An automated processing machine for labor protection gloves

Abstract

The invention discloses an automated processing machine for labor protection gloves, comprising a sealed cabin body located on the ground, an exhaust gas purification box and a water circulation component are arranged on the sealed cabin body, the exhaust gas purification box is installed on the top of the sealed cabin body, and the water circulation component is connected to both ends of the sealed cabin body, an exhaust pipe is connected to the top of the exhaust gas purification box, pumping pipelines are installed on both sides of the top of the exhaust gas purification box close to the exhaust pipe, drainage pipelines are installed on both sides of the top of the exhaust gas purification box away from the pumping pipeline, a pipe valve is connected to one side of the exhaust gas purification box, a decomposition tank is provided inside the exhaust gas purification box, and an air pump is also installed at the bottom of the decomposition tank, when the water vapor generated by the high temperature inside the metal frame is transported to the inside of the decomposition tank, the inside of the decomposition tank is filled with sodium hydroxide solution, which can cool the high-temperature water vapor released into the inside of the decomposition tank, and can also absorb and neutralize volatile organic compounds (VOCs) contained in the water vapor.

Description

Technical Field

[0001] The invention relates to the technical field of production of labor protection gloves, in particular to an automated processing machine for labor protection gloves. Background Art

[0002] Labor protection gloves, also known as labor protection gloves, are a type of personal protective equipment that provides hand protection for workers in various working environments. These gloves are made of a variety of materials, including but not limited to cotton yarn, leather, synthetic rubber, plastic and wire, to meet different work needs and protection standards. In the manufacturing process of gloves, it goes through multiple stages: the woven fabric gloves are first heated, then dipped in glue, and then the glue layer is solidified through a drying process, followed by cooling to ensure the stability of the glue layer. At the end of the production process, the gloves also need to go through a printing process to give them specific logos and designs, and finally complete their shape through a demoulding process.

[0003] However, current automated labor protection gloves processing machinery still faces challenges in the production process. For example, when the gloves are dried after dipping, the colloid made of natural rubber will release a certain amount of volatile organic compounds (VOCs) at high temperatures. These volatile organic compounds may not only pose a threat to the health of operators, but also have an adverse effect on air quality. Existing equipment has not yet been able to effectively remove these harmful volatile organic compounds (VOCs) when dealing with gas emissions. At the same time, they are also unable to automatically adjust the working state of the heater according to the flow rate of the exhaust gas, which to a certain extent limits the realization of the dual goals of production efficiency and environmental protection.

[0004] Based on this, we propose an automated processing machine for labor protection gloves to solve the above-mentioned problems. Summary of the invention

[0005] The object of the present invention is to provide an automated processing machine for protective gloves to solve the problem of the automated processing machine for protective gloves releasing volatile organic compounds (VOCs) during drying, as well as the problem of insufficient emission treatment and heating regulation in the above-mentioned background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] An automated processing machine for labor protection gloves, comprising a sealed cabin body located on the ground, an exhaust gas purification box and a water circulation component are arranged on the sealed cabin body, the exhaust gas purification box is installed on the top of the sealed cabin body, and the water circulation component is connected to both ends of the sealed cabin body, an exhaust pipe is connected to the top of the exhaust gas purification box, both sides of the top of the exhaust gas purification box close to the exhaust pipe are installed with pumping pipelines, both sides of the top of the exhaust gas purification box away from the pumping pipeline are installed with drainage pipelines, one side of the exhaust gas purification box is connected with a pipe valve, a decomposition tank is opened inside the exhaust gas purification box, and an air pump is also installed at the bottom of the decomposition tank;

[0008] A micro power generation component is also installed on the top of the exhaust gas purification box. The micro power generation component is located on one side of the exhaust port of the exhaust pipe. A current sensing switch is also connected to the side of the exhaust gas purification box close to the micro power generation component.

[0009] Based on the above technical features, the labor protection gloves automated processing machinery designed in this scheme is mainly composed of a sealed cabin, an exhaust gas purification box and a water circulation component, wherein the exhaust gas purification box includes exhaust pipes, water pumping pipelines, drainage pipelines, pipe valves, decomposition tanks, vacuum pumps, micro-power generation components and current sensing switches. When the electric heater is powered on, the labor protection gloves after the dipping process on the glove mold can be dried and heated. When the electric heater is continuously operated at a constant power, the indoor temperature of the sealed cabin reaches the maximum value. The natural rubber colloid adhered to the surface of the labor protection gloves will release a certain amount of volatile organic compounds (VOCs) under high temperature baking, in addition to evaporating a small amount of water in the body. By installing an air pump at the bottom of the decomposition tank, the air pump port is connected to the top of the guide cavity, and the air pump port is connected to the top of the decomposition tank. When multiple sets of air pumps are operating normally under power-on, the second vent and the first vent are designed to be at the same level, so that the water vapor generated by the high temperature inside the metal frame can be sucked into and transported to the decomposition tank. Since the interior of the decomposition tank is filled with a certain amount of gas decomposition liquid, and the gas decomposition liquid is sodium hydroxide solution, it can not only cool the high-temperature water vapor released into the decomposition tank, but also absorb and neutralize the volatile organic compounds (VOCs) contained in the water vapor.

[0010] Preferably, in the above-mentioned automated processing machinery for labor protection gloves, the exhaust gas purification box includes an insulation shell installed on the outside, one side of the insulation shell is connected to a sealing end plate, one side of the sealing end plate and both ends of the sealed cabin are respectively provided with sealing plug plates, both sides of the insulation shell are installed with heat-conducting mesh plates, and circular grooves are respectively provided around the two sides of the insulation shell, two groups of circulating water pumps are connected to the top of the insulation shell, and a spiral heat-conducting pipe is also connected between the two groups of circulating water pumps, the spiral heat-conducting pipe is located inside the insulation shell, and the spiral heat-conducting pipe is in contact with the heat-conducting mesh plate.

[0011] Based on the above technical features, this solution adopts a structural design of contact and cooperation between the spiral heat pipe and the heat conductive mesh plate. The heat conductive mesh plate can also heat the spiral heat pipe by absorbing the high temperature in the sealed cabin. When the sodium hydroxide solution is circulated in the hot spiral heat conductive pipe, the circulating sodium hydroxide solution can be heated. The heated sodium hydroxide solution can effectively accelerate the efficiency of the reaction between the sodium hydroxide solution and volatile organic compounds (VOCs).

[0012] Preferably, in the above-mentioned automated processing machine for labor protection gloves, the circular groove matches the sealing insert plate structure, and there is a transition fit between the circular groove and the sealing insert plate.

[0013] Based on the above technical features, this solution can improve the sealing performance of the connection between the sealed cabin, the insulation shell and the sealed end plate through the structural design of the transition fit between the round-shaped groove and the sealing plug plate.

[0014] Preferably, in the above-mentioned automated processing machine for labor protection gloves, a control panel is installed on the outside of one end of the sealed cabin, the control panel, micro-generator component and current sensing switch are all electrically connected, and a mechanical transmission component is arranged inside the sealed cabin.

[0015] Based on the above technical features, the control panel, micro-generator component and current sensing switch in this solution are all electrically connected. The current sensing switch adopts a resistive current sensor in the prior art. A constant current threshold is set in the resistive current sensor. When the current generated by the micro-generator component is measured to exceed the set value, the control panel will control the electric heater to stop running. When the current generated by the micro-generator component is measured to be less than the set value, the control panel will control the electric heating device to restart running.

[0016] Preferably, in the above-mentioned automated processing machine for protection gloves, the micro-power generation component includes a micro-generator, one end of the micro-generator is drivingly connected to an impeller, a circular groove is provided at the bottom of the micro-generator, the circular groove is opened inside the exhaust gas purification box, one end of the micro-generator away from the impeller is drivingly connected to an adjusting dial, the adjusting dial is located inside the circular groove, and a plurality of groups of through holes distributed in a circular array are also opened on the top of the adjusting dial.

[0017] Based on the above technical features, the present solution uses an adjusting dial that is transmission-connected at one end of the micro-generator. The adjusting dial is located inside the circular groove and also between the pumping ports of the two sets of drainage pipes. When the exhaust pipe continuously discharges gas to the outside to blow the impeller and the micro-generator to rotate, the adjusting dial can rotate synchronously inside the circular groove. A plurality of groups of through holes distributed in a circular array are opened on the top of the adjusting dial, and the through holes match the pumping port structures of the two sets of drainage pipes. When the through holes coincide with the pumping ports of the two sets of drainage pipes, the gas decomposition liquid can be pumped into the interior of the two sets of drainage pipes through the through holes, and the gas decomposition liquid can be normally circulated and transported inside the spiral heat pipe. When the disc body of the adjusting dial blocks the pumping ports of the drainage pipes, the gas decomposition liquid cannot be pumped into the interior of the two sets of drainage pipes, and therefore the gas decomposition liquid cannot be normally circulated and transported inside the spiral heat pipe.

[0018] Preferably, in the above-mentioned automated processing machine for labor protection gloves, first guide grooves are provided on both sides of the inner wall of the sealed cabin body, second guide grooves are provided on both sides of the sealed cabin body close to the first guide grooves, a guide cavity is provided around the interior of the sealed cabin body, and a plurality of groups of first vents are equidistantly provided between the guide cavity and the second guide grooves.

[0019] Based on the above technical features, this solution opens several groups of first vents equidistantly between the guide cavity and the second guide groove. When multiple groups of vacuum pumps operate normally when powered on, water vapor generated by high temperature inside the mechanical transmission component can be drawn into and transported to the decomposition tank.

[0020] Preferably, in the above-mentioned automated processing machine for working gloves, the interior of the decomposition tank is filled with a gas decomposition liquid, and the gas decomposition liquid is a sodium hydroxide solution.

[0021] Based on the above technical features, the gas decomposition liquid in this scheme is a sodium hydroxide solution, which can not only cool the high-temperature water vapor released into the decomposition tank, but also absorb and neutralize the volatile organic compounds (VOCs) contained in the water vapor.

[0022] Preferably, in the above-mentioned automated processing machine for labor protection gloves, the mechanical transmission assembly comprises a metal frame, gear conveyors are installed on both sides of the metal frame, electric heaters are arranged on both sides of the metal frame close to the gear conveyors, and the electric heaters are electrically connected to the control panel.

[0023] Based on the above technical features, the electric heater in this solution is electrically connected to the control panel. When the current sensing switch measures that the current generated by the micro-generator exceeds the set value, the control panel will control the electric heater to stop running. When the current sensing switch measures that the current generated by the micro-generator is less than the set value, the control panel will control the electric heater to restart running.

[0024] Preferably, in the above-mentioned automated processing machine for labor protection gloves, a plurality of groups of second vents are equidistantly provided on both sides of the metal frame, and the second vents are located at the same horizontal plane as the first vents.

[0025] Based on the above technical features, this solution adopts a structural design in which the second vent is at the same horizontal plane as the first vent. When multiple sets of vacuum pumps operate normally when powered on, water vapor generated by high temperature inside the metal frame can be drawn into and transported to the decomposition tank.

[0026] Preferably, in the above-mentioned automated processing machine for labor protection gloves, the output end of the gear conveyor is transmission-connected to a plurality of groups of first arm plates, a second arm plate is installed between two groups of the first arm plates, and a plurality of groups of glove molds are also arranged on one side of the second arm plate.

[0027] Based on the above technical features, this solution can adjust the transmission of the dried and heated dipped labor protection gloves by installing a first arm plate, a second arm plate and a glove mold on the gear conveyor.

[0028] The present invention provides an automated processing machine for labor protection gloves, which has the following technical points and beneficial effects:

[0029] The design of this automated labor protection gloves processing machine consists of a sealed cabin, an exhaust gas purification box and a water circulation component. The exhaust gas purification box is equipped with exhaust pipes, water pumping pipelines, drainage pipelines, pipe valves, decomposition tanks, vacuum pumps, micro-power generation components and current sensing switches. When the electric heater is working, it dries and heats the labor protection gloves after dipping. At the same time, under the action of high temperature, the colloid on the rubber surface will not only release a small amount of water, but also emit a certain amount of volatile organic compounds (VOCs). At this time, the vacuum pump is connected with the guide cavity and the decomposition tank to introduce the high-temperature water vapor containing volatile organic compounds (VOCs) into the decomposition tank. The sodium hydroxide solution filled in the decomposition tank not only cools the water vapor, but also decomposes the volatile organic compounds. (VOCs) are absorbed and neutralized. When the vacuum pump is in continuous operation, the high-temperature water vapor is fully mixed with the sodium hydroxide solution in the decomposition tank to achieve heating treatment. The heated gas decomposition liquid can significantly increase the reaction speed with volatile organic compounds (VOCs). This acceleration effect is attributed to the high temperature increasing the molecular movement speed and collision frequency, and more molecules obtaining sufficient energy to overcome the activation energy. The circulating water pump further transports the sodium hydroxide solution containing volatile organic compounds (VOCs) to the spiral heat pipe, prolonging the reaction time and avoiding the emission of volatile organic compounds (VOCs). At the same time, the heat-conducting mesh absorbs the high temperature of the sealed cabin and heats the decomposition liquid in the spiral heat pipe to achieve secondary heating and further improve the reaction efficiency.

[0030] When the electric heater works at constant power, a large amount of high-temperature water vapor is generated in the sealed cabin. After being cooled and purified by the gas decomposition liquid, the water vapor is discharged through the exhaust pipe. The micro-power generation component on one side of the exhaust pipe uses the exhaust gas to drive the impeller to rotate and generate current. The current sensing switch automatically adjusts the operating state of the electric heater through the control panel according to the preset current threshold to adapt to the change in exhaust volume. In addition, the adjustment dial of the micro-generator manages the circulation of the gas decomposition liquid by controlling the docking of the through hole and the drainage pipeline, which is closely related to the operating state of the electric heater. When the electric heater is running, the gas decomposition liquid circulates rapidly to improve the reaction efficiency. When it stops running, the gas decomposition liquid circulates slowly and is stored in the spiral heat pipe, and the high temperature is maintained by the heat conductive mesh plate to prepare for the rapid processing after the electric heater is restarted. This design realizes the effective treatment of volatile organic compounds (VOCs) and the rational use of energy during the drying process of labor protection gloves. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0032] Figure 2 This is a schematic diagram of the disassembly of the water circulation components in the present invention;

[0033] Figure 3Schematic diagram of the spiral heat pipe in the present invention;

[0034] Figure 4 It is a schematic diagram of disassembling the sealed cabin in the present invention;

[0035] Figure 5 It is a schematic diagram of the structure of the micro power generation component in the present invention;

[0036] Figure 6 Schematic diagram of the flow-guiding cavity structure in the present invention;

[0037] Figure 7 It is a schematic diagram of the structure of the mechanical transmission component in the present invention;

[0038] Figure 8 It is a schematic diagram of the enlarged structure of point A in the present invention.

[0039] In the figure: 1. Sealed cabin; 2. Exhaust gas purification box; 21. Exhaust pipe fittings; 22. Pumping pipeline; 23. Drainage pipeline; 24. Pipe valve; 25. Decomposition tank; 251. Gas decomposition liquid; 26. Air pump; 27. Micro power generation component; 271. Micro generator; 272. Impeller; 273. Circular groove; 274. Adjustment dial; 275. Through hole; 28. Current sensing switch; 3. Water circulation component; 31. Insulation shell; 32. Sealing end plate; 33. Sealing plug plate; 34. Heat-conducting mesh plate; 35. Circular groove; 36. Circulating water pump; 37. Spiral heat-conducting pipe; 4. Control panel; 5. Mechanical transmission component; 6. First guide groove; 7. Second guide groove; 8. Diversion cavity; 9. First vent; 10. Metal frame; 11. Gear conveyor; 12. Electric heater; 13. Second vent; 14. First arm plate; 15. Second arm plate; 16. Glove mold. DETAILED DESCRIPTION

[0040] 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.

[0041] See also Figures 1 to 8 The present invention provides a technical solution for an automated processing machine for labor protection gloves:

[0042] A labor protection glove automated processing machine comprises a sealed cabin 1 located on the ground, an exhaust gas purification box 2 and a water circulation component 3 are arranged on the sealed cabin 1, the exhaust gas purification box 2 is installed on the top of the sealed cabin 1, and the water circulation component 3 is connected to the two ends of the sealed cabin 1, an exhaust pipe 21 is connected to the top of the exhaust gas purification box 2, pumping pipelines 22 are installed on both sides of the top of the exhaust gas purification box 2 close to the exhaust pipe 21, and drainage pipelines 23 are installed on both sides of the top of the exhaust gas purification box 2 away from the pumping pipeline 22, a pipe valve 24 is connected to one side of the exhaust gas purification box 2, a decomposition tank 25 is opened inside the exhaust gas purification box 2, and an air pump 26 is also installed at the bottom of the decomposition tank 25, a micro power generation component 27 is also installed on the top of the exhaust gas purification box 2, the micro power generation component 27 is located on one side of the exhaust port of the exhaust pipe 21, and a current sensing switch 28 is also connected to the side of the exhaust gas purification box 2 close to the micro power generation component 27.

[0043] The micro-power generation component 27 includes a micro-generator 271, one end of the micro-generator 271 is transmission-connected to an impeller 272, a circular groove 273 is provided at the bottom of the micro-generator 271, and the circular groove 273 is opened inside the exhaust gas purification box 2, and one end of the micro-generator 271 away from the impeller 272 is transmission-connected to an adjustment dial 274, and the adjustment dial 274 is located inside the circular groove 273. A plurality of groups of through holes 275 distributed in a circular array are also opened on the top of the adjustment dial 274, and the interior of the decomposition tank 25 is filled with a gas decomposition liquid 251, and the gas decomposition liquid 251 is a sodium hydroxide solution.

[0044] During operation, when the electric heater 12 is continuously operated at a constant power, the indoor temperature of the sealed cabin 1 reaches a maximum value. The natural rubber colloid adhered to the surface of the labor protection gloves, in addition to evaporating a small amount of moisture in the body under high temperature baking, also releases a certain amount of volatile organic compounds (VOCs). When the water vapor generated by the high temperature inside the metal frame 10 is transported to the inside of the decomposition tank 25, since the inside of the decomposition tank 25 is filled with a certain amount of gas decomposition liquid 251, and the gas decomposition liquid 251 is a sodium hydroxide solution, it can not only cool the high-temperature water vapor released into the decomposition tank 25, but also absorb and neutralize the volatile organic compounds (VOCs) contained in the water vapor.

[0045] As an embodiment of the present invention, Figures 2 to 3As shown, the exhaust gas purification box 2 includes an externally mounted insulation shell 31, one side of the insulation shell 31 is connected to a sealing end plate 32, one side of the sealing end plate 32 and both ends of the sealed cabin 1 are respectively provided with sealing plug plates 33, both sides of the insulation shell 31 are installed with heat-conducting mesh plates 34, and both sides of the insulation shell 31 are respectively provided with circular grooves 35, the top of the insulation shell 31 is connected to two groups of circulating water pumps 36, and a spiral heat-conducting pipe 37 is also connected between the two groups of circulating water pumps 36. The spiral heat-conducting pipe 37 is located inside the insulation shell 31, and the spiral heat-conducting pipe 37 is located inside the insulation shell 31. The spiral heat pipe 37 is in contact with the heat conductive mesh plate 34. Through the structural design of the contact between the spiral heat conductive pipe 37 and the heat conductive mesh plate 34, the heat conductive mesh plate 34 can also heat the spiral heat conductive pipe 37 by absorbing the high temperature in the sealed cabin 1. When the sodium hydroxide solution is circulated in the hot spiral heat conductive pipe 37, the circulating sodium hydroxide solution can be heated. The heated sodium hydroxide solution can effectively accelerate the efficiency of the reaction between the sodium hydroxide solution and volatile organic compounds (VOCs).

[0046] The structure of the circular groove 35 matches that of the sealing plug plate 33, and there is a transition fit between the circular groove 35 and the sealing plug plate 33. The structural design of the transition fit between the circular groove 35 and the sealing plug plate 33 can improve the sealing performance of the connection between the sealed cabin body 1, the insulation shell 31, and the sealing end plate 32. A control panel 4 is installed on the outside of one end of the sealed cabin body 1. The control panel 4, the micro power generation component 27, and the current sensing switch 28 are all electrically connected. A mechanical transmission component 5 is arranged inside the sealed cabin body 1.

[0047] During operation, the control panel 4, the micro-generator component 27, and the current sensing switch 28 in this solution are all electrically connected. The current sensing switch 28 adopts a resistive current sensor in the prior art. A constant current threshold is set in the resistive current sensor. When the current generated by the micro-generator component 27 is measured to exceed the set value, the control panel 4 will control the electric heater 12 to stop running. When the current generated by the micro-generator component 27 is measured to be less than the set value, the control panel 4 will control the electric heating device to restart running.

[0048] As an embodiment of the present invention, Figures 6 to 8 As shown, first guide grooves 6 are provided on both sides of the inner wall of the sealed cabin body 1, second guide grooves 7 are provided on both sides of the sealed cabin body 1 close to the first guide grooves 6, a guide cavity 8 is provided around the inside of the sealed cabin body 1, and a plurality of groups of first vents 9 are equidistantly provided between the guide cavity 8 and the second guide groove 7. Through the plurality of groups of first vents 9 equidistantly provided between the guide cavity 8 and the second guide groove 7, when the plurality of groups of vacuum pumps 26 operate normally when powered on, the water vapor generated by the high temperature inside the mechanical transmission component 5 can be sucked into and transported to the decomposition tank 25.

[0049] The mechanical transmission assembly 5 includes a metal frame 10, gear conveyors 11 are installed on both sides of the metal frame 10, and electric heaters 12 are arranged on both sides of the metal frame 10 close to the gear conveyors 11. The electric heater 12 is electrically connected to the control panel 4. In this solution, the electric heater 12 is electrically connected to the control panel 4. When the current sensing switch 28 measures that the current generated by the micro-generator 271 exceeds the set value, the control panel 4 will control the electric heater 12 to stop running. When the current sensing switch 28 measures that the current generated by the micro-generator 271 is less than the set value, the control panel 4 will control the electric heater 12 to restart running.

[0050] A plurality of groups of second vents 13 are equidistantly provided on both sides of the metal frame 10, and the second vents 13 are in the same horizontal plane as the first vents 9. Through the structural design that the second vents 13 are in the same horizontal plane as the first vents 9, when the plurality of groups of vacuum pumps 26 operate normally under power-on, the water vapor generated by the high temperature inside the metal frame 10 can be sucked into and transported to the decomposition tank 25. The output end of the gear conveyor 11 is transmission-connected to a plurality of groups of first arm plates 14, and a second arm plate 15 is installed between the two groups of first arm plates 14. A plurality of groups of glove molds 16 are also arranged on one side of the second arm plate 15. Through the first arm plate 14, the second arm plate 15 and the glove mold 16 installed on the gear conveyor 11, the transmission adjustment of the dried and heated dipped labor protection gloves can be performed.

[0051] During operation, an air pump 26 is installed at the bottom of the decomposition tank 25, and the air pump port of the air pump 26 is connected to the top of the guide cavity 8. The air pump port of the air pump 26 is connected to the top of the decomposition tank 25. When multiple groups of air pumps 26 operate normally under power-on, the structural design that the second vent 13 and the first vent 9 are on the same horizontal plane can be used to draw in water vapor generated by high temperature inside the metal frame 10 and transport it to the decomposition tank 25.

[0052] Working principle: The automatic processing machinery for labor protection gloves designed in this scheme is mainly composed of a sealed cabin 1, an exhaust gas purification box 2 and a water circulation component 3, wherein the exhaust gas purification box 2 includes an exhaust pipe 21, a water pumping pipeline 22, a drainage pipeline 23, a pipe valve 24, a decomposition tank 25, an air pump 26, a micro-power generation component 27 and a current sensing switch 28. When the electric heater 12 is powered on, the labor protection gloves after the dipping process on the glove mold 16 can be dried and heated. When the electric heater 12 is continuously operated at a constant power, the indoor temperature of the sealed cabin 1 reaches the maximum value. The natural rubber colloid adhered to the surface of the labor protection gloves will release a certain amount of volatile organic compounds (VOCs) in addition to evaporating a small amount of water in the body under high temperature baking. The vacuum pump 26 is installed at the bottom of the decomposition tank 25, and the vacuum port of the vacuum pump 26 is connected to the top of the guide cavity 8, and the vacuum port of the vacuum pump 26 is connected to the top of the decomposition tank 25. When the multiple vacuum pumps 26 are powered on and operate normally, the second vent 13 and the first vent 9 are in the same horizontal plane, so that the water vapor generated by the high temperature inside the metal frame 10 can be sucked into and transported to the decomposition tank 25. Since the interior of the decomposition tank 25 is filled with a certain amount of gas decomposition liquid 251, and the gas decomposition liquid 251 is a sodium hydroxide solution, it can not only cool the high-temperature water vapor released into the decomposition tank 25, but also absorb and neutralize the volatile organic compounds (VOCs) contained in the water vapor;

[0053] When the vacuum pump 26 continuously delivers high-temperature water vapor to the decomposition tank 25, the gas is fully integrated with the gas decomposition liquid 251, and the gas decomposition liquid 251 can be heated under the action of heat exchange. The heated gas decomposition liquid 251 can significantly accelerate its reaction speed with volatile organic compounds (VOCs). This is mainly because high temperature increases the movement speed of the reactant molecules, increases the number of collisions, and enables more molecules to have sufficient energy to overcome the activation energy of the reaction, thereby accelerating the reaction. The reactants generated by the reaction of sodium hydroxide solution and volatile organic compounds (VOCs) can be reintegrated into the sodium hydroxide solution under high temperature. By installing two sets of circulating water pumps 36 on the top of the insulation shell 31, the circulating water pumps 36 can discharge volatile organic compounds (VOCs) from the interior. The sodium hydroxide solution containing volatile organic compounds (VOCs) is circulated and transported to the inside of the spiral heat-conducting pipe 37. The transport path of the spiral heat-conducting pipe 37 can greatly increase the reaction time between the volatile organic compounds (VOCs) and the sodium hydroxide solution, avoiding the possibility of volatile organic compounds (VOCs) being contained in the exhaust gas. The spiral heat-conducting pipe 37 and the heat-conducting mesh plate 34 are in contact with each other. The heat-conducting mesh plate 34 can also heat the spiral heat-conducting pipe 37 by absorbing the high temperature in the sealed cabin 1. When the sodium hydroxide solution is circulated in the hot spiral heat-conducting pipe 37, the circulated sodium hydroxide solution can also be subjected to secondary heating treatment. The heated sodium hydroxide solution can effectively accelerate the reaction efficiency between the sodium hydroxide solution and the volatile organic compounds (VOCs);

[0054] When the electric heater 12 is continuously operated at a constant power so that the indoor temperature of the sealed cabin 1 reaches a maximum value, a large amount of high-temperature water vapor will be generated inside the sealed cabin 1. After being cooled and purified by the gas decomposition liquid 251, the large amount of high-temperature water vapor can be continuously discharged outward through the exhaust pipe 21 installed on the top of the exhaust gas purification box 2. Because a micro-power generation component 27 is installed on the top of the exhaust gas purification box 2, and the micro-power generation component 27 is located on the exhaust port side of the exhaust pipe 21, when the exhaust pipe 21 continuously discharges gas outward, it can blow the impeller 272 connected to one end of the micro-generator 271 to rotate. When the impeller 272 rotates continuously, the micro-generator 271 can generate a certain current. As the exhaust speed of the exhaust pipe 21 increases, The speed of the impeller 272 also increases, so the micro-generator 271 can generate a larger current. Since the micro-generator component 27, the control panel 4, the current sensing switch 28, and the electric heater 12 are all electrically connected, the current sensing switch 28 uses a resistive current sensor in the prior art, and a constant current threshold is set in the resistive current sensor. When the current generated by the micro-generator 271 is measured to exceed the set value, the control panel 4 will control the electric heater 12 to stop running. Similarly, when the current generated by the micro-generator 271 is measured to be less than the set value, the control panel 4 will control the electric heater 12 to restart running, so that the device can automatically adjust the operating state of the electric heater 12 according to the size of the exhaust volume;

[0055] Through the adjusting turntable 274 connected to the micro-generator 271 at one end, the adjusting turntable 274 is located inside the circular groove 273 and also between the pumping ports of the two sets of drainage pipes 23. When the exhaust pipe 21 continuously discharges gas to the outside to blow the impeller 272 and the micro-generator 271 to rotate, the adjusting turntable 274 can rotate synchronously inside the circular groove 273. A plurality of through holes 275 distributed in a circumferential array are provided on the top of the adjusting turntable 274, and the through holes 275 match the pumping port structures of the two sets of drainage pipes 23. When the through holes 275 coincide with the pumping ports of the two sets of drainage pipes 23, the gas decomposition liquid 251 can be pumped into the interior of the two sets of drainage pipes 23 through the through holes 275, and the gas decomposition liquid 251 can be normally circulated and transported inside the spiral heat pipe 37. When the disk body of the adjusting turntable 274 blocks between the pumping ports of the drainage pipe 23, The gas decomposition liquid 251 cannot be pumped into the interior of the two sets of drainage pipes 23, so the gas decomposition liquid 251 cannot be normally circulated and transported inside the spiral heat pipe 37. From the above, it can be seen that this circulation mechanism is closely related to the power-on operation of the electric heater 12. When the electric heater 12 operates normally, the gas decomposition liquid 251 can be quickly circulated and transported in the hot spiral heat pipe 37, and when the electric heater 12 stops operating, the gas decomposition liquid 251 can only be slowly circulated and transported in the hot spiral heat pipe 37. The rapidly circulated gas decomposition liquid 251 can accelerate the reaction efficiency of volatile organic compounds (VOCs), while the slowly circulated gas decomposition liquid 251 can be temporarily stored in the spiral heat pipe 37 and kept at a high temperature by the heat conductive mesh plate 34, so that when the electric heater 12 is restarted, the volatile organic compounds (VOCs) discharged into the decomposition tank 25 can be quickly processed.

[0056] 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 automated processing machine for labor protection gloves, comprising a sealed cabin (1) located on the ground, characterized in that: The sealed cabin (1) is provided with an exhaust gas purification box (2) and a water circulation component (3); the exhaust gas purification box (2) is installed on the top of the sealed cabin (1), and the water circulation component (3) is connected to both ends of the sealed cabin (1); the top of the exhaust gas purification box (2) is connected to an exhaust pipe (21); both sides of the top of the exhaust gas purification box (2) close to the exhaust pipe (21) are provided with water pumping pipelines (22); both sides of the top of the exhaust gas purification box (2) away from the water pumping pipeline (22) are provided with drainage pipelines (23); one side of the exhaust gas purification box (2) is connected to a pipe valve (24); a decomposition tank (25) is provided inside the exhaust gas purification box (2); and a vacuum pump (26) is also installed at the bottom of the decomposition tank (25); A micro power generation component (27) is also installed on the top of the exhaust gas purification box (2), and the micro power generation component (27) is located on one side of the exhaust port of the exhaust pipe (21). A current sensing switch (28) is also connected to the side of the exhaust gas purification box (2) close to the micro power generation component (27); The exhaust gas purification box (2) comprises an insulation shell (31) installed on the outside, one side of the insulation shell (31) is connected to a sealing end plate (32), one side of the sealing end plate (32) and two ends of the sealed cabin (1) are respectively provided with sealing plug plates (33), both sides of the insulation shell (31) are installed with heat-conducting mesh plates (34), and the two sides of the insulation shell (31) are respectively provided with round-shaped grooves (35), the top of the insulation shell (31) is connected to two groups of circulating water pumps (36), and a spiral heat-conducting pipe (37) is further connected between the two groups of circulating water pumps (36), and the spiral heat-conducting pipe (37) is located inside the insulation shell (31), and the spiral heat-conducting pipe (37) and the heat-conducting mesh plate (34) are in contact with each other; The micro-generator component (27) comprises a micro-generator (271), one end of the micro-generator (271) is drivingly connected to an impeller (272), a circular groove (273) is provided at the bottom of the micro-generator (271), the circular groove (273) is opened inside the exhaust gas purification box (2), one end of the micro-generator (271) away from the impeller (272) is drivingly connected to an adjustment dial (274), the adjustment dial (274) is located inside the circular groove (273), and a plurality of groups of through holes (275) distributed in a circumferential array are also opened on the top of the adjustment dial (274); First guide grooves (6) are provided on both sides of the inner wall of the sealed cabin (1), second guide grooves (7) are provided on both sides of the sealed cabin (1) close to the first guide grooves (6), a flow guiding cavity (8) is provided around the inside of the sealed cabin (1), and a plurality of groups of first ventilation openings (9) are provided at equal distances between the flow guiding cavity (8) and the second guide grooves (7); A mechanical transmission assembly (5) is arranged inside the sealed cabin (1), and the mechanical transmission assembly (5) comprises a metal frame (10), gear conveyors (11) are installed on both sides of the metal frame (10), and electric heaters (12) are arranged on both sides of the metal frame (10) close to the gear conveyors (11), and the electric heaters (12) are electrically connected to the control panel (4).

2. The automatic processing machine for labor protection gloves according to claim 1, characterized in that: The circular groove (35) matches the structure of the sealing insert plate (33), and there is a transition fit between the circular groove (35) and the sealing insert plate (33).

3. The automatic processing machine for labor protection gloves according to claim 1, characterized in that: A control panel (4) is installed on the outside of one end of the sealed cabin (1); the control panel (4), the micro-generator component (27), and the current sensing switch (28) are all electrically connected.

4. The automatic processing machine for labor protection gloves according to claim 1, characterized in that: The interior of the decomposition tank (25) is filled with a gas decomposition liquid (251), and the gas decomposition liquid (251) is a sodium hydroxide solution.

5. The automatic processing machine for labor protection gloves according to claim 1, characterized in that: A plurality of groups of second ventilation openings (13) are also provided at equal intervals on both sides of the metal frame (10); the second ventilation openings (13) and the first ventilation openings (9) are located at the same horizontal plane.

6. The automatic processing machine for labor protection gloves according to claim 1, characterized in that: The output end of the gear conveyor (11) is drivingly connected to a plurality of groups of first arm plates (14), a second arm plate (15) is installed between two groups of the first arm plates (14), and a plurality of groups of glove molds (16) are also arranged on one side of the second arm plate (15).

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