Textile waste gas treatment device for textile processing

Abstract

The invention provides a textile waste gas treatment device for textile processing, and relates to the technical field of waste gas treatment equipment.The textile waste gas treatment device comprises a separating assembly, a filtering assembly and a recycling assembly, the separating assembly comprises a conical cylinder set and a discharging valve, and the conical cylinder set comprises a first conical cylinder, a second conical cylinder, a third conical cylinder and a fourth conical cylinder; the discharging valves comprise the first discharging valve, the second discharging valve, the third discharging valve and the fourth discharging valve, an air inlet assembly is installed on the first conical cylinder and comprises an inlet and a first connecting pipe, and a communicating assembly is installed on the third conical cylinder. According to the textile waste gas treatment device for textile processing, access state monitoring of all tools is achieved, the problems of missed recording, wrong recording, disordered taking, disordered using and the like are greatly reduced, and the textile waste gas treatment device is suitable for purification treatment of textile waste gas generated by textile processing.

Description

Technical Field

[0001] This disclosure relates to the technical field of textile waste gas purification and treatment equipment, and in particular to a textile waste gas treatment device for textile processing. Background Technology

[0002] In textile processing, a large amount of textile debris is easily generated and dispersed into the air, which is detrimental to the safety of the air environment in textile factories. It can be easily inhaled by personnel and cause diseases, which is detrimental to the safety of workers. Therefore, it is necessary to use textile waste gas purification equipment to purify the air in textile factories.

[0003] Patent application CN202210258564.X discloses a dust removal device for removing textile fiber particles from exhaust gas. Differential pressure transmitters are installed before and after a plate and frame filter. When the pressure of the differential pressure transmitter reaches a certain value (which can be adjusted according to actual debugging conditions), the inlet and outlet are closed, cutting off the exhaust gas entering the dust removal device. Because the plate and frame filter loses the force of the exhaust gas, it quickly returns to its original position due to its own gravity. When it rotates to a vertical position, the vibrating hammers on the plate and frame filter collide with the impact rods, causing the fiber particle layer attached to the plate and frame filter to generate a huge inertial force, thus causing it to detach from the plate and frame filter and be removed. At the same time, the instantaneous cut-off of the airflow also generates a backflow force, which further facilitates the detachment of the fiber particle layer. After the fiber particle layer detaches, it settles in the collection tank due to its own gravity, thus achieving the purpose of removal. After all the fiber particles have settled in the collection tank, the inlet and outlet are reopened for the next dust removal cycle. After the fiber particles absorb water, their weight... The size is increased, but secondary dust generation will not occur. The collection pool and the slag removal pool are connected and separated by a water seal baffle that extends below the water surface to ensure the sealing of the collection pool. When the fiber particles in the collection pool reach a certain amount, they can be cleaned from the slag removal pool. Fiber particles in the exhaust gas can be effectively collected and an automatic cleaning function can be achieved, meeting the operation requirements of upstream equipment and environmental protection requirements. This effectively reduces the frequency of manual removal of fiber particles, requiring only periodic cleaning of the slag removal pool, thus effectively reducing labor costs. The invention patent with patent application number CN202411376274.0 discloses a drying exhaust gas treatment device for plush decorative fabric. The transmission pipe is equipped with a condenser pipe, and part of the transmission pipe is covered to form water vapor, preventing it from being transmitted with the exhaust gas and reducing the complexity of exhaust gas treatment. The inner inclined heat exchange tube can rotate under the action of a servo motor, liquefying most of the water vapor passing through into water. The water vapor may contain impurities or salts, which may deposit on the surface of the inner inclined heat exchange tube during cooling to form scale. Rotating the inclined heat exchange tubes helps reduce scaling and promotes even distribution of water vapor outside the tubes, ensuring efficient heat exchange and liquefaction throughout the entire process. The inclined design of the tubes allows liquefied water to flow downwards along the outer wall, reducing water accumulation and improving heat exchange efficiency. The centrifugal force generated by the rotation facilitates the movement of liquefied water along the tubes, ensuring continuous contact between water vapor and the outer wall. The rotating ring, with rubber rings on both sides, prevents water from seeping out of the metal ring. Even if leakage occurs, it occurs through the gaps on the outer side of the ring, mixing with the liquefied water and maintaining the integrity of the equipment.

[0004] According to its publicly available technical solutions, existing textile waste gas purification equipment has several drawbacks. First, after filtering out fine impurities such as fibers and lint from textile factory waste gas, cleaning the filter and transporting these impurities can easily cause them to re-spread, compromising environmental safety. Second, when using water to humidify these impurities to prevent them from causing further air pollution, they can absorb excessive amounts of water, which is both wasteful of water resources and increases transportation costs. Third, while using water to prevent the fibers and lint from spreading, they can adhere to the filter equipment due to the adhesive force of the water, hindering ventilation and consequently reducing the efficiency of waste gas purification. Summary of the Invention

[0005] This disclosure aims to at least partially address one of the technical problems in the related art.

[0006] Therefore, the purpose of this disclosure is to provide a textile waste gas treatment device for textile processing.

[0007] To achieve the above objectives, this disclosure provides a textile waste gas treatment device for textile processing, comprising: a separation component, a filtration component, and a recovery component. The separation component includes a cone assembly and a discharge valve. The cone assembly includes cone one, cone two, cone three, and cone four. The discharge valve includes discharge valve one, discharge valve two, discharge valve three, and discharge valve four. An air inlet assembly is installed on cone one, which includes an inlet and a connecting pipe one. A connecting assembly is installed on cone three, which includes connecting pipe two and connecting pipe three. The filtration assembly includes a hood and a first filter cartridge. An exhaust assembly, comprising a duct and a fan, is installed on the hood. A cleaning assembly, including a motor and a spiral plate, is also installed on the hood. A slag discharge assembly, including a conical sleeve and a discharge port, is installed on the hood. The recycling assembly includes a sleeve and a second filter cartridge. An extrusion assembly, comprising a second motor and a spiral plate, is installed on the sleeve. A discharge assembly, including a conical inlet and a pressure valve, is also installed on the sleeve.

[0008] Optionally, a water tank is installed at the bottom of the first cone, and a water pump is bolted to the top of the water tank. The bottom of the first water pump passes through the top of the water tank and is connected to the inside of the water tank. A nozzle is welded to one side of the first water pump. The top of the nozzle passes through the bottom of the inlet and extends to the inside of the inlet. The inlet is welded to the top of one side of the first cone. One end of the connecting pipe is welded to the bottom of the other side of the first cone, and the other end of the connecting pipe is welded to the top of one side of the second cone. The first cone is connected to the second cone through the connecting pipe.

[0009] Optionally, a second water pump is bolted to the top of the water tank, the bottom of the second water pump is connected to the inside of the water tank, a second spray pipe is welded to the other side of the second water pump, the top of the second spray pipe extends to the inside of the first connecting pipe, and a nozzle is bolted to the top of both the first and second spray pipes, and the first and second water pumps are connected to the nozzles through the first and second spray pipes.

[0010] Optionally, one end of the connecting pipe 2 is bolted to the center of the cone cylinder 2, and the other end of the connecting pipe 2 passes through the top of the cone cylinder 2 and is welded to the top of one side of the cone cylinder 3. The cone cylinder 2 is connected to the cone cylinder 3 through the connecting pipe 2. One end of the connecting pipe 3 is bolted to the center of the cone cylinder 3, and the other end of the connecting pipe 3 passes through the top of the cone cylinder 3 and is welded to one side of the cone cylinder 4. The cone cylinder 3 is connected to the cone cylinder 4 through the connecting pipe 3.

[0011] Optionally, the shroud is installed at the bottom of the cone four, one end of the shroud is welded to the duct, the top end of the duct passes around the outside of the cone four and through the top of the cone four and extends to the inside of the cone four, the cone four is connected to the shroud through the duct, the duct is welded to the top of one side of the shroud, the fan is installed on the inside of the duct by bolts, and the duct is connected to the inside of the shroud.

[0012] Optionally, one end of the filter cartridge is bolted to the inner wall of one end of the shroud, one end of the cone sleeve is bolted to the inner side of the other end of the shroud, one end of the outlet is welded to the other end of the cone sleeve, the other end of the outlet extends through the inner wall of the shroud to the outer side of the shroud, and the other end of the filter cartridge extends through the cone sleeve to the inner side of the outlet.

[0013] Optionally, the outer side of the spiral plate is clamped onto the inner wall of the filter cylinder. The spiral plate is a conical spiral plate, and the filter cylinder is a conical filter cylinder. The motor is bolted to the outer side of the other end of the shroud. One end of the spiral plate passes through the outlet and the shroud in sequence and is keyed to the output shaft of the motor. A return pipe is welded to the bottom of the shroud. One end of the return pipe is welded to the water tank. The bottom of the shroud is connected to the inner side of the water tank through the return pipe.

[0014] Optionally, the sleeve is installed on one side of the shroud, the second motor is bolted to the outer side of one end of the sleeve, one end of the conical opening is welded to the other end of the sleeve, one end of the second filter cylinder is bolted to the inner wall of one end of the sleeve, the other end of the second filter cylinder is bolted to the inner side of the conical opening, the second spiral plate is installed inside the second filter cylinder, one end of the second spiral plate passes through the inner wall of the sleeve and is connected to the output shaft of the second motor, the other end of the second spiral plate passes through the second filter cylinder and extends to the inner side of the conical opening, and the pressure valve is bolted to the inner side of the other end of the conical opening.

[0015] Optionally, the discharge valve one, discharge valve two, discharge valve three, and discharge valve four are respectively installed at the bottom of cone one, cone two, cone three, and cone four. The bottom of each of the discharge valves is bolted with a discharge pipe. The bottom end of the discharge pipe passes through the top of the sleeve and is bolted to the top of the filter cylinder two. Each of the discharge valves is connected to the inner side of the filter cylinder two through the discharge pipe.

[0016] Optionally, a return pipe 2 is welded to the bottom of the sleeve, one end of the return pipe 2 is welded to the water tank, the sleeve is connected to the water tank through the return pipe 2, a water supply pipe is welded to the top of the water tank, the water supply pipe is connected to the water tank, a bracket is installed on the cone cylinder 1 by bolts, and the cone cylinder 2, cone cylinder 3 and cone cylinder 4 are all installed on the outer side of the bracket by bolts.

[0017] The technical solution provided in this disclosure may include the following beneficial effects:

[0018] During operation, textile waste gas from textile processing is introduced into the inner side of cone one through the inlet. Water is introduced into the water tank through the water supply pipe. Water pump one draws water from the water tank and pumps it into the inner side of nozzle one, then through nozzle one to the nozzle, where it is evenly atomized and sprayed out. Fine impurities such as fibers and lint in the textile waste gas absorb the atomized water droplets, increasing their weight. The waste gas rotates and flows within cone one. The fibers, lint, and other fine impurities that have absorbed water fall to the bottom of cone one under gravity. The remaining fibers, lint, and other fine impurities carry the waste gas into the inner side of connecting pipe one. Water pump two pumps water from the water tank into the nozzle through nozzle two, where it is evenly atomized and sprayed out, causing the fibers, lint, and other fine impurities to absorb water again. After entering the inner side of cone two, the gas rotates and flows within cone two. Using gravity and centrifugal force, fine impurities such as fibers and lint rotate and fall off the outer side of cone two. Then, it is transported sequentially through connecting pipe two and connecting pipe three to the inner side of cone three and cone four, where centrifugal separation is performed again. This further separates the fine impurities such as fibers and lint in the exhaust gas and makes them fall to the bottom of cone three and cone four. It can effectively use moisture to increase the gravity of fine impurities such as fibers and lint, causing them to stick together under the action of moisture. This not only improves the efficiency of purification and separation of fine impurities such as fibers and lint, but also prevents the separated fine impurities from being dispersed back into the air during cleaning and transportation, ensuring the safety of the air environment.

[0019] Fine impurities such as fibers and lint at the bottom of cones one, two, three, and four fall through discharge valves one, two, three, and four respectively into the inner side of the discharge pipe. From there, they fall into the inner side of filter cartridge two. Motor two drives spiral plate two to rotate, pushing the fine impurities into filter cartridge two towards the cone opening. The spiral plate two then squeezes and pushes the impurities, causing the adsorbed water inside to be squeezed out through filter cartridge two. This continues until the fine impurities enter the inner side of the cone opening. As the inner diameter decreases, the fibers and lint... The reduced space occupied by fine impurities such as lint further increases the pressure of the spiral plate on these impurities, forcing water through the filter cartridge to the inside of the sleeve. The pressure of the spiral plate on these impurities pushes open the pressure valve and causes them to be discharged. The water inside the sleeve flows back to the inside of the water tank through the return pipe for reuse. This effectively saves water resources and reduces water consumption, while also reducing the weight of fine impurities such as lint, saving space and weight for transporting them, and reducing transportation costs.

[0020] After separation, the exhaust gas enters the inner side of the duct from the inside of cone four, and then enters the inner side of the hood through the duct. Residual trace fibers, lint, and other fine impurities in the exhaust gas are filtered out by filter cartridge one. The fan generates suction on the hood through the duct, drawing the gas outwards. Motor one drives the spiral plate one to rotate inside filter cartridge one, scraping off the remaining small amount of fibers, lint, and other fine impurities from the inside of filter cartridge one and gradually pushing them towards the outlet. As the inner diameter of filter cartridge one decreases, the squeezing and pushing action of the spiral plate one forces the moisture out of the fibers, lint, and other fine impurities. This moisture then falls through filter cartridge one into the inner side of the cone sleeve, and then to the bottom of the hood. The moisture flows back to the inside of the water tank through return pipe one for reuse. This effectively saves water resources. The fibers, lint, and other fine impurities, which have had their moisture squeezed out, are continuously squeezed and pushed inside the first filter cartridge until they are forced to the inside of the outlet. From there, they fall to the outside of the hood. The second, third, and fourth cones then perform a three-stage cyclone separation process on the fibers, lint, and other fine impurities. This process greatly removes the fibers, lint, and other fine impurities, as well as the moisture, from the exhaust gas. This effectively prevents the fibers, lint, and other fine impurities, along with the adsorbed moisture, from adhering to the inside of the first filter cartridge. This also prevents the fibers, lint, and other fine impurities from hindering the ventilation speed of the first filter cartridge due to the adhesive force of the moisture, thus ensuring the flow speed of the exhaust gas and guaranteeing the purification efficiency of the exhaust gas.

[0021] Additional aspects and advantages of this disclosure will be set forth in part in the description which follows, and in part will be obvious from the description, or may be learned by practice of this disclosure. Attached Figure Description

[0022] The above and / or additional aspects and advantages of this disclosure will become apparent and readily understood from the following description of the embodiments taken in conjunction with the accompanying drawings, in which:

[0023] Figure 1 This is a cross-sectional view of a textile waste gas treatment device for textile processing according to an embodiment of this disclosure;

[0024] Figure 2 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 1 ;

[0025] Figure 3 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 2 ;

[0026] Figure 4 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 3 ;

[0027] Figure 5This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 4 ;

[0028] Figure 6 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 5 ;

[0029] Figure 7 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 6 ;

[0030] Figure 8 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 7 ;

[0031] Figure 9 This is a schematic diagram of the structure of a textile waste gas treatment device according to an embodiment of the present disclosure. Figure 8 ;

[0032] As shown in the figure: 1. Cone 1; 2. Cone 2; 3. Cone 3; 4. Cone 4; 5. Inlet; 6. Connecting pipe 1; 7. Connecting pipe 2; 8. Connecting pipe 3; 9. Water tank; 10. Water pump 1; 11. Spray pipe 1; 12. Nozzle; 13. Water pump 2; 14. Spray pipe 2; 15. Guide pipe; 16. Air hood; 17. Air duct; 18. Fan; 19. Filter cartridge 1; 20. Spiral plate 1; 21. Motor 1; 22. Conical sleeve; 23. Outlet; 24. Return pipe 1; 25. Sleeve; 26. Filter cartridge 2; 27. Spiral plate 2; 28. Conical inlet; 29. ​​Motor 2; 30. Pressure valve; 31. Discharge valve; 32. Discharge pipe; 33. Water supply pipe; 34. Return pipe 2; 35. Support. Detailed Implementation

[0033] Embodiments of this disclosure are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and are used only to explain this disclosure, and should not be construed as limiting this disclosure. Rather, embodiments of this disclosure include all variations, modifications, and equivalents falling within the spirit and scope of the appended claims.

[0034] like Figure 1 , Figure 2 , Figure 3 and Figure 4As shown in the present disclosure, an embodiment of a textile waste gas treatment device for textile processing is proposed, comprising: a separation component, a filtration component, and a recovery component. The separation component includes a cone assembly and a discharge valve 31. The cone assembly includes cone 1, cone 2, cone 3, and cone 4. The discharge valve 31 includes discharge valve 1, discharge valve 2, discharge valve 3, and discharge valve 4. An air inlet assembly is installed on cone 1, which includes an inlet 5 and a connecting pipe 6. A connecting assembly is installed on cone 3, which includes connecting pipe 2 and connecting pipe 3. The filtration component includes a hood 16 and a filter cartridge 19. An exhaust fan is installed on the hood 16. The system comprises the following components: the exhaust assembly includes a duct 17 and a fan 18; a cleaning assembly is mounted on the hood 16, comprising a motor 21 and a spiral plate 20; a slag discharge assembly is mounted on the hood 16, comprising a conical sleeve 22 and a discharge port 23; the recycling assembly includes a sleeve 25 and a filter cartridge 26; a pressing assembly is mounted on the sleeve 25, comprising a motor 29 and a spiral plate 27; a discharge assembly is mounted on the sleeve 25, comprising a conical inlet 28 and a pressure valve 30; a water tank 9 is mounted at the bottom of the conical sleeve 1, and a water pump 10 is bolted to the top of the water tank 9. The bottom of the water pump 10 passes through the top of the water tank 9 and is connected to the inside of the water tank 9. A nozzle 11 is welded to one side of the water pump 10. The top of the nozzle 11 passes through the bottom of the inlet 5 and extends to the inside of the inlet 5. The inlet 5 is welded to the top of one side of the cone 1. One end of the connecting pipe 6 is welded to the bottom of the other side of the cone 1, and the other end of the connecting pipe 6 is welded to the top of one side of the cone 2. The cone 1 is connected to the cone 2 via the connecting pipe 6. A nozzle 14 is welded to the other side of the water pump 13. The top of the nozzle 14 extends to the inside of the connecting pipe 6. The top ends of nozzles 11 and 14 are bolted with nozzles 12. Water pumps 10 and 13 are connected to nozzles 12 via nozzles 11 and 14. One end of connecting pipe 7 is bolted to the center of cone 2. The other end of connecting pipe 7 passes through the top of cone 2 and is welded to the top of one side of cone 3. Cone 2 is connected to cone 3 via connecting pipe 7. One end of connecting pipe 8 is bolted to the center of cone 3. The other end of connecting pipe 8 passes through the top of cone 3 and is welded to one side of cone 4. Cone 3 is connected to cone 4 via connecting pipe 8.

[0035] Understandably, during operation, textile waste gas from textile processing is introduced into the inner side of cone 1 through inlet 5. Water is introduced into water tank 9 through water supply pipe 33. Water pump 10 extracts water from water tank 9 and pumps it into the inner side of nozzle 11, then through nozzle 11 to nozzle 12, where it is evenly atomized and sprayed out. Fine impurities such as fibers and lint in the textile waste gas absorb the atomized water droplets, thus increasing their weight. The waste gas rotates and flows inside cone 1. The fibers, lint, and other fine impurities that have absorbed water fall to the bottom of cone 1 under the action of gravity. The waste gas carries the remaining fibers, lint, and other fine impurities into the inner side of connecting pipe 6. Water pump 2 13 pumps water from water tank 9 into nozzle 12 through nozzle 2 14, where it is evenly atomized and sprayed out, allowing the fibers, lint, and other fine impurities to be evenly atomized and sprayed out. Small impurities reabsorb moisture. After the exhaust gas enters the inner side of cone 2, it rotates and flows within cone 2. Using gravity and centrifugal force, fine impurities such as fibers and lint rotate and fall off the outer side of cone 2. Then, it is transported sequentially through connecting pipe 7 and connecting pipe 8 to the inner side of cone 3 and cone 4, where it undergoes centrifugal separation again. This further separates the fine impurities such as fibers and lint in the exhaust gas and causes them to fall to the bottom of cone 3 and cone 4. This effectively utilizes moisture to increase the gravity of fine impurities such as fibers and lint, causing them to stick together under the influence of moisture. This not only improves the efficiency of purification and separation of fine impurities such as fibers and lint, but also prevents the separated fine impurities from being dispersed back into the air during cleaning and transportation, ensuring the safety of the air environment.

[0036] The shroud 16 is installed at the bottom of the cone 4. One end of the shroud 16 is welded to the guide tube 15. The top end of the guide tube 15 passes around the outside of the cone 4, through the top of the cone 4, and extends to the inside of the cone 4. The cone 4 is connected to the shroud 16 through the guide tube 15. The air duct 17 is welded to the top of one side of the shroud 16. The fan 18 is bolted to the inside of the air duct 17. The air duct 17 is connected to the inside of the shroud 16. One end of the filter cartridge 19 is bolted to the inner wall of one end of the shroud 16. One end of the cone sleeve 22 is bolted to the inside of the other end of the shroud 16. One end of the outlet 23 is welded to the other end of the cone sleeve 22. The other end of the filter cartridge 19 extends through the inner wall of the shroud 16 to the outer side of the shroud 16. The other end of the filter cartridge 19 extends through the conical sleeve 22 to the inner side of one end of the outlet 23. The outer side of the spiral plate 20 is clamped on the inner wall of the filter cartridge 19. The spiral plate 20 is a conical spiral plate, and the filter cartridge 19 is a conical filter cartridge. The motor 21 is installed on the outer side of the other end of the shroud 16 by bolts. One end of the spiral plate 20 passes through the outlet 23 and the shroud 16 in sequence and is keyed to the output shaft of the motor 21. A return pipe 24 is welded to the bottom of the shroud 16. One end of the return pipe 24 is welded to the water tank 9. The bottom of the shroud 16 is connected to the inner side of the water tank 9 through the return pipe 24.

[0037] Understandably, the separated exhaust gas enters the inner side of the duct 15 from the inner side of the cone 4, and then enters the inner side of the hood 16 through the duct 15. The remaining trace amounts of fine impurities such as fibers and lint in the exhaust gas are filtered out by the filter cartridge 19. The fan 18 generates suction on the hood 16 through the duct 17, drawing the gas outwards. The motor 21 drives the spiral plate 20 to rotate inside the filter cartridge 19, scraping away the small amount of filtered fibers and lint from the inner side of the filter cartridge 19 and gradually pushing them towards the outlet 23. As the inner diameter of the filter cartridge 19 decreases, the squeezing and pushing action of the spiral plate 20 causes the moisture in the fibers and lint to be squeezed out. This moisture then falls through the filter cartridge 19 to the inner side of the cone sleeve 22, and then to the bottom of the hood 16. The moisture flows back to the water tank 9 through the return pipe 24. The filter cartridge 19 is designed to allow for the reuse of water, effectively saving water resources. Fine impurities such as fibers and lint, whose moisture has been squeezed out, are continuously compressed and pushed inside the filter cartridge 19 until they are forced to the inside of the outlet 23. From there, they fall onto the outside of the hood 16. The two cones 2, 3, and 4 perform a three-stage cyclone separation process on the fibers and lint, resulting in a significant removal of these impurities and moisture from the exhaust gas. This effectively prevents a large amount of fibers, lint, and adsorbed moisture from adhering to the inside of the filter cartridge 19, thus preventing the moisture from hindering the ventilation speed of the filter cartridge 19 and ensuring the flow rate and purification efficiency of the exhaust gas.

[0038] The sleeve 25 is installed on one side of the shroud 16. The motor 29 is bolted to the outer side of one end of the sleeve 25. One end of the cone 28 is welded to the other end of the sleeve 25. One end of the filter cylinder 26 is bolted to the inner wall of one end of the sleeve 25. The other end of the filter cylinder 26 is bolted to the inner side of the cone 28. The spiral plate 27 is installed inside the filter cylinder 26. One end of the spiral plate 27 passes through the inner wall of the sleeve 25 and is connected to the output shaft of the motor 29. The other end of the spiral plate 27 passes through the filter cylinder 26 and extends to the inner side of the cone 28. The pressure valve 30 is bolted to the inner side of the other end of the cone 28. The discharge valves 1, 2, 3, and 4 are respectively installed in cone cylinder 1, cone cylinder 2, and cone cylinder 3. At the bottom of cylinder 3 and cone cylinder 4, the bottom of discharge valve 1, discharge valve 2, discharge valve 3 and discharge valve 4 are all bolted with discharge pipes 32. The bottom end of the discharge pipe 32 passes through the top of sleeve 25 and is bolted to the top of filter cylinder 26. The discharge valve 1, discharge valve 2, discharge valve 3 and discharge valve 4 are all connected to the inner side of filter cylinder 26 through discharge pipes 32. The bottom of sleeve 25 is welded with return pipe 2 34. One end of return pipe 2 34 is welded to water tank 9. Sleeve 25 is connected to water tank 9 through return pipe 2 34. The top of water tank 9 is welded with water supply pipe 33. Water supply pipe 33 is connected to water tank 9. A bracket 35 is bolted to cone cylinder 1. Cone cylinder 2, cone cylinder 3, and cone cylinder 4 are all bolted to the outer side of bracket 35.

[0039] Understandably, the fibers, lint, and other fine impurities at the bottom of cones 1, 2, 3, and 4 fall through discharge valves 1, 2, 3, and 4 respectively into the inner side of discharge pipe 32, and then through discharge pipe 32 into the inner side of filter cartridge 26. Motor 29 drives spiral plate 27 to rotate, pushing the fibers, lint, and other fine impurities falling into filter cartridge 26 towards the cone opening 28. The spiral plate 27 squeezes and pushes the fibers, lint, and other fine impurities, causing the water adsorbed in the fibers, lint, and other fine impurities to be squeezed out through filter cartridge 26, until the fibers, lint, and other fine impurities enter the inner side of cone opening 28. As the inner diameter changes, the impurities are further processed. As the volume of water decreases, the space occupied by fine impurities such as fibers and lint is reduced, further increasing the pressure of the spiral plate 27 on these impurities. This forces water through the filter cartridge 26 to the inside of the sleeve 25. The pressure of the spiral plate 27 on the impurities pushes open the pressure valve 30, causing them to be discharged outwards. The water in the sleeve 25 flows back to the inside of the water tank 9 through the return pipe 34 for reuse. This effectively saves water resources and reduces water consumption, while also reducing the weight of fine impurities such as fibers and lint, saving space and weight for transporting them, and reducing transportation costs.

[0040] In the description of this disclosure, the terms "first," "second," etc., are used for descriptive purposes only and should not be construed as indicating or implying relative importance. Furthermore, in the description of this disclosure, unless otherwise stated, "a plurality of" means two or more.

[0041] Any process or method description in the flowchart or otherwise herein can be understood as representing a module, segment, or portion of code comprising one or more executable instructions for implementing a particular logical function or process, and the scope of preferred embodiments of this disclosure includes additional implementations in which functions may be performed not in the order shown or discussed, including substantially simultaneously or in reverse order depending on the function involved, as will be understood by those skilled in the art to which embodiments of this disclosure pertain.

[0042] In the description of this specification, the references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., indicate that a specific feature, structure, material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of this disclosure. In this specification, the illustrative expressions of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples.

[0043] Although embodiments of the present disclosure have been shown and described above, it is to be understood that the above embodiments are exemplary and should not be construed as limiting the present disclosure. Those skilled in the art can make changes, modifications, substitutions and variations to the above embodiments within the scope of the present disclosure.

Claims

1. A textile waste gas treatment device for textile processing, characterized by, The utility model relates to a kind of air separation device, including: Separation component, the separation component includes cone cylinder group and discharging valve (31), the cone cylinder group includes cone cylinder one (1), cone cylinder two (2), cone cylinder three (3) and cone cylinder four (4), the discharging valve (31) includes discharging valve one, discharging valve two, discharging valve three and discharging valve four, inlet assembly is installed on the cone cylinder one (1), and the inlet assembly includes inlet (5) and connecting pipe one (6), communication assembly is installed on the cone cylinder three (3), and the communication assembly includes connecting pipe two (7) and connecting pipe three (8); Filtering assembly, the filtering assembly includes wind cover (16) and filter cylinder one (19), and suction assembly is installed on the wind cover (16), the suction assembly includes wind cylinder (17) and fan (18), cleaning assembly is installed on the wind cover (16), and the cleaning assembly includes motor one (21) and spiral plate one (20), and discharging assembly is installed on the wind cover (16), and the discharging assembly includes cone sleeve (22) and discharge port (23); Recycling component, the recycling component includes sleeve (25) and filter cylinder two (26), and extrusion assembly is installed on the sleeve (25), the extrusion assembly includes motor two (29) and spiral plate two (27), and discharging assembly is installed on the sleeve (25), and the discharging assembly includes cone mouth (28) and pressure valve (30).

2. The textile waste gas treatment apparatus for textile processing according to claim 1, wherein: The bottom of the cone cylinder one (1) is provided with a water tank (9), the top of the water tank (9) is provided with a water pump one (10) by bolts, the bottom of the water pump one (10) penetrates through the top of the water tank (9) and communicates with the inside of the water tank (9), one side of the water pump one (10) is welded with a spray pipe one (11), the top end of the spray pipe one (11) penetrates through the bottom of the inlet (5) and extends to the inside of the inlet (5), the inlet (5) is welded on the top of one side of the cone cylinder one (1), one end of the connecting pipe one (6) is welded on the bottom of the other side of the cone cylinder one (1), the other end of the connecting pipe one (6) is welded on the top of one side of the cone cylinder two (2), and the cone cylinder one (1) communicates with the cone cylinder two (2) through the connecting pipe one (6).

3. The textile waste gas treatment apparatus for textile processing according to claim 2, wherein: The top of the water tank (9) is provided with a water pump two (13) by bolts, the bottom of the water pump two (13) communicates with the inside of the water tank (9), the other side of the water pump two (13) is welded with a spray pipe two (14), the top end of the spray pipe two (14) extends to the inside of the connecting pipe one (6), the top end of the spray pipe one (11) and the spray pipe two (14) is provided with a spray head (12) by bolts, and the water pump one (10) and the water pump two (13) communicate with the spray head (12) through the spray pipe one (11) and the spray pipe two (14).

4. The textile waste gas treatment apparatus for textile processing according to claim 3, wherein: One end of the connecting pipe two (7) is bolted at the center of the conical cylinder two (2), the other end of the connecting pipe two (7) passes through the top of the conical cylinder two (2) and is welded at the top of one side of the conical cylinder three (3), the conical cylinder two (2) is communicated with the conical cylinder three (3) through the connecting pipe two (7), one end of the connecting pipe three (8) is bolted at the center of the conical cylinder three (3), the other end of the connecting pipe three (8) passes through the top of the conical cylinder three (3) and is welded at one side of the conical cylinder four (4), the conical cylinder three (3) is communicated with the conical cylinder four (4) through the connecting pipe three (8).

5. The textile waste gas treatment apparatus for textile processing according to claim 4, wherein: The air cover (16) is mounted at the bottom of the conical cylinder four (4), one end of the air cover (16) is welded at the guide pipe (15), the top end of the guide pipe (15) passes around the outside of the conical cylinder four (4) and extends to the inside of the conical cylinder four (4) through the top of the conical cylinder four (4), the conical cylinder four (4) is communicated with the air cover (16) through the guide pipe (15), the air cylinder (17) is welded at the top of one side of the air cover (16), the fan (18) is bolted at the inside of the air cylinder (17), the air cylinder (17) is communicated with the inside of the air cover (16).

6. The textile waste gas treatment apparatus for textile processing according to claim 5, wherein: One end of the filter cylinder one (19) is bolted at the inner wall of one end of the air cover (16), one end of the conical sleeve (22) is bolted at the inside of the other end of the air cover (16), one end of the discharge port (23) is welded at the other end of the conical sleeve (22), the other end of the discharge port (23) extends to the outside of the air cover (16) through the inner wall of the air cover (16), the other end of the filter cylinder one (19) extends to the inside of one end of the discharge port (23) through the conical sleeve (22).

7. The textile waste gas treatment apparatus for textile processing according to claim 6, wherein: The outer side of the spiral plate one (20) is clamped on the inner wall of the filter cylinder one (19), the spiral plate one (20) is a conical spiral plate, the filter cylinder one (19) is a conical filter cylinder, the motor one (21) is bolted at the outer side of the other end of the air cover (16), one end of the spiral plate one (20) passes through the discharge port (23) and the air cover (16) in turn and is keyed connected with the output shaft of the motor one (21), the bottom of the air cover (16) is welded with the return pipe one (24), one end of the return pipe one (24) is welded on the water tank (9), the bottom of the air cover (16) is communicated with the inside of the water tank (9) through the return pipe one (24).

8. The textile waste gas treatment apparatus for textile processing according to claim 7, wherein: The sleeve (25) is installed on one side of the hood (16), the motor two (29) is installed on the outer side of one end of the sleeve (25) by bolts, one end of the taper (28) is welded on the other end of the sleeve (25), one end of the filter cylinder two (26) is installed on the inner wall of one end of the sleeve (25) by bolts, the other end of the filter cylinder two (26) is installed on the inner side of the taper (28) by bolts, the spiral plate two (27) is installed on the inner side of the filter cylinder two (26), one end of the spiral plate two (27) passes through the inner wall of the sleeve (25) and is connected with the output shaft of the motor two (29), the other end of the spiral plate two (27) passes through the filter cylinder two (26) and extends to the inner side of the taper (28), the pressure valve (30) is installed on the other end of the taper (28) from the inner side by bolts.

9. The textile waste gas treatment apparatus for textile processing according to claim 8, wherein: The discharge valve one, the discharge valve two, the discharge valve three and the discharge valve four are installed at the bottom of the taper cylinder one (1), the taper cylinder two (2), the taper cylinder three (3) and the taper cylinder four (4) respectively, the bottom of the discharge valve one, the discharge valve two, the discharge valve three and the discharge valve four is installed with the discharge pipe (32) by bolts, the bottom end of the discharge pipe (32) passes through the top of the sleeve (25) and is installed on the top of the filter cylinder two (26) by bolts, the discharge valve one, the discharge valve two, the discharge valve three and the discharge valve four are connected with the inner side of the filter cylinder two (26) through the discharge pipe (32).

10. The textile waste gas treatment apparatus for textile processing according to claim 9, wherein: The bottom of the sleeve (25) is welded with the return pipe two (34), one end of the return pipe two (34) is welded on the water tank (9), the sleeve (25) is connected with the water tank (9) through the return pipe two (34), the top of the water tank (9) is welded with the water supplement pipe (33), the water supplement pipe (33) is connected with the water tank (9), the bracket (35) is installed on the taper cylinder one (1) by bolts, the taper cylinder two (2), the taper cylinder three (3) and the taper cylinder four (4) are installed on the outer side of the bracket (35) by bolts.

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