shaft, and main gear rotate synchronously for subsequent processing. The rotation of the hand mold ensures more even application during subsequent processes such as water spraying, glue application, glue dipping, and drying.

[0014] This application's solution involves clamping and fixing the lining fabric to the hand mold component after it is covered with a film. This prevents the lining fabric from slipping off or wrinkling during the movement of the hand mold component, thus minimizing the impact on the gluing effect and improving the production quality pass rate. Furthermore, the clamping component automatically holds the lining fabric after loading and automatically releases it before unloading, eliminating the need for manual operation and making loading and unloading convenient. The solution also features a simple structure, requiring only modifications to existing production lines. It is easy to operate, has low production costs, and shows promising application prospects.

[0015] Optionally, the loading and unloading support structure is a support conveyor belt, the top surface of which is provided for the hinge frame to be placed, and the conveying speed and direction of the support conveyor belt are the same as the movement speed and direction of the hinge frame.

[0016] By adopting the above technical solution, when the circulating component drives the articulated frame to move, the articulated frame does not move relative to the supporting conveyor belt, thereby reducing the wear of the articulated frame and also reducing noise.

[0017] Optionally, the circulation assembly includes a circulation support frame and a circulation belt, the circulation belt being a closed loop, and the circulation belt being slidably disposed on the circulation support frame.

[0018] By adopting the above technical solution, the circulating belt is enclosed, allowing the hand mold parts to be loaded immediately after unloading, facilitating the next round of glove processing and improving processing efficiency. At the same time, the loading and unloading areas are in the same position, making loading and unloading easier.

[0019] Optionally, a circulation groove is provided on one side of the circulation support frame in the horizontal direction, and a support roller is rotatably connected to the circulation belt, with the wheel surface of the support roller abutting against the bottom wall of the circulation groove.

[0020] By adopting the above technical solution, the setting of the support rollers reduces the impact of the weight of the connecting parts on the circulating belt, making the circulating belt slide smoothly.

[0021] Optionally, at least two limiting blocks are fixed on the end face of the arm of the hand mold component. The limiting blocks are correspondingly arranged with the clamping rack. The limiting blocks have limiting grooves on the side wall facing the main gear for the clamping rack to slide.

[0022] By adopting the above technical solution, the setting of the limiting block and the limiting groove allows the rack to be directly inserted into the limiting groove during installation, which facilitates the installation of the rack and also ensures stable clamping of the rack.

[0023] Optionally, a connecting cylinder is coaxially fixed to the end of the main gear, the coil spring is sleeved on the connecting cylinder, and the inner end of the coil spring is fixed to the outer wall of the connecting cylinder.

[0024] By adopting the above technical solution, the main gear is fixed to the coil spring through the connecting sleeve. The connecting sleeve facilitates the fixing of the inner end of the coil spring, thereby facilitating the installation of the coil spring.

[0025] Optionally, it also includes a trimming mechanism, which includes a trimming conveyor belt, a trimming placement tray, and a cutting assembly. The trimming conveyor belt drives the placement tray past the cutting assembly, which is used to trim the gloves on the trimming placement tray.

[0026] By adopting the above technical solution, the gloves are trimmed at the edges, cutting off the part of the lining fabric that protrudes from the plastic layer, making the gloves look neat and improving their appearance.

[0027] Secondly, this application provides a manufacturing process for anti-slip gloves, employing the following technical solution:

[0028] The manufacturing process for anti-slip gloves, using the aforementioned anti-slip glove production line, includes the following steps:

[0029] S1, Mold loading; the worker attaches the lining fabric to the hand mold piece;

[0030] S2, spray water to brush the bristles; move the hand mold to the water spray device to wet the lining fabric;

[0031] S3, First drying, the first drying unit dries the lining fabric;

[0032] S4, Coating, the coating device applies adhesive to the lining fabric;

[0033] S5, Second drying, the second drying mechanism dries the adhesive liquid;

[0034] S6; Dipping coating, the dipping tank applies a second layer of adhesive to the lining fabric;

[0035] S7, Spraying: Before the adhesive liquid for dipping is dry, plastic granules are sprayed onto the surface of the glove by manual operation.

[0036] S8, Third drying: The third drying mechanism dries the adhesive while the plastic particles are fixed to the surface of the glove.

[0037] S9, demolding and unloading; after the adhesive cools, the gloves are manually removed from the hand mold.

[0038] S10, trimming: After removing the glove, trim the edge of the glove arm to remove excess lining.

[0039] By employing the above technical solutions, the lining fabric is sprayed with water to flatten the burrs, improving the surface smoothness and facilitating subsequent adhesive application. After applying adhesive to the threads, it is then impregnated with adhesive to increase the thickness of the adhesive layer, thereby enhancing the glove's strength and waterproof sealing. Spraying with plastic granules improves the glove's anti-slip properties.

[0040] In summary, this application includes at least one of the following beneficial technical effects:

[0041] 1. By setting up a clamping structure and support frame, the clamping plates automatically release the hand mold parts when loading, and automatically release the lining fabric when unloading, which facilitates loading and unloading. The clamping structure fixes the lining fabric during glove processing, making it less likely to fall off or wrinkle, which facilitates subsequent processing and improves the production qualification rate of gloves.

[0042] 2. By setting the loading and unloading support structure as a support conveyor belt, the friction between the hinge frame and the loading and unloading support structure is small when the support conveyor belt supports the hinge frame, thereby protecting the hinge frame and reducing noise.

[0043] 3. Set limit blocks and limit grooves to facilitate the installation of the rack clamping mechanism and ensure stable sliding of the rack clamping mechanism. Attached Figure Description

[0044] Figure 1 This is a flowchart illustrating the anti-slip glove production line according to an embodiment of this application.

[0045] Figure 2 This is a schematic diagram of the conveyor mechanism in an anti-slip glove production line.

[0046] Figure 3 It was an explosion of a connector on the anti-slip glove production line. Figure 1 .

[0047] Figure 4 It was an explosion of a connector on the anti-slip glove production line. Figure 2 .

[0048] Figure 5 This is a schematic diagram of the water spraying device in the anti-slip glove production line. Figure 1 .

[0049] Figure 6 This is a schematic diagram of the water spraying device in the anti-slip glove production line. Figure 2 .

[0050] Figure 7 This is a schematic diagram of the coating unit and dipping tank in the anti-slip glove production line. Figure 1 .

[0051] Figure 8 This is a schematic diagram of the coating unit and dipping tank in the anti-slip glove production line. Figure 2 .

[0052] Figure 9 This is a schematic diagram of the edge-cutting mechanism in an anti-slip glove production line.

[0053] Explanation of reference numerals in the attached drawings: 1. Conveying mechanism; 11. Connecting component; 111. Connecting column; 112. Hinge frame; 113. Main shaft; 114. Clamping structure; 1141. Main gear; 1142. Coil spring; 1143. Clamping component; 11431. Clamping rack; 11432. Clamping plate; 11433. Limiting block; 11434. Limiting groove; 1144. Connecting cylinder; 1145. Connecting disc; 115. Hinge shaft; 12. Hand mold component; 13. Support rack; 14. Circulation assembly; 141. Circulation support frame; 142. Circulation belt; 143. Circulation groove; 144. Support roller; 2. Water spraying device; 21. Water receiving trough; 22. Spray head; 23. Water pump; 24. Water tank; 3. First drying... 4. Drying mechanism; 5. Coating device; 6. Coating plate; 7. Coating hole; 8. Connecting pipe; 9. Coating pump; 10. Receiving tank; 11. Second drying mechanism; 12. Dipping tank; 13. Spray gun; 14. Third drying mechanism; 15. Loading and unloading support structure; 16. Support conveyor belt; 17. Support synchronous pulley; 18. Support synchronous belt; 19. Trimming mechanism; 10. Trimming conveyor belt; 10. Trimming placement tray; 10. Cutting assembly; 10. Support platform; 10. Mounting frame; 10. Cutting blade; 10. Drive structure; 10. Drive rod; 10. Eccentric wheel; 10. Drive gearbox; 10. Drive motor; 10. Trimming waste trough. Detailed Implementation

[0054] The present application will be further described in detail below with reference to the accompanying drawings and embodiments.

[0055] This application discloses an anti-slip glove production line. (Refer to...) Figure 1The anti-slip glove production line includes a conveyor mechanism 1, a water spraying device 2, a first drying mechanism 3, a coating device 4, a second drying mechanism 5, a dipping tank 6, a spray gun 7, and a third drying mechanism 8. The conveyor mechanism 1 drives the gloves to pass through the water spraying device 2, the first drying mechanism 3, the coating device 4, the second drying mechanism 5, the dipping tank 6, the spray gun 7, and the third drying mechanism 8 in sequence for processing.

[0056] Reference Figure 2 The conveying mechanism 1 includes several connectors 11, several hand molds 12, a support rack 13, and a circulation assembly 14 that drives the connectors 11 to move. The circulation assembly 14 includes a circulation support frame 141 and a circulation belt 142. The circulation belt 142 is a closed ring and is slidably mounted on the circulation support frame 141. The circulation support frame 141 is annular, and a circulation groove 143 is provided on one side of the circulation support in the horizontal direction. The circulation groove 143 is located on the outer ring wall of the circulation support. The circulation belt 142 is slidably mounted in the circulation groove 143. A support roller 144 is rotatably connected to the outer ring wall of the circulation belt 142. The wheel surface of the support roller 144 abuts against the bottom wall of the circulation groove 143. When the circulation belt 142 slides, the support roller 144 rotates against the groove wall of the circulation groove 143. The circulation belt 142 is tensioned and connected to a pulley, which is driven to rotate by a motor through a reduction gearbox.

[0057] Reference Figure 2 , Figure 3 Connectors 11 are spaced apart on the outer ring wall of the circulating belt 142. Each connector 11 includes a connecting post 111, a hinge frame 112, a main shaft 113, and a clamping structure 114. The end of the connecting post 111 is fixed to the outer ring wall of the circulating belt 142. The hinge frame 112 is hinged to the connecting post 111 via a hinge shaft 115. The length direction of the hinge shaft 115 is perpendicular to the length direction of the circulating belt 142 and is horizontal. The end of the main shaft 113 is rotatably connected to the hinge frame 112, and the hinge shaft 115 is perpendicular to the length direction of the main shaft 113.

[0058] Reference Figure 3 , Figure 4 The clamping structure 114 includes a main gear 1141, a coil spring 1142, and at least two clamping members 1143. In this embodiment, two clamping members 1143 are provided. The main gear 1141 is coaxially rotatably connected to the main shaft 113. A central hole is provided on the main gear 1141 for the main shaft 113 to pass through. The main gear 1141 is rotatably connected to the main shaft 113 via a bearing. The arm end of the hand mold member 12 is fixed to the end of the main shaft 113 away from the connecting post 111.

[0059] Reference Figure 2 , Figure 3The support rack 13 extends along the arrangement direction of several connectors 11. The main gears 1141 on the several connectors 11 are all placed on the support rack 13 and mesh with the support rack 13. When the support rack 13 extends downward or upward, the fingertips of the hand mold 12 point upward or downward, thereby changing the angle of the hand mold 12 and facilitating glove processing.

[0060] Reference Figure 3 , Figure 4 A connecting sleeve 1144 is coaxially fixed to the end of the main gear 1141 near the connecting post 111, and the main shaft 113 also passes through the connecting sleeve 1144. A coil spring 1142 is sleeved on the connecting sleeve 1144, and the inner end of the coil spring 1142 is fixed to the outer wall of the connecting sleeve 1144. A connecting disc 1145 is coaxially fixed to the end of the main shaft 113 near the connecting post 111, and the outer end of the coil spring 1142 is fixed to the connecting disc 1145. The inner end of the coil spring 1142 is fixedly connected to the main gear 1141 through the connecting sleeve 1144.

[0061] Reference Figure 4 The clamping member 1143 includes a clamping rack 11431 and a clamping piece 11432 fixed to one end of the clamping rack 11431. The clamping rack 11431 is slidably connected to the end face of the arm end of the hand mold member 12. The two clamping racks 11431 are provided with teeth on opposite sides and are meshed with the two sides of the main gear 1141. The hand mold member 12 is located between the two clamping pieces 11432, which are evenly distributed along the circumferential edge of the arm end of the hand mold member 12.

[0062] Reference Figure 4 Two limiting blocks 11433 are fixed on the end face of the arm of the hand mold 12. The side walls of the limiting blocks 11433 are provided with limiting grooves 11434 for the sliding of the clamping rack 11431. The main gear 1141 is located between the two limiting blocks 11433. When the main gear 1141 rotates, the two clamping racks 11431 slide, thereby driving the two clamping pieces 11432 to move away from or closer to each other. When the two clamping pieces 11432 move closer to each other, the two clamping pieces 11432 clamp the hand mold 12.

[0063] Reference Figure 2The anti-slip glove production line also includes a loading and unloading support structure 9 for placing the articulation frame 112. The loading and unloading support structure 9 is a support conveyor belt 91, which includes three support synchronous pulleys 911 and a support synchronous belt 912 tensioned and connected to the three support synchronous pulleys 911. The three support synchronous pulleys 911 are arranged in a triangle, with two pulleys 911 having the same height and the last pulley 911 having the lowest height. The lowest pulley 911 is driven to rotate by a motor. The top surface of the support conveyor belt 91 is used for placing the articulation frame 112. The conveying speed and direction of the support conveyor belt 91 are the same as the movement speed and direction of the articulation frame 112.

[0064] Reference Figure 5 The water spraying device 2 includes a water receiving tank 21, a nozzle 22, a water pump 23, and a water tank 24. The conveying mechanism 1 drives the lining fabric to pass over the water receiving tank 21, and the water pump 23 drives the water in the water tank 24 to spray water from the nozzle 22 to wet the lining fabric. The top of the water receiving tank 21 is connected to the water tank 24 through a return pipe.

[0065] Reference Figure 1 The first drying mechanism 3 includes a sleeve and a fan. The fan is located inside the sleeve. The conveying mechanism 1 drives the wet gloves to pass under the sleeve, and the sleeve dries the lining fabric.

[0066] Reference Figure 7 , Figure 8 The coating device 4 includes a coating plate 41, a connecting pipe 42, a coating pump 43, and a receiving tank 44. The coating plate 41 is hollow inside. The connecting pipe 42 connects the inner cavity of the coating plate 41 and the inner cavity of the receiving tank 44. The coating pump 43 drives the adhesive to flow into the inner cavity of the coating plate 41. The bottom surface of the coating plate 41 has a coating hole 411. The coating tank is located below the coating plate 41. The conveying mechanism 1 drives the glove to pass through the bottom of the coating plate 41 for coating.

[0067] Reference Figure 1 The second drying mechanism 5 has the same structure as the first drying mechanism 3, and will not be described in detail here. The conveying mechanism 1 drives the coated gloves through the second drying mechanism 5 to dry the plastic liquid.

[0068] Reference Figure 7 , Figure 8 Then, the conveyor mechanism 1 drives the gloves to be immersed in the dip tank 6 and lifted out. The dip tank 6 is located below the receiving tank 44, and the molten plastic in the receiving tank 44 is guided into the dip tank 6. The worker uses a granulator gun 7 to spray rubber granules onto the surface of the gloves. Then the gloves are transported to the third drying mechanism 8. The third drying mechanism 8 has the same structure as the first drying mechanism 3, and will not be described in detail here. The third drying mechanism 8 dries the molten plastic, fixing the plastic granules to the surface of the gloves, giving the gloves better anti-slip properties.

[0069] The anti-slip glove production line also includes a trimming mechanism 10, which comprises a trimming conveyor belt 101, trimming placement trays 102, and a cutting assembly 103. Several trimming placement trays 102 are evenly spaced and fixed on the trimming conveyor belt 101, arranged along the transport direction of the conveyor belt 101. The trimming placement trays 102 are used to place gloves after cutting; during placement, the lining protrusion at the arm end of the glove is suspended outside the trimming placement tray 102. The trimming conveyor belt 101 drives the placement trays past the cutting assembly 103, which trims the edges of the gloves on the trimming placement trays 102.

[0070] Reference Figure 9 The cutting assembly 103 includes a support platform 1031, a mounting bracket 1032, a cutter 1033, and a drive structure 1034 for vertically sliding the cutter 1033. The mounting bracket 1032 is fixed to the top surface of the support platform 1031, and the cutter 1033 is vertically slidable to the side wall of the mounting bracket 1032 via a slide rail. The drive structure 1034 includes a drive rod 10341, an eccentric wheel 10342, a drive reduction gearbox 10343, and a drive motor 10344. The drive reduction gearbox 10343 is fixed to the top surface of the mounting bracket 1032, and the drive motor 10344 is connected to the input shaft of the drive reduction gearbox 10343. The output shaft of the drive reduction gearbox 10343 is fixed at the center of the eccentric wheel 10342. An eccentric column is fixed on the eccentric wheel 10342. The axis of the eccentric column does not coincide with the axis of the eccentric wheel 10342. A drive column is fixed on the side wall of the cutter 1033. The axes of the drive column and the eccentric column are parallel to each other and are both horizontal. The top end of the drive rod 10341 is rotatably connected to the eccentric column, and the bottom end of the drive rod 10341 is rotatably connected to the drive column. The length direction of the drive rod 10341 is perpendicular to the axes of the drive column and the eccentric column.

[0071] Reference Figure 9 The top surface of the support platform 1031 is provided with a cutting waste groove 104. When the glove is transported to the bottom of the cutter 1033 by the cutting conveyor belt, the glove wrist is below the cutter 1033, and the cutting waste groove 104 is located below the glove wrist. The cutting waste groove 104 is for the cut edges to fall down.

[0072] The implementation principle of the anti-slip glove production line in this application embodiment is as follows: the conveying mechanism 1 drives the gloves to pass through the water spraying device 2, the first drying mechanism 3, the coating device 4, the second drying mechanism 5, the dipping tank 6, the granulation gun 7 and the third drying mechanism 8 for processing. After the gloves are demolded and unloaded, the excess lining fabric of the gloves is trimmed and removed, thereby producing gloves. Except for the feeding, unloading and granulation steps, the production line does not require manual intervention and is an automatic assembly line, which improves production efficiency.

[0073] When the gloves are being processed, the circulating belt 142 drives the hand mold 12 and the connecting piece 11 to slide, the main gear 1141 meshes with the support rack 13, the coil spring 1142 tightens, and at the same time the main gear 1141 drives the clamping rack 11431 to slide to the clamping plate 11432 to clamp the lining fabric on the hand mold 12; when the gloves are being loaded or unloaded, the circulating belt 142 drives the hand mold 12 and the connecting piece 11 to slide, the hinge frame 112 is placed on the loading and unloading support structure 9, and the coil spring 1142 expands to drive the main gear 1141 to rotate until the clamping plate 11432 releases the hand mold 12.

[0074] In summary, this application's solution clamps and fixes the lining fabric to the hand mold component 12 after the lining fabric is covered with film. This prevents the lining fabric from falling off or wrinkling during the movement of the hand mold component 12, thus minimizing the impact on the gluing effect and improving the production quality pass rate. Furthermore, the clamping component 1143 automatically clamps the lining fabric after it is loaded and automatically releases it before the glove is unloaded, eliminating the need for manual operation of the clamping component 1143 to hold the lining fabric, making loading and unloading convenient. Moreover, this application's solution has a simple structure, can be easily modified on existing production lines, is simple to operate, has low production costs, and has good application prospects.

[0075] This application also discloses a manufacturing process for anti-slip gloves. (Refer to...) Figure 1 The production process for anti-slip gloves, using the aforementioned anti-slip glove production line, includes the following steps:

[0076] S1, mold loading; the worker attaches the lining fabric to the hand mold part 12;

[0077] S2, spray water to brush the bristles; the hand mold part 12 moves to the water spray device 2 to wet the lining fabric;

[0078] S3, First drying, the first drying unit 3 dries the lining fabric at a temperature of 160℃;

[0079] S4, Coating, Coating device 4 coats the adhesive onto the lining fabric;

[0080] S5, Second drying, the second drying unit 5 dries the adhesive liquid at a temperature of 110℃;

[0081] S6; Dipping coating, dip tank 6 applies a second coating to the lining fabric;

[0082] S7, Spraying: When the adhesive liquid for dipping is not dry, plastic particles are sprayed onto the surface of the glove by manual operation, with the manual holding of the spray gun 7.

[0083] S8, third drying, the third drying mechanism 8 dries the adhesive liquid, and at the same time the plastic particles are fixed on the surface of the glove, the drying temperature is 180℃;

[0084] S9, demolding and unloading; after the adhesive cools, the glove is manually removed from the hand mold part 12.

[0085] S10, edge trimming: After the gloves are removed, the edge trimming mechanism 10 trims one end of the glove arm to remove excess lining fabric.

[0086] The implementation principle of an anti-slip glove production line according to this application embodiment is as follows: First, the lining fabric is sprayed with water to flatten the burrs and improve the surface smoothness of the lining fabric, facilitating subsequent gluing. After the fabric is coated with glue, it is then impregnated with glue to increase the thickness of the glove's glue layer, thereby improving the glove's strength and waterproof tightness. Plastic granules are sprayed to enhance the glove's anti-slip effect. Simultaneously, this production process employs a two-stage gluing process to increase the glove's thickness and strength, thus improving the glove's quality.

[0087] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A production line for anti-slip gloves, comprising a conveying mechanism (1), a water spraying device (2), a first drying mechanism (3), a coating device (4), a second drying mechanism (5), a dipping tank (6), a spray gun (7), and a third drying mechanism (8), wherein the conveying mechanism (1) drives the gloves to pass sequentially through the water spraying device (2), the first drying mechanism (3), the coating device (4), the second drying mechanism (5), the dipping tank (6), the spray gun (7), and the third drying mechanism (8) for processing, characterized in that: The conveying mechanism (1) includes several connectors (11), several hand molds (12), a support rack (13), and a circulation assembly (14) that drives the connectors (11) to move; the connector (11) includes a connecting post (111), a hinge frame (112), a main shaft (113), and a clamping structure (114); the connecting post (111) is connected to the circulation assembly (14), the hinge frame (112) is hinged to the connecting post (111) by setting a hinge shaft (115), the end of the main shaft (113) is rotatably connected to the hinge frame (112), and the hinge shaft (115) is perpendicular to the length direction of the main shaft (113); The clamping structure (114) includes a main gear (1141), a coil spring (1142), and at least two clamping members (1143). The main gear (1141) is coaxially rotatably connected to the main shaft (113). The arm end of the hand mold member (12) fixes the end of the main shaft (113) away from the connecting column (111). The main gear (1141) is placed on the support rack (13) and meshes with the support rack (13). A connecting disc (1145) is fixed on the main shaft (113), and the outer end of the coil spring (1142) is fixed on the connecting disc (1145), while the inner end is fixed to the main gear (1141); it also includes a loading and unloading support structure (9) for placing the hinge frame (112); The clamping member (1143) includes a clamping rack (11431) and a clamping piece (11432) fixed to one end of the clamping rack (11431). The clamping rack (11431) is slidably connected to the end face of the arm end of the hand mold member (12). The clamping rack (11431) meshes with the main gear (1141). The hand mold member (12) is located between at least two clamping pieces (11432). The circulation assembly (14) includes a circulation support frame (141) and a circulation belt (142), the circulation belt (142) being a closed loop, and the circulation belt (142) being slidably disposed on the circulation support frame (141); When the gloves are being transported, the circulating belt (142) causes the hand mold (12) and the connecting piece (11) to slide, the main gear (1141) meshes with the support rack (13), the coil spring (1142) tightens, and at the same time the main gear (1141) drives the clamping rack (11431) to slide to the clamping plate (11432) to clamp the lining on the hand mold (12); when the gloves are being loaded or unloaded, the circulating belt (142) causes the hand mold (12) and the connecting piece (11) to slide, the hinge frame (112) is placed on the loading and unloading support structure (9), and the coil spring (1142) expands to drive the main gear (1141) to rotate until the clamping plate (11432) releases the hand mold (12).

2. The anti-slip glove production line according to claim 1, characterized in that: The loading and unloading support structure (9) is a support conveyor belt (91). The top surface of the support conveyor belt (91) is for the placement of the articulated frame (112). The conveying speed and conveying direction of the support conveyor belt (91) are the same as the movement speed and movement direction of the articulated frame (112).

3. The anti-slip glove production line according to claim 1, characterized in that: The circulating support frame (141) has a circulating groove (143) on one side in the horizontal direction. A support roller (144) is rotatably connected to the circulating belt (142), and the wheel surface of the support roller (144) abuts against the bottom wall of the circulating groove (143).

4. The anti-slip glove production line according to claim 1, characterized in that: At least two limiting blocks (11433) are fixed on the end face of the arm of the hand mold (12). The limiting blocks (11433) are correspondingly arranged with the clamping rack (11431). The limiting blocks (11433) have limiting grooves (11434) on the side wall facing the main gear (1141) for the clamping rack (11431) to slide.

5. The anti-slip glove production line according to claim 1, characterized in that: The end of the main gear (1141) is coaxially fixed with a connecting cylinder (1144), and the coil spring (1142) is sleeved on the connecting cylinder (1144). The inner end of the coil spring (1142) is fixed to the outer wall of the connecting cylinder (1144).

6. The anti-slip glove production line according to claim 1, characterized in that: It also includes a trimming mechanism (10), which includes a trimming conveyor belt (101), a trimming placement tray (102), and a cutting assembly (103). The trimming conveyor belt (101) drives the placement tray past the cutting assembly (103), which is used to trim the gloves on the trimming placement tray (102).

7. The manufacturing process of anti-slip gloves, characterized in that, The anti-slip glove production line according to any one of claims 1-6 includes the following steps: S1, mold loading; the worker attaches the lining fabric to the hand mold (12); S2, spray water to brush the bristles; the hand mold (12) moves to the water spray device (2) to wet the lining; S3, First drying, the first drying mechanism (3) dries the lining fabric; S4, coating, coating device (4) coats the lining fabric with adhesive; S5, Second drying, the second drying mechanism (5) dries the adhesive liquid; S6; Dipping, the dip tank (6) applies glue to the lining fabric a second time; S7, Spraying: When the dipped plastic liquid is not dry, plastic particles are sprayed onto the surface of the glove by manual operation through a spray gun (7). S8, third drying, the third drying mechanism (8) dries the adhesive liquid, while the plastic particles are fixed on the surface of the glove; S9, demolding and unloading; after the adhesive cools, manually remove the gloves from the hand mold (12); S10, trimming: After removing the glove, trim the edge of the glove arm to remove excess lining.

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