A glue-blocking type protective glove dipping mechanism and a dipping method thereof

Abstract

The application discloses a glue-blocking type protective glove dipping mechanism and a dipping method thereof, and comprises a fixing frame, a dipping tank, a glove mold core, a walking block, a rotating support and a glue-blocking mechanism. The glue-blocking disc is flipped up and down, so that the glue can be quickly blocked and the next drying process is entered, the operation efficiency is improved, and the glue liquid cannot drip to other areas. After the dipping is completed, the dipping tank is moved downward, the dipping tank is separated from the plurality of glove mold cores, then the power gear is driven to rotate by the power motor, the power gear is engaged with the rotating ring body to rotate, the rotating ring body drives the whole glue-blocking disc to rotate through the fixed support rod, the glue-blocking disc is rotated from above the plurality of glove mold cores to below the plurality of glove mold cores, the glue liquid dripping on the glove mold core is blocked, and thus the glove mold core can continue to advance into the drying box for drying, and the glue liquid cannot drip to other external areas.

Description

Technical Field

[0001] This invention relates to a glue-blocking protective glove impregnation mechanism and a glue impregnation method thereof. Background Technology

[0002] With economic and social development, safety and health are receiving increasing attention. Work gloves, as an important component of personal protective equipment, effectively prevent or reduce workplace accidents and occupational diseases, serving as the last line of defense for worker safety. Their wide range of applications has garnered widespread attention. Currently, the manufacturing process for protective gloves typically involves immersing the glove liner in a glue-impregnation tank to coat it with a polymer coating. The coated liner is then sent to a drying device to cure the polymer coating. However, after glue impregnation, glue typically drips onto the liner, requiring the liner to slowly drip dry before being placed in a drying oven. This process is inefficient. Alternatively, the glue-impregnated liner can be directly placed in the drying oven, but this causes glue to drip onto other areas, increasing the difficulty of subsequent cleaning. Therefore, structural upgrades and research are needed. Summary of the Invention

[0003] To address the shortcomings of the prior art, the present invention provides a glue-dipping mechanism and method for a glue-blocking protective glove that is highly efficient in operation and prevents glue from dripping into other areas.

[0004] To solve the above problems, the technical solution adopted by the present invention is as follows: A glue-blocking protective glove dipping mechanism includes a fixed frame, a glue-blocking tank, glove mold cores, a traveling block, a rotating bracket, and a glue-blocking mechanism. The glue-blocking tank is installed in the middle of the fixed frame, and floats vertically within the frame. A rotating bracket is installed above the center of the fixed frame. Multiple glove mold cores are evenly installed on the lower side of the rotating bracket. A traveling block is installed on each side of the rotating bracket, and the rotating bracket rotates between the traveling blocks and moves back and forth with them. The glue-blocking mechanism is installed in the middle of the fixed frame. The glue-blocking mechanism includes a circular protrusion, a rotating ring, a power motor, a drive shaft, a power gear, a glue-blocking disc, and a fixed bracket rod. The inner sides of the traveling blocks are equipped with... A circular protrusion is provided, and a rotating ring is rotatably engaged on each of the two circular protrusions. A rotating bracket is installed between the two circular protrusions. A rubber-blocking disc is installed on the upper side of the rotating bracket. A fixed bracket rod is installed at each of the lower ends of the rubber-blocking disc, and the lower ends of the fixed bracket rods are connected to the inner ends of the rotating rings. In one of the two rotating rings, the outer gear of the rotating ring meshes with a power gear. The outer side of the power gear is connected to a drive shaft, and the outer end of the drive shaft is connected to a power motor. The power motor is installed on one side of the fixed bracket and is fixedly connected to a walking block, moving back and forth with the walking block. The power motor drives the rubber-blocking disc to rotate from above the glove mold core to below the glove mold core.

[0005] Furthermore, a drain pipe is provided in the middle of the rubber baffle; an opening and closing valve is provided at the outer end of the drain pipe.

[0006] Furthermore, the fixed support rod has an L-shaped structure.

[0007] Furthermore, the circular protrusion is provided with an annular groove around its perimeter; the inner side of the rotating ring is provided with embedded rotating teeth on its upper and lower sides respectively; the rotating ring is rotatably engaged with the annular groove of the circular protrusion through the embedded rotating teeth on its upper and lower sides.

[0008] Furthermore, of the two circular protrusions, one of the circular protrusions is provided with a rotating motor on its inner side. The inner side of the rotating motor is connected to one side of the rotating bracket via a rotating shaft, and the other side of the rotating bracket is rotatably engaged with the other circular protrusion via a rotating locking post.

[0009] Furthermore, the fixing frame has longitudinal slide rails on both sides; the glue impregnation tank has sliding blocks on both sides; the sliding blocks are slidably mounted on the longitudinal slide rails and driven up and down by a longitudinal lead screw and a power unit.

[0010] A glue-dipping method for a glue-blocking protective glove dipping mechanism includes the following steps: Multiple glove mold cores on the lower side of a rotating bracket are immersed in a glue-dipping tank for glue dipping. After dipping, the glue-dipping tank is moved downwards, causing it to detach from the multiple glove mold cores. Then, a power motor drives a power gear to rotate, which meshes with a rotating ring. The rotating ring, through a fixed support rod, drives the entire glue-blocking disc to rotate, causing the glue-blocking disc to rotate from above the multiple glove mold cores to below them, blocking the glue dripping from the glove mold cores. This allows the glove mold cores to continue moving into the drying chamber for drying without the glue dripping onto other external areas.

[0011] The beneficial effects of this invention are as follows: This invention enables rapid glue blocking before the next drying process by flipping the glue-blocking disc up and down. This eliminates the need to wait for the glue to drip dry before conveying it to the drying chamber, improving work efficiency and preventing glue from dripping into other areas. After the glue impregnation is completed, the glue-blocking tank is moved downwards, detaching it from the multiple glove mold cores. Then, a power motor drives a power gear to rotate, which in turn rotates a ring. The rotating ring, through a fixed support rod, drives the entire glue-blocking disc to rotate, moving it from above the multiple glove mold cores to below them. This blocks any glue dripping from the glove mold cores, allowing them to continue into the drying chamber for drying without dripping glue into other areas. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of the present invention.

[0013] Figure 2 This is a schematic diagram of the structure after the impregnation tank of the present invention has been moved down.

[0014] Figure 3 This is a schematic diagram of the structure of the rubber baffle after it is rotated downwards.

[0015] Figure 4 For the present invention Figure 3 The structural diagram in the middle.

[0016] Figure 5 For the present invention Figure 4 A structural diagram of one side.

[0017] Figure 6 For the present invention Figure 4 A schematic diagram of the structure on the other side.

[0018] Figure 7 For the present invention Figure 4 A schematic diagram of the structure of the intermediate glove mold core and the glue-blocking plate. Implementation

[0019] The invention will now be described in further detail with reference to the accompanying drawings.

[0020] like Figures 1 to 7 As shown, a glue-blocking protective glove dipping mechanism includes a fixed frame 1, a glue-blocking tank 2, a glove mold core 3, a walking block 4, a rotating bracket 5, and a glue-blocking mechanism 6. The glue-blocking tank 2 is installed in the middle of the fixed frame 1, and the glue-blocking tank 2 is vertically floating in the middle of the fixed frame 1. The rotating bracket 5 is installed above the middle of the fixed frame 1. Multiple glove mold cores 3 are evenly installed on the lower side of the rotating bracket 5. A walking block 4 is installed on each side of the rotating bracket 5, and the rotating bracket 5 rotates between the walking blocks 4 and moves back and forth with the walking blocks 4. The glue-blocking mechanism 6 is installed in the middle of the fixed frame 1. The glue-blocking mechanism 6 includes a circular protrusion 64, a rotating ring 63, a power motor 65, a drive shaft 67, a power gear 66, a glue-blocking disc 61, and a fixed bracket rod 62. A circular protrusion 64 is installed on the inner side of each walking block 4. A rotating ring 63 is rotatably connected to each of the two rotating rings 63. A rotating bracket 5 is installed between two circular protrusions 64. A rubber-blocking disc 61 is installed on the upper side of the rotating bracket 5. A fixed bracket rod 62 is installed at each of the lower ends of the rubber-blocking disc 61. The lower ends of the fixed bracket rods 62 are connected to the inner ends of the rotating ring 63. In one of the rotating rings 63, the outer gear of one of the rotating rings 63 is meshed with a power gear 66. The outer side of the power gear 66 is connected to a drive shaft 67. The outer end of the drive shaft 67 is connected to a power motor 65. The power motor 65 is installed on one side of the fixed frame 1. The power motor 65 is fixedly connected to a walking block 4 and moves back and forth with the walking block 4. The power motor 65 drives the rubber-blocking disc 61 to rotate from above the glove mold core 3 to below the glove mold core 3. The walking block 4 of the present invention can be driven by an external lead screw and a motor.

[0021] like Figures 1 to 7 As shown, to facilitate cleaning of the rubber baffle 61, a drain pipe 8 is further provided in the middle of the rubber baffle 61; an on / off valve 81 is provided at the outer end of the drain pipe 8. Furthermore, the fixed support rod has an L-shaped structure. To facilitate stable rotation of the rotating ring 63, an annular groove is provided around the circular protrusion 64; embedded rotating teeth are provided on the upper and lower inner sides of the rotating ring 63; the rotating ring 63 is rotatably engaged with the annular groove of the circular protrusion 64 through the embedded rotating teeth on the upper and lower inner sides. To facilitate rotational drive of the rotating bracket 62, one of the two circular protrusions 64 has a rotating motor 7 inside, the rotating motor 7 is connected to one side of the rotating bracket 5 through a rotating shaft 71, and the other side of the rotating bracket 5 is rotatably engaged with the other circular protrusion 64 through a rotating engaging post 51.

[0022] like Figures 1 to 7As shown, in order to facilitate the up-and-down driving of the impregnation tank 2, the fixed frame 1 is further provided with longitudinal slide rails 11 on both sides; the impregnation tank 2 is provided with sliding blocks 21 on both sides; the sliding blocks 21 are slidably mounted on the longitudinal slide rails 11 and are driven up and down by the longitudinal lead screw 22 and the power unit 23.

[0023] like Figures 1 to 7 As shown, a glue-dipping method for a glue-blocking protective glove dipping mechanism includes the following steps: Multiple glove mold cores 3 on the lower side of the rotating bracket 5 are immersed in the glue-dipping pool 2 for glue dipping. After glue dipping is completed, the glue-dipping pool 2 is moved downwards, causing it to detach from the multiple glove mold cores 3. Then, a power motor 66 drives a power gear 66 to rotate, which meshes with a rotating ring 63. The rotating ring 63, through a fixed bracket rod 62, drives the entire glue-blocking disc 61 to rotate, causing the glue-blocking disc 61 to rotate from above the multiple glove mold cores 3 to below them, blocking the glue dripping from the glove mold cores 3. This allows the glove mold cores 3 to continue moving into the drying chamber for drying without the glue dripping onto other external areas.

[0024] This invention enables rapid glue blocking and entry into the next drying process by flipping the glue-blocking disc 61 up and down. This eliminates the need to wait for the glue to drip dry before conveying it to the drying chamber, improving work efficiency and preventing glue from dripping into other areas. After the glue impregnation is completed, the glue-blocking tank 2 is moved downwards, causing it to detach from the multiple glove mold cores 3. Then, the power motor 65 drives the power gear 66 to rotate, which in turn meshes with the rotating ring 63. The rotating ring 63, through the fixed support rod 62, drives the entire glue-blocking disc 61 to rotate, causing the glue-blocking disc 61 to rotate from above the multiple glove mold cores 3 to below them, blocking the glue dripping from the glove mold cores 3. In this way, the glove mold cores 3 can continue to advance into the drying chamber for drying without the glue dripping into other external areas.

[0025] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A glue-blocking protective glove dipping mechanism, characterized in that, The system includes a fixed frame, an impregnation tank, glove mold cores, traveling blocks, a rotating bracket, and a glue-blocking mechanism. The impregnation tank is installed in the center of the fixed frame, and it floats vertically within the frame. A rotating bracket is installed above the center of the fixed frame. Multiple glove mold cores are evenly installed on the lower side of the rotating bracket. A traveling block is installed on each side of the rotating bracket, and the rotating bracket rotates between the traveling blocks and moves back and forth with them. The glue-blocking mechanism is installed in the center of the fixed frame and includes a circular protrusion, a rotating ring, a power motor, a drive shaft, a power gear, a glue-blocking disc, and a fixed bracket rod. A circular protrusion is installed on the inner side of each traveling block. Each circular protrusion is rotatably engaged with a rotating ring, and a rotating bracket is installed between the two circular protrusions. A rubber-blocking disc is installed on the upper side of the rotating bracket. A fixed bracket rod is installed at each of the lower ends of the rubber-blocking disc, and the lower ends of the fixed bracket rods are connected to the inner ends of the rotating rings. In one of the two rotating rings, the outer gear of the rotating ring meshes with a power gear. The outer side of the power gear is connected to a drive shaft, and the outer end of the drive shaft is connected to a power motor. The power motor is installed on one side of the fixed bracket and is fixedly connected to a walking block and moves back and forth with the walking block. The power motor drives the rubber-blocking disc to rotate from above the glove mold core to below the glove mold core.

2. The adhesive-impregnating mechanism for the adhesive-blocking protective gloves according to claim 1, characterized in that, The baffle plate has a drain pipe in the middle; the drain pipe has an opening and closing valve at its outer end.

3. The adhesive-impregnating mechanism for the adhesive-blocking protective gloves according to claim 1, characterized in that, The fixed support rod has an L-shaped structure.

4. The adhesive-impregnating mechanism for the adhesive-blocking protective gloves according to claim 1, characterized in that, The circular protrusion is provided with an annular groove around its perimeter; the inner side of the rotating ring is provided with embedded rotating teeth on the upper and lower sides respectively; the rotating ring is rotatably engaged with the annular groove of the circular protrusion through the embedded rotating teeth on the upper and lower sides of its inner side.

5. The adhesive-impregnating mechanism for the adhesive-blocking protective gloves according to claim 1, characterized in that, Of the two circular protrusions, one of the circular protrusions has a rotating motor inside, and the inside of the rotating motor is connected to one side of the rotating bracket via a rotating shaft. The other side of the rotating bracket is rotatably locked onto the other circular protrusion via a rotating locking post.

6. The adhesive-impregnating mechanism for the adhesive-blocking protective gloves according to claim 1, characterized in that, The fixed frame has longitudinal slide rails on both sides; the glue impregnation tank has sliding blocks on both sides; the sliding blocks are slidably mounted on the longitudinal slide rails and driven up and down by a longitudinal lead screw and a power unit.

7. A method for impregnating the adhesive in a glue-blocking protective glove impregnation mechanism according to claim 1, characterized in that, The steps are as follows: Immerse multiple glove mold cores on the lower side of the rotating bracket in the glue-dipping tank for glue dipping. After glue dipping is completed, move the glue-dipping tank downwards so that it detaches from the multiple glove mold cores. Then, drive the power gear to rotate through the power motor. The power gear meshes with the rotating ring to rotate. The rotating ring drives the entire glue-blocking disc to rotate through the fixed bracket rod, so that the glue-blocking disc rotates from above the multiple glove mold cores to below the multiple glove mold cores, blocking the glue dripping from the glove mold cores. In this way, the glove mold cores can continue to move into the drying chamber for drying without the glue dripping onto other external areas.

Images