Cleaning equipment and method for soft anti-pilling fabric production

Abstract

The invention discloses cleaning equipment and method for soft anti-pilling fabric production, and belongs to the technical field of fabric cleaning. Comprising a supporting frame, two viscous wheels, an input wheel, a middle wheel, a driving element, an output wheel and a driving element, wherein the two viscous wheels are rotationally arranged on the supporting frame, the rotating ends of the viscous wheels are in power connection with the driving element fixedly connected with the supporting frame, the input wheel is arranged on the radial side of the viscous wheels and rotationally connected with the supporting frame, and the middle wheel is arranged on the radial side of the input wheel and rotationally connected with the supporting frame. The middle wheel is rotationally connected with the supporting frame, the outer check block is arranged on the radial side, away from the input wheel, of the middle wheel, the outer check block is fixedly connected with the supporting frame, and the two ends of the outer check block extend in the directions of the viscous wheel and the input wheel correspondingly. Fabric does not need to be wetted, the weight of the fabric in the conveying process is reduced, the situation that the fabric excessively sinks between the adjacent conveying rollers, and conveying of the fabric is affected is avoided, and the cleaning procedure of the fabric can be completed more smoothly.

Description

Technical Field

[0001] The invention relates to cleaning equipment and a method for producing soft-feel anti-pilling fabrics, belonging to the technical field of fabric cleaning. Background Art

[0002] With the development of textile technology, the types of fabrics are becoming more and more diverse. Conventional soft and anti-pilling fabrics cannot be cleaned with a brush during the cleaning process. Therefore, non-woven fabrics and nylon cloths are usually used to wipe the surface, or a sticky wheel is used to remove foreign matter attached to the surface of the fabric. In addition, in a dry external environment, the humidity of the fabric must be controlled to avoid excessive electrostatic adsorption, which will lead to a decrease in the cleaning effect.

[0003] However, in actual use, due to the conventional control of air humidity, most of the time, wet non-woven fabrics are used to wipe the fabrics, or water mist is sprayed by a nozzle to increase the air humidity around the equipment. However, this will cause the sprayed water mist and the wet non-woven fabric to penetrate the water into the fabrics, causing the fabrics to absorb water and become heavier. During the transmission process of the conveyor roller group, the part of the fabric between the sticky wheel and the conveyor roller group will sink and increase the pressure on the sticky wheel under the fabric, resulting in a large difference in the sticky effect on the two sides of the fabric, affecting the normal cleaning and transportation of the fabric. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to provide a cleaning device and method for the production of soft and anti-pilling fabrics. It solves the problem in the prior art that the fabric absorbs water and becomes heavier. During the transmission process of the transmission roller group, the part of the fabric located between the sticky wheel and the transmission roller group will sink and the pressure on the lower sticky wheel will increase, resulting in a large difference in the sticky effect on the two sides of the fabric, which affects the normal cleaning and transportation of the fabric.

[0005] The technical problem to be solved by the present invention is achieved by adopting the following technical solution: A cleaning device for producing soft and anti-pilling fabrics, comprising: Support frame, The viscous wheel is rotatably mounted on the support frame. Two viscous wheels are arranged in parallel. The rotating end of the viscous wheel is dynamically connected to a driving element fixedly connected to the support frame. The input wheel is arranged on the radial side of the viscous wheel and is rotatably connected to the support frame. The intermediate wheel is arranged on the radial side of the input wheel and is rotatably connected to the support frame. The outer stopper is arranged on the radial side of the intermediate wheel away from the input wheel. The outer stopper is fixedly connected to the support frame. The two ends of the outer stopper extend toward the direction of the viscous wheel and the input wheel respectively. The water storage chamber is opened in the outer block. There are several first nozzles, which are respectively fixed at both ends of the extension direction of the outer block. Among them, a water inlet pipe connected to the water storage chamber is fixedly provided on the support frame, a drainage groove is opened on the side of the outer block facing the middle wheel, and a drainage pipe connected to the drainage groove is fixedly provided on the support frame. The water inlet pipe and the drainage pipe can be connected to the water supply pipe and drainage pipe outside the cleaning equipment respectively.

[0006] By adopting the above technical solution, the external water supply pipeline and the drainage pipeline are connected to the water inlet pipe and the drainage pipe respectively, and then the first nozzle is turned on to allow water to enter the water storage chamber through the water inlet pipe and be sprayed out through the first nozzle. At this time, after the water is sprayed out through the first nozzle, the air humidity of the surrounding environment of the fabric is increased, reducing the probability of electrostatic adsorption of the fabric during transportation. Then, after passing through the sticky wheel, the sticky layer on the surface of the sticky wheel removes foreign matter attached to the surface of the fabric, thereby achieving the purpose of cleaning the fabric. At the same time, the spraying direction of the first nozzle will not be directly facing the fabric, so the fabric will not be wetted, reducing the weight of the fabric during transportation, avoiding excessive sinking of the fabric between adjacent conveying rollers, affecting the sticky cleaning of both sides of the fabric, and also ensuring the normal transportation of the fabric, which is conducive to making the fabric complete the cleaning process more smoothly.

[0007] The present invention is further configured as follows: an inner stopper is fixedly provided on the support frame, the inner stopper is arranged on the side of the intermediate wheel away from the outer stopper, a plurality of second nozzles are fixedly provided on the inner stopper in a direction away from the intermediate wheel, and the second nozzles are connected to the water inlet pipe.

[0008] By adopting the above technical solution, the water inlet pipe can synchronously conduct water to the inside of the inner block and spray it out through the second nozzle, thereby increasing the water spraying range, facilitating uniformity of the air humidity near the fabric, and further reducing the probability of electrostatic adsorption of the fabric during transportation.

[0009] The present invention is further configured as follows: an auxiliary block is slidably arranged on the support frame and is located between the middle wheel and the sticky wheel. The interior of the auxiliary block is a hollow structure and a water inlet is vertically opened. A wiping layer is fixedly arranged on the side of the auxiliary block opposite to the water inlet.

[0010] The present invention is further configured as follows: a slide rail is horizontally fixedly provided on the support frame, a slide groove is provided on the slide rail with an opening facing the auxiliary block, a slider extending into the slide groove is fixedly provided on the auxiliary block, the slider slides in the slide groove, a threaded rod threadedly connected to the slider is rotatably provided in the slide groove, one end of the threaded rod extends to the outside of the slide rail and is dynamically connected to an adjusting motor, and the adjusting motor is fixed on the support frame.

[0011] By adopting the above technical solution, when the second nozzle sprays water normally, the water can be sprayed to the auxiliary block, and enter the auxiliary block through the water inlet on the auxiliary block to gather, so as to prevent the sprayed water from falling directly on the surface of the fabric. The water entering the auxiliary block can soak the wiping layer, and then the motor is adjusted to start and drive the threaded rod to rotate. Under the action of the threaded structure, the slider slides in the slide groove, so that the auxiliary block moves toward the direction of the fabric, and finally the wiping layer is in contact with the surface of the fabric. At this time, the soaked wiping layer can wipe the surface of the fabric, and the floating dust on the fabric can be removed without completely soaking the fabric. While ensuring the normal transportation of the fabric, the cleaning of the fabric surface is completed, which is conducive to improving the cleaning quality of the fabric.

[0012] The present invention is further configured as follows: a transmission wheel is arranged to rotate side by side in the auxiliary block, a water-absorbing belt is arranged around the outside of the transmission wheel, the water-absorbing belt is arranged in contact with the wiping layer, and a transmission motor is fixedly arranged on the auxiliary block and is dynamically connected to the rotating shaft of a transmission wheel.

[0013] The present invention is further configured as follows: a drainage cavity is opened on the inner wall of the auxiliary block facing the intermediate wheel, a plurality of drainage holes are provided between the drainage cavity and the auxiliary block, the drainage cavity is connected to the drainage pipe, and the part of the inner wall of the auxiliary block where the drainage holes are provided protrudes toward the inner side of the auxiliary block and is squeezed and abutted against the water absorbent belt.

[0014] By adopting the above technical solution, the water sprayed out by the second nozzle and entering the interior of the auxiliary block first soaks the water absorbent belt, and at the same time the transmission motor is started to drive the transmission wheel to rotate, and the water absorbent belt is caused to move in a circle between the two transmission wheels under the action of friction. At this time, the water absorbent belt can soak the wiping layer after being soaked, and is squeezed when the water absorbent belt passes through the inner protrusion of the auxiliary block. At this time, part of the water in the water absorbent belt is squeezed to the outside of the water absorbent belt, and enters the drainage cavity through the drainage hole, and is then discharged through the drain pipe. In this way, the water content in the wiping layer can be limited, which can avoid the wiping layer from wetting the fabric when it comes into contact with the fabric, thereby affecting the normal cleaning and transportation of the fabric.

[0015] The present invention is further configured as follows: an elastic sheet is fixedly provided at the water inlet of the auxiliary block, and the end of the elastic sheet away from the water inlet of the auxiliary block can be squeezed and abutted against the water absorbent belt; the part on the outer side of the auxiliary block where the elastic sheet is provided is fixedly provided with a guide inclined block inclined toward the water inlet; a sliding rod is fixedly provided through the end of the elastic sheet away from the water inlet of the auxiliary block, the axial direction of the sliding rod is the same as the axial direction of the transmission wheel, and the end of the sliding rod extends to the outside of the auxiliary block; a limiting groove passed by the sliding rod is provided on the auxiliary block, and the sliding rod can slide along the limiting groove; an auxiliary motor is fixedly provided on the auxiliary block, and the auxiliary motor is powered by a connecting shaft, and two toggle rods forming an angle are fixed on the end of the connecting shaft away from the auxiliary motor, and the end of the sliding rod extends between the two toggle rods.

[0016] By adopting the above technical solution, in the initial state, the elastic sheet does not abut against the water-absorbing belt. At this time, the water-absorbing belt normally absorbs the water entering the auxiliary block. When the water-absorbing belt absorbs too much water, the auxiliary motor rotates forward and drives the toggle rod to flip through the connecting shaft. At this time, the toggle rod drives the sliding rod to slide in the limit groove, thereby causing the elastic sheet to move away from the end of the guiding inclined block toward the direction of the water-absorbing belt. The elastic sheet is in a bent state, and finally the end of the elastic sheet is squeezed and abutted against the water-absorbing belt. At this time, the water at the abutment between the elastic sheet and the water-absorbing belt is squeezed to the outside of the water-absorbing belt. As the water-absorbing belt continues to During continuous operation, the absorbent belt and the elastic sheet slide relative to each other, and the water on each part of the absorbent belt is gradually squeezed out. Since it takes time for the squeezed-out water to re-immerse into the absorbent belt, and the absorbent belt is in operation, the water content of the absorbent belt that has passed through the elastic sheet is less than that of the absorbent belt that has not passed through the elastic sheet. The absorbent belt that has passed through the elastic sheet is squeezed a second time when passing through the protrusion on the inner wall of the auxiliary block. At this time, the water that has re-immersed in the absorbent belt after being squeezed by the elastic sheet is squeezed out again and discharged into the drainage cavity through the drainage hole, thus ensuring that the moisture content of the absorbent belt will not be excessive to the greatest extent. At the same time, since the squeezed-out water does not immediately immerse into the absorbent belt, it will remain in the space between the elastic sheet, the inner wall of the auxiliary block, and the absorbent belt for a short time. When the external second nozzle stops spraying water due to water supply abnormality, the absorbent belt can still remain moist for a period of time due to the retained water. At this time, the wiping layer can continue to wipe and clean the fabric, improving the cleaning equipment's ability to resist water outages.

[0017] The present invention is further configured as follows: a plurality of water guide grooves are formed on the outer side of the auxiliary block facing the viscous wheel, the plurality of water guide grooves extend along the axial direction of the transmission wheel, and a plurality of water inlet holes are formed on the water guide grooves and communicated with the interior of the auxiliary block.

[0018] By adopting the above technical solution, after the water sprayed by the second nozzle is blocked by the auxiliary block, part of the water flow is guided to the water inlet of the auxiliary block through the guiding inclined block, and the other part of the water enters the water guide groove and flows in the water guide groove under the action of gravity. When the water flows to the water inlet hole, it enters the auxiliary block through the water inlet hole. At this time, the water is immersed in the water absorption belt, completing the recovery of the water sprayed by the second nozzle to the greatest extent, and preventing the water from falling directly on the fabric surface and wetting the fabric.

[0019] A cleaning method for cleaning equipment used in the production of soft and anti-pilling fabrics, the cleaning method comprising: S1: Pass the fabric through the input wheel, the middle wheel and the sticky wheel in sequence; S2: Connect the water inlet pipe to the water supply pipe, and connect the drain pipe to the drainage pipe at the same time, so that water enters the water storage chamber through the water inlet pipe; S3: Turn on the first nozzle to spray water through the first nozzle to spray the environment where the fabric is located; S4: Start the driving element to rotate the sticky wheel. At this time, after the fabric passes through the sticky wheel, the sticky wheel cleans the surface of the fabric.

[0020] The beneficial effects of the present invention are as follows: the external water supply pipe and the drainage pipe are connected to the water inlet pipe and the drainage pipe respectively, and then the first nozzle is turned on to allow water to enter the water storage chamber through the water inlet pipe and be sprayed out through the first nozzle. At this time, after the water is sprayed out through the first nozzle, the air humidity of the surrounding environment of the fabric is increased, and the probability of electrostatic adsorption of the fabric during transportation is reduced. Then, after passing through the sticky wheel, the sticky layer on the surface of the sticky wheel removes foreign matter attached to the surface of the fabric, thereby achieving the purpose of cleaning the fabric. At the same time, the spraying direction of the first nozzle will not be directly facing the fabric, so the fabric will not be wetted, reducing the weight of the fabric during transportation, avoiding excessive sinking of the fabric between adjacent conveying rollers, affecting the sticky cleaning of both sides of the fabric, and also ensuring the normal transportation of the fabric, which is conducive to making the fabric complete the cleaning process more smoothly. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a structural schematic diagram of the present invention; Figure 2 for Figure 1 A magnified view of the structure at point A; Figure 3 It is a cross-sectional view of the structure of the present invention; Figure 4 This is a schematic structural diagram of the elastic sheet and the water-absorbing belt in the present invention when they are in contact with each other; Figure 5 It is a structural diagram of the auxiliary block in the present invention.

[0022] In the figure: 10. Support frame; 11. Sticky wheel; 12. Input wheel; 13. Intermediate wheel; 14. Slide rail; 15. Water inlet pipe; 16. Drain pipe; 17. Fabric to be cleaned; 20. Outer block; 21. Water storage chamber; 22. First nozzle; 23. Drain trough; 24. Inner block; 25. Second nozzle; 26. Slide trough; 27. Slider; 28. Threaded rod; 29. ​​Adjustment motor; 30. Auxiliary block; 31. Wiping layer; 32. Transmission wheel; 33. Water absorption belt; 34. Elastic sheet; 35. Sliding rod; 37. Guide bevel block; 38. Water guide trough; 39. Water inlet hole; 40. Drain chamber; 41. Drain hole; 42. Auxiliary motor; 43. Connecting shaft; 44. Toggle rod; 45. Limiting groove; 46. Intermediate pipeline; 47. Transmission motor. DETAILED DESCRIPTION

[0023] In order to make the technical means, creative features, objectives and effects of the present invention easier to understand, the present invention is further explained below with reference to specific illustrations.

[0024] like Figure 1 and Figure 3As shown, a cleaning device for producing soft, pilling-resistant fabrics includes a support frame 10, a sticky wheel 11, an input wheel 12, an intermediate wheel 13, an outer stopper 20, a water storage chamber 21, and a first nozzle 22. The support frame 10 is fixed to a mounting surface, and the sticky wheel 11 is rotatably mounted on the support frame 10. Two sticky wheels 11 are arranged in parallel, and the rotating ends of the sticky wheels 11 are dynamically connected to a drive element fixedly connected to the support frame 10. The axial direction of the sticky wheels 11 is arranged horizontally. The surface of the sticky wheels 11 is provided with a conventional adhesive layer of colloid, which can remove lint adhered to the surface of the fabric. The input wheel 12 is arranged on the horizontal radial side of the sticky wheel 11 and is rotatably connected to the support frame 10. The intermediate wheel 13 is arranged on the vertical radial side of the input wheel 12 and is rotatably connected to the support frame 10. The axial directions of the sticky wheels 11, input wheel 12, and intermediate wheel 13 are the same. The outer stopper 20 is positioned radially on the intermediate wheel 13 away from the input wheel 12. The outer stopper 20 is fixedly connected to the support frame 10, with its ends extending toward the viscous wheel 11 and the input wheel 12, respectively. A water storage chamber 21 is defined within the outer stopper 20, and a plurality of first nozzles 22 are provided, each fixed to the ends of the outer stopper 20 in the direction in which it extends. Several intermediate pipelines 46 are disposed within the support frame 10. A water inlet pipe 15 is fixedly mounted on the support frame 10, communicating with the water storage chamber 21 via at least one independent intermediate pipeline 46. A drainage groove 23 is defined on the side of the outer stopper 20 facing the intermediate wheel 13. A drainage pipe 16 is fixedly mounted on the support frame 10, communicating with the drainage groove 23 via at least one independent intermediate pipeline 46. The water inlet pipe 15 and the drainage pipe 16 can be connected to the water supply and drainage pipelines external to the cleaning device, respectively. The cleaning device is provided with a material 17 to be cleaned. The material 17 first moves around the input wheel 12, then around the intermediate wheel 13, and finally passes between two viscous wheels 11. The movement of the material 17 is controlled by a set of conveyor rollers external to the cleaning device. An inner stopper 24 is fixedly mounted on the support frame 10. The inner stopper 24 is positioned on the side of the intermediate wheel 13 away from the outer stopper 20. Several second nozzles 25 are fixedly mounted on the inner stopper 24, facing away from the intermediate wheel 13. The second nozzles 25 are connected to the water inlet pipe 15.

[0025] like Figure 3 and Figure 5 As shown, an auxiliary block 30 is slidably mounted on the support frame 10, positioned between the intermediate wheel 13 and the viscous wheel 11. The auxiliary block 30 is tilted, with its ends pointing toward the viscous wheel 11 and the intermediate wheel 13, respectively. The auxiliary block 30 extends in the same axial direction as the viscous wheel 11. The auxiliary block 30 is hollow and has a vertical water inlet. A wiping layer 31 is fixedly mounted on the side of the auxiliary block 30 opposite the water inlet. The second nozzle 25 sprays water toward the water inlet of the auxiliary block 30.

[0026] like Figure 1-2 As shown, a slide rail 14 is horizontally fixed on the support frame 10, and a slide groove 26 with an opening facing the auxiliary block 30 is provided on the slide rail 14. A slider 27 extending into the slide groove 26 is fixed on the auxiliary block 30, and the slider 27 slides in the slide groove 26. A threaded rod 28 threadedly connected to the slider 27 is rotatably provided in the slide groove 26, and one end of the threaded rod 28 extends to the outside of the slide rail 14 and is powered by an adjustment motor 29. The adjustment motor 29 is fixed on the support frame 10, and the fabric to be cleaned 17 between the sticky wheel 11 and the intermediate wheel 13 passes through the auxiliary block 30 on the side away from the input wheel 12.

[0027] like Figure 3 and 5 As shown, the auxiliary block 30 is provided with a transmission wheel 32 that rotates side by side. The axial direction of the transmission wheel 32 is the same as that of the viscous wheel 11. A water-absorbing belt 33 is arranged around the outside of the transmission wheel 32. When the transmission wheel 32 rotates, the water-absorbing belt 33 is driven by friction to move around the two transmission wheels 32. The transmission wheels 32 can be replaced with a wheel set with teeth on the outer side according to the working conditions. At the same time, the inner side of the water-absorbing belt 33 is replaced with a belt that can mesh with the outer teeth of the transmission wheel 32, and the water-absorbing belt 33 is fixed or glued to the outer side of the belt. The water-absorbing belt 33 is arranged in sliding contact with the wiping layer 31. The auxiliary block 30 is fixed with a transmission motor 47 that is dynamically connected to the rotating shaft of one of the transmission wheels 32. A drainage cavity 40 is provided on the inner wall of the auxiliary block 30 facing the intermediate wheel 13. A plurality of drainage holes 41 are provided between the drainage cavity 40 and the auxiliary block 30. The drainage cavity 40 is connected to the drainage pipe 16. The portion of the inner wall of the auxiliary block 30 where the drainage holes 41 are provided protrudes toward the inner side of the auxiliary block 30 and is pressed against the water absorption belt 33.

[0028] like Figure 2-Figure 4As shown, an elastic sheet 34 is fixedly provided at the water inlet of the auxiliary block 30. The end of the elastic sheet 34 away from the water inlet of the auxiliary block 30 can be pressed and abutted against the water absorption belt 33. The portion of the outer side of the auxiliary block 30 where the elastic sheet 34 is provided is fixedly provided with a guide bevel 37 inclined toward the water inlet. A sliding rod 35 is fixedly provided through the end of the elastic sheet 34 away from the water inlet of the auxiliary block 30. The axial direction of the sliding rod 35 is aligned with the axial direction of the transmission wheel 32, and the end of the sliding rod 35 extends to the outside of the auxiliary block 30. The auxiliary block 30 is provided with a limiting groove 45 through which the sliding rod 35 passes. The limiting groove 45 extends toward the water absorption belt 33. The sliding rod 35 can slide along the limiting groove 45. An auxiliary motor 42 is fixedly provided on the auxiliary block 30. The auxiliary motor 42 is powered by a connecting shaft 43. Two toggle rods 44 are fixed at an angle to each other at the end of the connecting shaft 43 away from the auxiliary motor 42. The end of the sliding rod 35 extends between the two toggle rods 44. The auxiliary block 30 has a plurality of water guide grooves 38 on its outer side facing the viscous wheel 11 . The plurality of water guide grooves 38 extend axially along the transmission wheel 32 . The water guide grooves 38 have a plurality of water inlet holes 39 connected to the interior of the auxiliary block 30 .

[0029] The external water supply pipe and the drainage pipe are connected to the water inlet pipe 15 and the drainage pipe 16 respectively, and then the first nozzle 22 is turned on to allow water to enter the water storage chamber 21 through the water inlet pipe 15 and be sprayed out through the first nozzle 22. At this time, after the water is sprayed out through the first nozzle 22, the air humidity of the surrounding environment of the fabric is increased, reducing the probability of electrostatic adsorption of the fabric during transportation. Then, after passing through the sticky wheel 11, the sticky layer on the surface of the sticky wheel 11 removes foreign matter attached to the surface of the fabric, thereby achieving the purpose of cleaning the fabric. At the same time, there is no need to wet the fabric, which reduces the weight of the fabric during transportation and avoids excessive sinking of the fabric between adjacent conveying rollers. The pressure of the fabric and the two sticky wheels 11 is similar, ensuring that the fabric is cleaned by the sticky wheel 11. At the same time, the fabric does not sink, which can reduce the influence of the conveying roller group on the fabric transportation, which is conducive to making the fabric complete the cleaning process more smoothly. At the same time, the water sprayed by the first nozzle 22 will partially flow back to the outer block 20 under the action of gravity, and flow into the drainage groove 23 on the inner side of the outer block 20. At this time, the water stored in the drainage groove 23 is discharged through the drain pipe 16 to prevent water accumulation from affecting the fabric passing through the intermediate wheel 13.

[0030] The water inlet pipe 15 can simultaneously conduct water to the interior of the inner block 24 and spray it out through the second nozzle 25, thereby increasing the water spray range, facilitating uniform humidity in the air near the fabric, and further reducing the probability of electrostatic adsorption of the fabric during transportation. When the second nozzle 25 is spraying water normally, the water can be sprayed onto the auxiliary block 30, entering the auxiliary block 30 through the water inlet on the auxiliary block 30 and gathering inside the auxiliary block 30, preventing the sprayed water from directly falling on the fabric surface. The water inside the auxiliary block 30 can soak the wiping layer 31. Then, the regulating motor 29 is activated to drive the threaded rod 28 to rotate. Under the action of the threaded structure, the slider 27 slides within the chute 26, thereby moving the auxiliary block 30 toward the fabric, and finally causing the wiping layer 31 to abut against the fabric surface. At this time, the soaked wiping layer 31 can wipe the fabric surface, removing floating dust from the fabric without completely soaking the fabric. While ensuring normal fabric transportation, the fabric surface is cleaned, which is beneficial to improving the cleaning quality of the fabric.

[0031] The water sprayed out by the second nozzle 25 and entering the auxiliary block 30 first soaks the water absorption belt 33, and at the same time, the transmission motor 47 is started to drive the transmission wheel 32 to rotate. Under the action of friction, the water absorption belt 33 is caused to move around between the two transmission wheels 32. At this time, the water absorption belt 33 is soaked and can soak the wiping layer 31. When the water absorption belt 33 passes through the inner protrusion of the auxiliary block 30, it is squeezed. At this time, part of the moisture in the water absorption belt 33 is squeezed to the outside of the water absorption belt 33 and enters the drainage cavity 40 through the drainage hole 41, and then is discharged through the drain pipe 16. In this way, the water content in the wiping layer 31 can be limited, so that the wiping layer 31 can be prevented from wetting the fabric when it comes into contact with the fabric, thereby affecting the normal cleaning and transportation of the fabric.

[0032] In the initial state, the elastic sheet 34 is not in contact with the water absorption belt 33. At this time, the water absorption belt 33 absorbs the water entering the auxiliary block 30 normally. When the water absorption belt 33 absorbs too much water, the auxiliary motor 42 rotates forward and drives the toggle rod 44 to flip through the connecting shaft 43. At this time, the toggle rod 44 drives the sliding rod 35 to slide in the limiting groove 45. When the toggle rod 44 drives the sliding rod 35 to move, relative sliding occurs between the toggle rod 44 and the sliding rod 35. Then, the elastic sheet 34 moves away from the end of the guide bevel 37 toward the direction of the water absorption belt 33. The elastic sheet 34 is in a bent state, and finally the end of the elastic sheet 34 is pressed and abutted against the water absorption belt 33. At this time, the water at the abutment between the elastic sheet 34 and the water absorption belt 33 is squeezed out to the outside of the water absorption belt 33. As the water absorption belt 33 continues to operate, the water absorption belt 33 slides relative to the elastic sheet 34. At this time, the water in various parts of the water absorption belt 33 is gradually squeezed out. As the squeezed water again immerses into the water absorption belt 33, it needs to be removed. The time required for the water absorption belt 33 to pass through the elastic sheet 34 is short, and the water absorption belt 33 is in operation. Therefore, the water content of the water absorption belt 33 passing through the elastic sheet 34 is less than that of the water absorption belt 33 not passing through the elastic sheet 34. The water absorption belt 33 passing through the elastic sheet 34 is squeezed a second time at the protrusion on the inner wall of the auxiliary block 30. At this time, the water that has re-immersed in the water absorption belt 33 after being squeezed by the elastic sheet 34 is squeezed out again and discharged into the drainage cavity 40 through the drainage hole 41, thereby ensuring that the water content of the water absorption belt 33 does not become excessive. At the same time, because the squeezed-out water does not immediately enter the water absorption belt 33, it will temporarily remain in the space between the elastic sheet 34, the inner wall of the auxiliary block 30, and the water absorption belt 33. When the external second nozzle 25 stops spraying water due to a water supply abnormality, the water absorption belt 33 can still remain moist for a period of time due to the retained water. At this time, the wiping layer 31 can continue to wipe and clean the fabric, thereby improving the cleaning device's ability to withstand water outages.

[0033] After the water sprayed by the second nozzle 25 is blocked by the auxiliary block 30, part of the water flow is guided to the water inlet of the auxiliary block 30 through the guiding inclined block 37, and the other part of the water enters the water guide groove 38 and flows in the water guide groove 38 under the action of gravity. When the water flows to the water inlet hole 39, it enters the auxiliary block 30 through the water inlet hole 39. At this time, the water is immersed in the water absorption belt 33, completing the recovery of the water sprayed by the second nozzle 25 to the greatest extent, and preventing the water from falling directly on the surface of the fabric and wetting the fabric.

[0034] A cleaning method for cleaning equipment used in the production of soft and anti-pilling fabrics, the cleaning method comprising: S1: The fabric to be cleaned 17 is passed around the input wheel 12, the intermediate wheel 13 and the sticky wheel 11 in sequence along the running direction; S2: Connect the water inlet pipe 15 to the water supply pipe, and connect the drain pipe 16 to the drain pipe. Water enters the water storage chamber 21 through the water inlet pipe 15 and is stored. S3: Turn on the first nozzle 22 and the second nozzle 25 to spray water through the first nozzle 22 and the second nozzle 25 to spray the environment of the fabric to be cleaned 17, thereby increasing the humidity of the air around the fabric to be cleaned 17; S4: Starting the driving element to rotate the sticky wheel 11. At this time, after the fabric passes through the sticky wheel 11, the sticky effect of the sticky wheel 11 removes foreign matter on the surface of the fabric to be cleaned 17, thereby achieving the goal of the sticky wheel 11 cleaning the surface of the fabric to be cleaned 17; S5: Intermittently start the regulating motor 29 in forward and reverse directions to move the auxiliary block 30 toward or away from the fabric to be cleaned 17, thereby making the wiping layer 31 adhere to or release the surface of the fabric to be cleaned 17, so that when the fabric to be cleaned 17 passes through the wiping layer 31, the wiping layer 31 wipes the surface of the fabric to be cleaned 17, thereby achieving the purpose of preliminary cleaning.

[0035] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art will appreciate that the present invention is not limited to the foregoing embodiments and that various modifications and improvements may be made to the present invention without departing from the spirit and scope of the present invention. Such modifications and improvements are intended to fall within the scope of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A cleaning device for producing soft and anti-pilling fabrics, characterized by: include: Support frame (10), The viscous wheel (11) is rotatably arranged on the support frame (10), and two viscous wheels (11) are arranged in parallel. The rotating end of the viscous wheel (11) is dynamically connected to a driving element fixedly connected to the support frame (10). The input wheel (12) is arranged on the radial side of the viscous wheel (11), and the input wheel (12) is rotatably connected to the support frame (10). The intermediate wheel (13) is arranged on the radial side of the input wheel (12), and the intermediate wheel (13) is rotatably connected to the support frame (10). The outer stopper (20) is arranged on the radial side of the intermediate wheel (13) away from the input wheel (12), the outer stopper (20) is fixedly connected to the support frame (10), and the two ends of the outer stopper (20) extend toward the direction of the viscous wheel (11) and the input wheel (12), respectively. The water storage chamber (21) is provided in the outer stopper (20). A plurality of first nozzles (22) are provided, and the plurality of first nozzles (22) are respectively fixed at both ends of the extension direction of the outer stopper (20). A water inlet pipe (15) communicating with the water storage chamber (21) is fixedly provided on the support frame (10), a drainage groove (23) is provided on a side of the outer stopper (20) facing the intermediate wheel (13), and a drainage pipe (16) communicating with the drainage groove (23) is fixedly provided on the support frame (10). The water inlet pipe (15) and the drainage pipe (16) can be respectively communicated with a water supply pipe and a drainage pipe outside the cleaning equipment.

2. The cleaning device for producing soft and anti-pilling fabrics according to claim 1, characterized in that: An inner stopper (24) is fixedly provided on the support frame (10), and the inner stopper (24) is provided on a side of the intermediate wheel (13) away from the outer stopper (20). A plurality of second nozzles (25) are fixedly provided on the inner stopper (24) in a direction away from the intermediate wheel (13), and the second nozzles (25) are communicated with the water inlet pipe (15).

3. The cleaning device for producing soft and anti-pilling fabrics according to claim 1, characterized in that: An auxiliary block (30) is slidably provided on the support frame (10) and is located between the intermediate wheel (13) and the sticky wheel (11). The interior of the auxiliary block (30) is a hollow structure and a water inlet is vertically provided thereon. A wiping layer (31) is fixedly provided on a side of the auxiliary block (30) opposite to the water inlet.

4. The cleaning device for producing soft and anti-pilling fabrics according to claim 3, characterized in that: A slide rail (14) is fixedly provided on the support frame (10) horizontally, a slide groove (26) with an opening toward the auxiliary block (30) is provided on the slide rail (14), a slider (27) extending into the slide groove (26) is fixedly provided on the auxiliary block (30), the slider (27) slides in the slide groove (26), a threaded rod (28) threadedly connected to the slider (27) is rotatably provided in the slide groove (26), one end of the threaded rod (28) extends to the outside of the slide rail (14) and is dynamically connected to an adjustment motor (29), and the adjustment motor (29) is fixed on the support frame (10).

5. The cleaning device for producing soft and anti-pilling fabrics according to claim 3, characterized in that: A transmission wheel (32) is provided in parallel and rotated in the auxiliary block (30). A water-absorbing belt (33) is provided around the outer side of the transmission wheel (32). The water-absorbing belt (33) is provided in contact with the wiping layer (31). A transmission motor (47) is fixedly provided on the auxiliary block (30) and is connected to the rotation shaft of one transmission wheel (32).

6. The cleaning device for producing soft and anti-pilling fabrics according to claim 5, characterized in that: A drainage cavity (40) is provided on the inner wall of the auxiliary block (30) on the side facing the intermediate wheel (13). A plurality of drainage holes (41) are provided between the drainage cavity (40) and the auxiliary block (30). The drainage cavity (40) is in communication with the drainage pipe (16). The portion of the inner wall of the auxiliary block (30) provided with the drainage holes (41) protrudes toward the inner side of the auxiliary block (30) and is pressed against the water absorption belt (33).

7. The cleaning device for producing soft and anti-pilling fabrics according to claim 5, characterized in that: An elastic sheet (34) is fixedly provided at the water inlet of the auxiliary block (30), and one end of the elastic sheet (34) away from the water inlet of the auxiliary block (30) can be squeezed and abutted against the water absorption belt (33). A portion of the outer side of the auxiliary block (30) where the elastic sheet (34) is provided is fixedly provided with a guide inclined block (37) inclined toward the water inlet. A sliding rod (35) is fixedly provided through one end of the elastic sheet (34) away from the water inlet of the auxiliary block (30). The axial direction of the sliding rod (35) is the same as the axial direction of the transmission wheel (32). The sliding rod (35) is fixedly provided with a guide inclined block (37) inclined toward the water inlet. ) extends to the outside of the auxiliary block (30), the auxiliary block (30) is provided with a limiting groove (45) through which the sliding rod (35) passes, and the sliding rod (35) can slide along the limiting groove (45), the auxiliary block (30) is fixedly provided with an auxiliary motor (42), the auxiliary motor (42) is connected to a connecting shaft (43) for power, and two toggle rods (44) forming an angle are fixed to one end of the connecting shaft (43) away from the auxiliary motor (42), and the end of the sliding rod (35) extends between the two toggle rods (44).

8. The cleaning device for producing soft and anti-pilling fabrics according to claim 5, characterized in that: The auxiliary block (30) is provided with a plurality of water guide grooves (38) on the outer side thereof facing the viscous wheel (11). The plurality of water guide grooves (38) extend along the axial direction of the transmission wheel (32). The water guide grooves (38) are provided with a plurality of water inlet holes (39) that are in communication with the interior of the auxiliary block (30).

9. A cleaning method for cleaning equipment for producing soft and anti-pilling fabrics according to any one of claims 1 to 8, characterized in that: The cleaning method comprises: S1: The fabric is passed through the input wheel (12), the intermediate wheel (13) and the sticky wheel (11) in sequence; S2: connecting the water inlet pipe (15) to the water supply pipe and the drainage pipe (16) to the drainage pipe, so that water enters the water storage chamber (21) through the water inlet pipe (15) and is stored; S3: turning on the first nozzle (22) to spray water through the first nozzle (22) to spray the environment where the fabric is located; S4: The driving element is started to rotate the sticky wheel (11). At this time, after the fabric passes through the sticky wheel (11), the sticky wheel (11) cleans the surface of the fabric.

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