Antistatic agent coating device for glove production

Abstract

The invention relates to the technical field of coating, in particular to an antistatic agent coating device for glove production, which comprises a shell, a transportation mechanism arranged in the shell, and a plurality of groups of mounting parts arranged on the transportation mechanism, the device is characterized by further comprising a soaking box arranged at the bottom of the mounting part and an air cylinder arranged at the bottom of the soaking box, a partition plate is arranged in the soaking box and divides the soaking box into two areas, namely a soaking area and a spraying area, and an antistatic agent is contained in the soaking area; microbubbles left on the surface of the glove and between fingers are dispersed through gas sprayed out of the sleeve, meanwhile, the antistatic agent is atomized and sprayed out through the gas, the antistatic agent lost due to blocking of the microbubbles on the glove is supplemented through the atomized antistatic agent after the glove is soaked, the gas enables the glove to generate a slight bulging effect, and the glove is prevented from being scratched. The surface of the glove is smoother, and permeation and attachment of the antistatic agent are facilitated.

Description

Technical Field

[0001] The invention relates to the technical field of coating, in particular to an antistatic agent coating device for glove production. Background Art

[0002] The antistatic agent coating device for glove production is a device used to evenly coat the antistatic agent on the surface of gloves. Its main purpose is to reduce the accumulation of static electricity on the surface of gloves, prevent dust adsorption, and improve the performance and cleanliness of gloves. Common coating methods include soaking and spraying. Soaking first soaks the gloves or glove materials in the antistatic agent solution, and then removes excess liquid by drying to ensure that the antistatic agent is evenly attached. In addition, the spray coating device evenly sprays the vaporized antistatic agent onto the surface of the gloves through the jet pipe, which has the characteristics of simple structure and good static elimination effect.

[0003] In the existing technology, antistatic gloves are key personal protective equipment in the fields of electronic manufacturing, medical clean rooms and precision instrument operation. The uniformity and reliability of their surface antistatic properties directly affect work safety and product quality. At present, the industry generally uses the antistatic agent immersion process to treat the surface of gloves. This technology is widely used because of its simple operation, low equipment investment and suitability for large-scale continuous production. However, with the continuous improvement of the antistatic level requirements of precision industries (such as the semiconductor industry needs to achieve a surface resistance of ≤1×10 6 Ω / sq), the inherent defects of the traditional immersion process are gradually highlighted: 1. When the gloves are immersed in the antistatic agent solution, airtight cavities are easily formed in the complex curved areas such as the finger joints and the base of the thumb. When the speed at which the gloves enter the solution exceeds the liquid infiltration rate (usually 0.1-0.5m / s), the air is compressed in the gaps between the fingers to form microbubbles with a diameter of 50-200μm. These bubbles hinder the effective adhesion of the antistatic agent to the gloves, and the micro-turbulence generated by the bursting of the bubbles disrupts the continuity of the liquid film, and the coverage of the antistatic agent decreases by 40%-60%, which not only affects the antistatic performance of the gloves, making it difficult to meet the established standards, but also reduces the overall protective effect due to the presence of these uncoated areas.

[0004] Although the prior art attempts to eliminate bubbles through vacuum degassing or mechanical vibration, vacuum treatment can easily cause deformation of thin-walled gloves, while high-frequency vibration can accelerate the aggregation and sedimentation of the effective ingredients of the antistatic agent (such as quaternary ammonium salts and carbon nanotubes), exacerbating the uneven distribution of the antistatic agent ingredients.

[0005] Therefore, an antistatic agent coating device for glove production is proposed. Summary of the invention

[0006] The purpose of the present invention is to provide an antistatic agent coating device for glove production. When the speed of the glove entering the solution exceeds the liquid infiltration rate, the air is compressed in the gap between the fingers to form microbubbles with a diameter of 50 to 200 μm. These bubbles hinder the antistatic agent from effectively adhering to the glove. The device disperses the microbubbles remaining on the glove surface and between the fingers through the gas sprayed from the sleeve, and at the same time, the antistatic agent is atomized and sprayed out by the gas, so that the antistatic agent missing on the glove due to the obstruction of microbubbles is supplemented by the atomized antistatic agent after the glove is soaked, and the gas causes the glove to produce a slight bulging effect, making the glove surface smoother, which is conducive to the penetration and adhesion of the antistatic agent.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] An antistatic agent coating device for glove production comprises a shell, a transport mechanism arranged in the shell, and a mounting member arranged on the transport mechanism, wherein the mounting member is provided with multiple groups, and further comprises a soaking box arranged at the bottom of the mounting member, and a cylinder arranged at the bottom of the soaking box. A partition is arranged in the soaking box, and the partition divides the soaking box into two areas, namely a soaking area and a spraying area. The soaking area is filled with antistatic agent, and a sleeve is arranged in the spraying area. A connecting pipe is arranged in the sleeve, and a linkage component is arranged on the connecting pipe. The connecting pipe is connected with the soaking area. After soaking, the mounting member passes over the linkage component and drives the linkage component to be pressed down. The connecting pipe is also connected to an air pump, and a nozzle is opened on the sleeve. The air pump sprays gas through the nozzle, and the nozzle is flush with a port of the connecting pipe. In the process of the linkage component being pressed down and restored, the antistatic agent is adsorbed to the port of the connecting pipe.

[0009] It can be seen that in the prior art, when the speed at which the gloves quickly enter the solution exceeds the natural infiltration rate of the liquid (which is usually between 0.1 and 0.5 m / s), a significant problem will occur: the air is quickly compressed and retained in the gaps between the fingers of the gloves, thereby forming tiny bubbles with a diameter of 50 to 200 microns. These microbubbles act as barriers, seriously hindering the effective adhesion of the antistatic agent, making it impossible for some complex curved surface areas on the gloves to be fully coated with the antistatic agent. This not only affects the antistatic performance of the gloves, making it difficult to meet the established standards, but also reduces the overall protective effect due to the presence of these uncoated areas.

[0010] To address this technical difficulty, this device introduces a technical solution that combines cannula jetting and spraying. After the glove is fully soaked in the soaking area, it continues to move forward and passes over the top of the cannula. At this time, the cannula first sprays a stream of gas at the moment when the glove is about to reach directly above it. The role of this gas is: on the one hand, it can help disperse or reduce the microbubbles remaining on the surface of the glove and between the fingers, creating conditions for the uniform spraying of the antistatic agent; on the other hand, the spraying of the gas can also produce a slight bulging effect on the glove, making the surface of the glove smoother, which is conducive to the penetration and adhesion of the antistatic agent.

[0011] Then, when the glove is just above the sleeve, the connecting tube will use gas to spray antistatic agent spray, and these fine droplets can quickly and evenly cover the surface of the glove, especially those complex curved areas that are difficult to reach. In this way, not only the antistatic agent lost due to microbubble obstruction is effectively supplemented, but also there is no need to add an additional soaking step to thicken the gloves, thus maintaining the original flexibility and comfort of the gloves.

[0012] The beneficial effects of this technical solution are: it significantly improves the coating uniformity and coverage of the antistatic agent on the gloves, ensuring that the antistatic performance of the gloves can fully meet the standards; at the same time, by optimizing the spraying process, it avoids unnecessary immersion and thickening, maintaining the original quality and use experience of the gloves. In addition, the solution is simple to operate and easy to implement, providing a new efficient and economical way for the antistatic treatment of gloves.

[0013] Preferably, the mounting part includes a support rod, a mold and a baffle, the support rod is movably connected to the transport mechanism, the mold is provided with a plurality of linear arrays on the support rod, the baffle is provided above the mold, the gloves are manually put on the mold one by one, and then soaked in the antistatic agent in an assembly line manner through the transport mechanism, thereby improving the production efficiency.

[0014] Preferably, the sleeve also includes a fixing block, a circular hole, a nozzle, a connecting groove and an air outlet, the fixing block is arranged in the sleeve, the circular holes are opened on the fixing block and are provided in multiple groups, the nozzle is arranged at the end of the sleeve, the connecting groove is opened below the nozzle, and the air outlet is opened at the end of the nozzle, and the gas from the air pump is sprayed outside through the circular hole and the air outlet of the fixing block respectively.

[0015] Preferably, the center lines of the upper and lower ends of the connecting pipe are consistent, and the diameter is smaller at the top and larger at the bottom. A guide plate is also provided on the nozzle, and the space between the guide plate and the nozzle section is in a trumpet shape that expands outward. The guide plate can buffer the speed of gas injection and guide the diffusion of the spray.

[0016] Preferably, the end of the guide plate is parallel to the bottom surface of the mold, and when the spray is diffused, the angle of the mold is set so that the spray evenly covers the glove.

[0017] Preferably, the linkage assembly includes a pressure plate, a connecting rod, a spring and an extrusion rod. The pressure plate moves in the connecting tube. The connecting rod is fixedly connected to the pressure plate and passes through the side walls of the connecting tube and the sleeve. The spring is arranged between the immersion box and the connecting rod. The extrusion rod is arranged on the connecting rod. The linkage assembly is triggered after the mold passes by, and is pressed down by the movement of the mold without the need for external force.

[0018] Preferably, the extrusion rod is arranged between two groups of dies, and a slope is provided on the extrusion rod, and the slope matches with the bottom surface of the baffle.

[0019] Preferably, the pressing plate includes a cavity and a cover plate, the cover plate is installed on the cavity via a hinge, and the cavity and the cover plate are provided in multiple groups. The cover plate can only be flipped upwards under the action of the hinge, so that the antistatic agent can flow to the top of the pressing plate through the cover plate when the pressing plate is pressed down, and when the pressing plate is pulled upward, the antistatic agent is in a closed state and can only be sprayed out through the port of the connecting pipe.

[0020] Preferably, the pressing plate is made of soft polyvinyl chloride plastic material, which enables the pressing plate to rise slowly after losing the extrusion force, and has a buffering effect and is also anti-aging.

[0021] Compared with the prior art, the present invention has the following beneficial effects:

[0022] 1. Through the synergistic effects of air flow spraying and spray diffusion, it is ensured that the antistatic agent can fully penetrate into the glove fiber and evenly cover the glove surface and complex curved areas. In particular, the design of the guide plate and the spray diffusion mechanism effectively supplement the antistatic agent lost due to the obstruction of microbubbles, avoiding the problem of uneven coating, thereby achieving efficient and uniform coating of the antistatic agent.

[0023] 2. During the entire treatment process, the process design fully considers the flexibility and comfort of the gloves. For example, when the gas is sprayed out, it is buffered and diffused through the guide plate to avoid the gas directly impacting the gloves. At the same time, the gas will accelerate the solidification of the antistatic agent on the gloves to avoid the antistatic agent flowing downward and accumulating at the fingertips of the gloves due to the fluidity of the antistatic agent during the initial coating. This design not only protects the texture of the gloves, but also avoids affecting the flexibility and comfort of the gloves due to the antistatic agent being too thick.

[0024] 3. This device reduces manual intervention and additional soaking steps, reduces production costs and operating difficulties. At the same time, the precise gas spraying and spray diffusion mechanism ensures uniform coating of the antistatic agent, reduces the defective rate caused by uneven coating, and thus improves production efficiency and product quality stability. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a schematic diagram of the overall structure of an antistatic agent coating device for glove production according to the present invention;

[0026] Figure 2 This is a schematic cross-sectional structure diagram of an antistatic agent coating device for glove production according to the present invention;

[0027] Figure 3 It is a schematic diagram of the cross-sectional structure of the present invention taking the central axis of the connecting pipe as the section line;

[0028] Figure 4 For the present invention Figure 3 A schematic diagram of the enlarged structure at point A;

[0029] Figure 5 A cutaway plan view of an antistatic agent coating device for glove production according to the present invention;

[0030] Figure 6 It is a structural schematic diagram of the sleeve of the present invention;

[0031] Figure 7 It is a schematic diagram of the structure of the sleeve of the present invention from another angle;

[0032] Figure 8 It is a structural schematic diagram of the pressing plate of the present invention;

[0033] Fig. 9 A schematic diagram of a gas path of an antistatic agent coating device for glove production according to the present invention;

[0034] In the figure: 1. shell; 2. transport mechanism; 3. mounting part; 4. immersion box; 5. cylinder; 6. partition; 7. immersion area; 8. spraying area; 9. sleeve; 10. connecting pipe; 11. linkage assembly; 12. air pump; 13. nozzle; 31. support rod; 32. mold; 33. baffle; 91. fixing block; 92. round hole; 93. nozzle; 94. air outlet; 95. guide plate; 111. pressure plate; 112. connecting rod; 113. spring; 114. extrusion rod; 1112. cavity; 1113. cover plate. DETAILED DESCRIPTION

[0035] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0036] See also Figures 1 to 9 The present invention provides an antistatic agent coating device for glove production, and the technical solution is as follows:

[0037] As an embodiment of the present invention, refer to Figures 1-2 A device for coating gloves with an antistatic agent comprises a housing 1, a transport mechanism 2 arranged in the housing 1, a mounting member 3 arranged on the transport mechanism 2, the mounting member 3 being provided with a plurality of groups, a soaking box 4 arranged at the bottom of the mounting member 3, a cylinder 5 arranged at the bottom of the soaking box 4, a partition 6 arranged in the soaking box 4, the partition 6 divides the soaking box 4 into two areas, namely a soaking area 7 and a spraying area 8, the soaking area 7 is filled with an antistatic agent, the spraying area 8 is provided with a sleeve 9, and the sleeve 9 is provided with a connecting A connecting pipe 10 is connected, and a linkage component 11 is arranged on the connecting pipe 10. The connecting pipe 10 is connected to the immersion area 7. After immersion, the mounting member 3 passes over the linkage component 11 and drives the linkage component 11 to be pressed down. The connecting pipe 10 is also connected to an air pump 12. A nozzle 13 is provided on the sleeve 9. The air pump 12 sprays gas through the nozzle 13. The nozzle 13 is flush with the port of the connecting pipe 10. During the process of the linkage component 11 being pressed down and restored, the antistatic agent is adsorbed to the port of the connecting pipe 10.

[0038] It can be seen that in the prior art, when the speed at which the gloves quickly enter the solution exceeds the natural infiltration rate of the liquid (which is usually between 0.1 and 0.5 m / s), a significant problem will occur: the air is quickly compressed and retained in the gaps between the fingers of the gloves, thereby forming tiny bubbles with a diameter of 50 to 200 microns. These microbubbles act as barriers, seriously hindering the effective adhesion of the antistatic agent, making it impossible for some complex curved surface areas on the gloves to be fully coated with the antistatic agent. This not only affects the antistatic performance of the gloves, making it difficult to meet the established standards, but also reduces the overall protective effect due to the presence of these uncoated areas.

[0039] In order to solve this technical problem, the present device introduces a technical solution combining the jet and spray of the sleeve 9. After the glove is fully soaked in the soaking area 7, it continues to move forward and passes over the top of the sleeve 9. At this time, the sleeve 9 first sprays a gas at the moment when the glove is about to reach directly above it. The role of this gas is: on the one hand, it can help disperse or reduce the microbubbles remaining on the surface of the glove and between the fingers, creating conditions for the uniform spraying of the antistatic agent; on the other hand, the spraying of the gas can also produce a slight bulging effect on the glove, making the surface of the glove smoother, which is conducive to the penetration and adhesion of the antistatic agent.

[0040] Then, when the glove is just above the sleeve 9, the connecting tube 10 will use gas to spray antistatic agent spray, and these fine droplets can quickly and evenly cover the surface of the glove, especially those complex curved areas that are difficult to reach. In this way, not only the antistatic agent lost due to the obstruction of microbubbles is effectively supplemented, but also there is no need to add an additional soaking step to thicken the gloves, thereby maintaining the original flexibility and comfort of the gloves.

[0041] The beneficial effects of this technical solution are: it significantly improves the coating uniformity and coverage of the antistatic agent on the gloves, ensuring that the antistatic performance of the gloves can fully meet the standards; at the same time, by optimizing the spraying process, it avoids unnecessary immersion and thickening, maintaining the original quality and use experience of the gloves. In addition, the solution is simple to operate and easy to implement, providing a new efficient and economical way for the antistatic treatment of gloves.

[0042] As an embodiment of the present invention, refer to Figures 2-3 The mounting member 3 includes a support rod 31, a mold 32 and a baffle 33. The support rod 31 is movably connected to the transport mechanism 2. The mold 32 is provided with a plurality of linear arrays on the support rod 31. The baffle 33 is provided above the mold 32. The gloves are manually put on the mold 32 one by one, and then the mold 32 is driven by the transport mechanism 2 to move above the soaking box 4 in an assembly line manner. When the mold 32 reaches above the soaking area 7, the cylinder 5 drives the soaking box 4 to rise, and the gloves are soaked in the antistatic agent, thereby improving the production efficiency.

[0043] As an embodiment of the present invention, refer to Figure 4 The sleeve 9 also includes a fixing block 91, a circular hole 92, a nozzle 93, a connecting groove and an air outlet 94. The fixing block 91 is arranged in the sleeve 9, the circular hole 92 is opened on the fixing block 91 and is provided in multiple groups, the nozzle 93 is arranged at the end of the sleeve 9, the connecting groove is opened below the nozzle 93, and the air outlet 94 is opened at the end of the nozzle 93. The gas of the air pump 12 is respectively sprayed outside through the circular hole 92 of the fixing block 91 and the air outlet 94.

[0044] As an embodiment of the present invention, refer to Figure 4 and Figure 6 The center lines of the upper and lower ends of the connecting pipe 10 are consistent, and the diameter is smaller at the top and larger at the bottom. A guide plate 95 is also provided on the nozzle 93. The space between the guide plate 95 and the cross section of the nozzle 93 is in the shape of a trumpet that expands outward. The guide plate 95 can buffer the speed of gas injection and guide the diffusion of the spray. When the spray diffuses, it diffuses outward in a fan-shaped manner.

[0045] As an embodiment of the present invention, refer to Figure 5 The end of the guide plate 95 is parallel to the bottom surface of the mold 32. When the spray is diffused, the angle of the mold 32 is set so that the spray is evenly covered on the glove. When the spray is sprayed, the end of the guide plate 95 is parallel to the bottom surface of the mold 32 and the distance between the two is the same, so the spray can be evenly sprayed on the glove.

[0046] As an embodiment of the present invention, refer to Figure 4 , Figure 5 and Figure 7 The linkage assembly 11 includes a pressing plate 111, a connecting rod 112, a spring 113 and an extrusion rod 114. The pressing plate 111 moves in the connecting tube 10. The connecting rod 112 is fixedly connected to the pressing plate 111 and passes through the side walls of the connecting tube 10 and the sleeve 9. The spring 113 is arranged between the immersion box 4 and the connecting rod 112. The extrusion rod 114 is arranged on the connecting rod 112. The linkage assembly 11 is arranged to be triggered after the mold 32 passes, and is pressed down by the movement of the mold 32 without the aid of external force: when the transportation mechanism 2 drives the mold 32 to move, the baffle 33 on the mold 32 passes over the extrusion rod 114, and then passes through the extrusion rod 114 to drive the downward pressure, so that the connecting rod 112 under the extrusion rod 114 and the pressing plate 111 are pressed down in the connecting tube 10.

[0047] As an embodiment of the present invention, refer to Figure 3 The extrusion rod 114 is arranged between the two sets of dies 32 , and a slope is arranged on the extrusion rod 114 , and the slope matches the bottom surface of the baffle 33 .

[0048] As an embodiment of the present invention, refer to Figure 8 The pressing plate 111 includes a cavity 1112 and a cover plate 1113. The cover plate 1113 is installed on the cavity 1112 via a hinge, and there are multiple sets of the cavity 1112 and the cover plate 1113. The cover plate 1113 can only be flipped upward under the action of the hinge, so that the antistatic agent can flow to the top of the pressing plate 111 through the cover plate 1113 when the pressing plate 111 is pressed down. When the pressing plate 111 is pulled upward, the antistatic agent is in a closed state and can only be sprayed out through the port of the connecting pipe 10.

[0049] As an embodiment of the present invention, refer to Figure 6The pressing plate 111 is made of soft polyvinyl chloride plastic material, which enables the pressing plate 111 to rise slowly after losing the extrusion force, and has a buffering effect and is also anti-aging.

[0050] Working principle: In the antistatic agent treatment process of gloves, the gloves are manually put on the mold 32 one by one, and then the mold 32 is driven by the transportation mechanism 2 in an assembly line manner and moved to the top of the immersion box 4. When the mold 32 is accurately positioned at the immersion area 7, the cylinder 5 drives the immersion box 4 to rise, and the gloves are completely immersed in the antistatic agent solution to complete the initial coating process, ensuring that the antistatic agent can fully penetrate into the glove fiber.

[0051] After the soaking is completed, the cylinder 5 starts again, driving the soaking box 4 to descend steadily, and the surface of the glove is evenly covered with a layer of antistatic agent. At this time, the transport mechanism 2 adjusts the direction to make the glove deflect at an angle, and then drives the glove to continue to move. During the movement of the glove, the air pump 12 starts to spray air to the glove through the nozzle 93. When the gas is sprayed out of the nozzle 93, the gas outlet 94 encounters the guide plate 95. The guide plate 95 not only buffers the gas spray speed, but also guides the gas to diffuse outward in a fan-shaped manner. Fig. 9 The airflow effectively disperses the residual microbubbles on the surface of the gloves and between the fingers, creating favorable conditions for the subsequent spraying of the antistatic agent. At the same time, the gas spray also produces a slight swelling effect on the gloves, making the surface of the gloves smoother, which is conducive to the further penetration and adhesion of the antistatic agent.

[0052] It is worth noting that the end of the guide plate 95 is kept parallel to the bottom surface of the mold 32, and the distance between the two is calculated to ensure that the gas can be evenly sprayed on the gloves. This design not only accelerates the solidification process of the antistatic agent on the gloves, prevents the accumulation of the antistatic agent at the fingertips of the gloves, but also avoids the gas from directly impacting the gloves, thereby protecting the texture of the gloves.

[0053] As the mold 32 continues to move forward, the baffle 33 on it comes into contact with the extrusion rod 114, driving the extrusion rod 114 and the connecting rod 112 and the pressing plate 111 below to sink into the connecting tube 10. At this time, the antistatic agent flows into the top of the pressing plate 111 through the cover plate 1113. When the pressing plate 111 is pulled upward, the cover plate 1113 cannot be opened downward due to structural limitations, so the pressing plate 111 is in a closed state, lifting the antistatic agent to the port of the connecting tube 10. Since the nozzles 13 around the connecting tube 10 continue to spray gas, the gas carries the antistatic agent to form a spray, which diffuses from the guide plate 95. Under the guidance of the gas on both sides of the guide plate 95, the spray diffuses to both sides. When the glove passes through this spray, the complex curved surface area is evenly covered with the antistatic agent.

[0054] The device not only cleverly supplements the antistatic agent that is missing due to microbubble obstruction, but also eliminates the need to thicken the gloves by adding an extra soaking step. Therefore, the process achieves efficient and uniform coating of the antistatic agent while maintaining the original flexibility and comfort of the gloves.

[0055] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An antistatic agent coating device for glove production, comprising a housing (1), a transport mechanism (2) arranged in the housing (1), and a mounting member (3) arranged on the transport mechanism (2), wherein the mounting member (3) is provided in a plurality of groups, and characterized in that: The device also comprises a soaking box (4) arranged at the bottom of the mounting member (3) and a cylinder (5) arranged at the bottom of the soaking box (4); a partition (6) is arranged in the soaking box (4); the partition (6) divides the soaking box (4) into two areas, namely a soaking area (7) and a spraying area (8); an antistatic agent is contained in the soaking area (7); a sleeve (9) is arranged in the spraying area (8); a connecting pipe (10) is arranged in the sleeve (9); a linkage assembly (11) is arranged on the connecting pipe (10); The connecting pipe (10) is connected to the soaking area (7); the mounting part (3) passes over the linkage component (11) after soaking and drives the linkage component (11) to be pressed downward; the connecting pipe (10) is also connected to an air pump (12); a nozzle (13) is provided on the sleeve (9); the air pump (12) sprays gas through the nozzle (13); the nozzle (13) is flush with the end of the connecting pipe (10); and the antistatic agent is adsorbed onto the end of the connecting pipe (10) during the process of the linkage component (11) being pressed downward and restored.

2. The antistatic agent coating device for glove production according to claim 1, characterized in that: The mounting member (3) comprises a support rod (31), a mold (32) and a baffle (33); the support rod (31) is movably connected to the transport mechanism (2); the mold (32) is provided with a plurality of linear arrays on the support rod (31); and the baffle (33) is provided above the mold (32).

3. The antistatic agent coating device for glove production according to claim 2, characterized in that: The sleeve (9) further comprises a fixing block (91), a circular hole (92), a nozzle (93), a connecting groove and an air outlet (94); the fixing block (91) is arranged in the sleeve (9); the circular hole (92) is provided on the fixing block (91) and is provided in a plurality of groups; the nozzle (93) is provided at the end of the sleeve (9); the connecting groove is provided below the nozzle (93); and the air outlet (94) is provided at the end of the nozzle (93).

4. The antistatic agent coating device for glove production according to claim 3, characterized in that: The center lines of the upper and lower ends of the connecting pipe (10) are consistent, and the diameter is smaller at the top and larger at the bottom. A guide plate (95) is also provided on the nozzle (93), and the space between the guide plate (95) and the cross section of the nozzle (93) is in a trumpet shape that expands outwards.

5. The antistatic agent coating device for glove production according to claim 4, characterized in that: The end of the guide plate (95) is parallel to the bottom surface of the mold (32).

6. The antistatic agent coating device for glove production according to claim 5, characterized in that: The linkage assembly (11) comprises a pressing plate (111), a connecting rod (112), a spring (113) and an extrusion rod (114); the pressing plate (111) moves in the connecting tube (10); the connecting rod (112) is fixedly connected to the pressing plate (111) and passes through the side walls of the connecting tube (10) and the sleeve (9); the spring (113) is arranged between the soaking box (4) and the connecting rod (112); and the extrusion rod (114) is arranged on the connecting rod (112).

7. The antistatic agent coating device for glove production according to claim 6, characterized in that: The extrusion rod (114) is arranged between two groups of dies (32), and a slope surface is arranged on the extrusion rod (114), and the slope surface matches the bottom surface of the baffle (33).

8. The antistatic agent coating device for glove production according to claim 6 or 7, characterized in that: The pressing plate (111) comprises a cavity (1112) and a cover plate (1113); the cover plate (1113) is installed on the cavity (1112) via a hinge, and there are multiple groups of the cavity (1112) and the cover plate (1113).

9. The antistatic agent coating device for glove production according to claim 8, characterized in that: The pressing plate (111) is made of soft polyvinyl chloride plastic.

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