Water-resource-saving cleaning equipment and method for polyester fabric production
By introducing rotating hair removal devices and filtered water supply components into the polyester fabric cleaning equipment, multiple cleaning of polyester fabrics and water recycling are achieved, the problems of reduced cleaning effect and waste of water resources are solved, and the cleaning efficiency and savings are improved.
Patent Information
- Application Number
- CN202510610458.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-13
- Publication Date
- 2025-08-05
AI Technical Summary
During the cleaning process of existing polyester fabrics, the water in the cleaning tank does not flow, resulting in a decrease in the cleaning effect, and the water resources are seriously wasted, so it cannot be effectively recycled.
Design a cleaning equipment for the production of polyester fabrics, including a rotary hair removal device, a primary cleaning device and a secondary cleaning device. Combined with a filtered water supply component and a lifting drive component, it realizes the filtration purification and recycling of water, ensuring that the fabric is always in contact with clean water during the cleaning process.
Effectively remove fluff and staple fibers on the surface of polyester fabrics, ensure the cleaning effect, and save water resources. Through the cooperation of the running water chamber and the filtered water supply components, water recycling is achieved and water waste is reduced.
Smart Images
Figure CN120425528A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of polyester fabric cleaning equipment, and in particular to a water-saving cleaning equipment and method for polyester fabric production. Background Art
[0002] Polyester fabric is a kind of chemical fiber clothing fabric commonly used in life. Its biggest advantage is its good wrinkle resistance and shape retention, high strength and elastic recovery ability. It is strong, durable, wrinkle-resistant, iron-free, and non-sticky. Polyester fiber has high strength, high modulus, and low water absorption. It has a wide range of uses as a civilian fabric and industrial fabric. In the production process of polyester fabric, polyester fabric usually has fluff or short fibers adhered to it and needs to be cleaned. The existing cleaning method for polyester fabric is mostly to directly transport the polyester fabric into the corresponding cleaning water tank and cooperate with the corresponding cleaning mechanism for continuous cleaning. However, since the water in the cleaning water tank is not flowing, as the cleaning process continues, the water in the cleaning water tank will gradually become dirty, which affects the subsequent cleaning effect. In addition, the water in the cleaning water tank is often not recycled and needs to be replaced regularly, which will cause a certain amount of water waste. Summary of the Invention
[0003] The technical problem to be solved by the present invention is to provide a cleaning device and method for polyester fabric production that can perform preliminary dehairing, primary cleaning and secondary cleaning on polyester fabrics in sequence. During the cleaning process, the water can be filtered and purified and recycled, which is beneficial to saving water resources. In addition, the polyester fabric is always exposed to cleaner water during the process of forward transportation and cleaning, effectively ensuring the overall cleaning effect, which is a water-saving polyester fabric production cleaning device and method.
[0004] In order to solve the above technical problems, the technical solution adopted by the present invention is as follows: A water-saving cleaning device for polyester fabric production includes a rotary dehairing device, a first guide device, a primary cleaning device and a secondary cleaning device arranged in sequence along the conveying direction of the polyester fabric, the primary cleaning device and the secondary cleaning device are respectively arranged directly above the first water storage chamber and the second water storage chamber of the water tank, the first guide device is arranged at the bottom of the first water storage chamber, the primary cleaning device includes a first filtering water supply component, a top brush component, a bottom brush component and a lifting drive component, the top brush component and the bottom brush component are arranged in sequence up and down and enclose a water flow chamber for the polyester fabric to pass through, the water flow chamber is arranged upwardly inclined along the conveying direction of the polyester fabric, the first filtering water supply component is used to filter the water in the first water storage chamber and then convey it to the higher side of the water flow chamber, and the water in the water flow chamber can flow back to the first water storage chamber from the lower side thereof, and the lifting drive component is arranged on the bottom brush component and is used to drive the top brush component to rise and fall.
[0005] The top cleaning brush roller is provided with a top cleaning brush roller, a top cleaning cover, and a first top rotating drive mechanism, the top cleaning cover is provided with an inner top cavity open downwardly, the top cleaning brush roller is rotatably installed in the inner top cavity through a top bearing, the top cleaning brush roller is multiple and is evenly spaced along the conveying direction of the polyester fabric, the first top rotating drive mechanism is provided on the top cleaning cover and is used to drive the multiple top cleaning brush rollers to rotate synchronously, the bottom brush assembly comprises a bottom cleaning brush roller, a bottom guide roller, a bottom cleaning cover and a first bottom rotating drive mechanism, the bottom cleaning cover is provided with an inner bottom cavity open upwardly and running through both ends thereof, the bottom cleaning brush roller is rotatably installed in the inner bottom cavity through a bottom bearing, the bottom cleaning brush roller is multiple and is evenly spaced along the conveying direction of the polyester fabric, the first bottom rotating drive mechanism is provided on the bottom cleaning cover and is used to drive the multiple bottom cleaning brush rollers to rotate synchronously, the multiple top cleaning brush rollers correspond to the multiple bottom cleaning brush rollers one by one up and down, and the bottom cleaning cover is rotatably provided with a bottom guide roller on both sides of the multiple bottom cleaning brush rollers.
[0006] Furthermore, the height in the water flow chamber gradually decreases from its high side to its low side, and the rotation directions of the two adjacent top cleaning brush rollers and the rotation directions of the two adjacent bottom cleaning brush rollers are opposite.
[0007] Furthermore, the secondary cleaning device includes a cleaning water tank, a second filtering water supply component, a second guide device and a kneading device. The cleaning water tank is fixedly installed at the upper end of the water storage tank. The cleaning water tank is provided with a cleaning inner cavity open upward. The second filtering water supply component is used to transport the water in the second water storage cavity to one end of the cleaning inner cavity after filtering. A strip-shaped water outlet is provided at the bottom of the other end of the cleaning inner cavity on the cleaning water tank. There are two second guide devices and they are respectively arranged at both ends of the cleaning inner cavity. There are two kneading devices and they are arranged in the cleaning inner cavity and located between the two second guide devices. The kneading directions of the two kneading devices are opposite. The polyester fabric passes through one of the second guide devices, the two kneading devices and the other second guide device in turn.
[0008] Furthermore, the kneading device includes an upper kneading roller, a lower kneading roller, a second linear drive component, a lifting seat, a sliding block, a sliding rod, a return spring, a fixed block, a first limit block and a second limit block. The outer circumference of the upper kneading roller and the lower kneading roller are fixed with a number of evenly arranged kneading protrusions. There are two lower kneading rollers and they are arranged at intervals. The upper kneading roller is arranged between the two lower kneading rollers. The upper kneading roller is rotatably installed on the lifting seat. There is at least one second linear drive component and is used to drive the lifting seat to move up and down. The second linear drive component is fixedly installed on the horizontal plate, and the horizontal plate is fixedly installed at the upper end of the cleaning water tank. The upper kneading rollers of the two kneading devices move in opposite directions. The two ends of the lower kneading roller are rotatably installed on the two sliding blocks. The sliding block is provided with a sliding hole that is compatible with the sliding rod. The sliding rod The two ends of the sliding rod are respectively fixed on the two fixed blocks, and the fixed block is fixed in the cleaning inner cavity of the cleaning water tank. There are two return springs and they are sleeved on the sliding rod and correspond to the two sliding blocks one by one. The return spring is arranged between the sliding block and the first limit block and is used to always keep the sliding block applying an elastic force toward one side of the upper rubbing roller. The first limit block is fixed on the sliding rod, and the second limit block is fixed on the sliding rod and is located on the side of the sliding block close to the upper rubbing roller. When the upper rubbing roller moves downward, the two lower rubbing rollers can be pushed away from each other. When the upper rubbing roller moves upward, the two return springs can drive the two lower rubbing rollers to approach each other and reset.
[0009] Furthermore, a rolling water squeezing device is provided between the primary cleaning device and the secondary cleaning device. The rolling water squeezing device is provided directly above the first water storage chamber. The rolling water squeezing device includes a water squeezing roller, a pressure plate, an extrusion spring, an adjusting screw, an adjusting nut, a mounting frame and a water squeezing drive assembly. The mounting frame is fixedly installed on the upper end of the water storage tank, and the water squeezing roller is rotatably installed in the mounting frame. There are multiple water squeezing rollers and they are evenly spaced along the conveying direction of the polyester fabric. The water squeezing drive assembly is provided on the mounting frame and is used to drive the multiple water squeezing rollers to rotate synchronously. Adjustment screws are fixedly provided at the four corners of the mounting frame, and the pressure plate is provided directly above the multiple water squeezing rollers. Adjustment holes are provided at the four corners of the pressure plate. The pressure plate is mounted on the four adjusting screws through the four adjusting holes. Adjustment nuts and extrusion springs are provided on the four adjusting screws from top to bottom above the pressure plate.
[0010] Furthermore, there are two rotary dehairing devices arranged at intervals and respectively used to dehair the two side surfaces of the polyester fabric. The polyester fabric is wound in an S shape on the two rotary dehairing devices. The rotary dehairing device includes a rotating cylinder, a rotating shaft, a bearing seat, a dehairing brush roller, a negative pressure cover, a first fixed plate, a second fixed plate, a second rotating drive mechanism, a fixed gear and a moving gear. The rotating shaft is arranged horizontally and rotatably mounted on the bearing seat through a first bearing. The bearing seat is fixedly arranged on one side surface of the first fixed plate. The second rotating drive mechanism is arranged on the other side surface of the first fixed plate and is transmission-connected to one end of the rotating shaft. The other end of the rotating shaft is fixedly connected to the center of one end of the rotating cylinder. The rotating cylinder is provided with an adsorption inner cavity open to the other end. The outer circumference of the rotating cylinder A plurality of evenly arranged strip-shaped depilatory holes are provided on the surface along its circumferential direction; a depilatory brush roller is rotatably installed at the plurality of strip-shaped depilatory holes in the adsorption inner cavity of the rotating cylinder through a second bearing; the depilatory brush roller protrudes from the outer circumferential surface of the rotating cylinder; a moving gear is fixedly installed at one end of the plurality of depilatory brush rollers; a fixed gear is fixedly installed on the outside of the bearing seat; the fixed gear and the plurality of moving gears are meshed for transmission; the negative pressure cover is fixedly installed on the second fixed plate and extends into the adsorption inner cavity of the rotating cylinder; the first fixed plate and the second fixed plate are respectively arranged on both sides of the rotating cylinder; a negative pressure interface is provided at one end of the negative pressure cover; the negative pressure cover is fan-shaped; a negative pressure chamber which is open to its outer circumferential surface and communicated with the negative pressure interface is provided in the negative pressure cover; the negative pressure chamber openings of the negative pressure covers of the two rotating depilatory devices are arranged in opposite directions.
[0011] Furthermore, the rotation speed of the rotating drum is inconsistent with the conveying speed of the polyester fabric.
[0012] Furthermore, annular baffles are fixed at both end edges of the outer circumference of the rotating cylinder, and the other end of the rotating cylinder is rotatably connected to the second fixed plate through a third bearing. A plurality of negative pressure holes are provided on the outer circumference of the rotating cylinder between two adjacent strip deburring holes, which are evenly arranged along its axial direction.
[0013] A water-saving cleaning method for polyester fabric production, using any one of the above-mentioned water-saving cleaning devices for polyester fabric production for cleaning, comprises the following steps:
[0014] Step 1: The polyester fabric is wound in an S shape on two rotating dehairing devices and transported forward. By making multiple dehairing brush rollers follow the rotating drum to revolve around the rotating axis, the dehairing brush rollers are also rotated, and the rotation speed of the rotating drum is inconsistent with the conveying speed of the polyester fabric, so as to roll brush the surfaces of both sides of the polyester fabric, and utilize the negative pressure adsorption of the negative pressure cover to promptly absorb the brushed fluff and short fibers, thereby preliminarily removing the fluff and short fibers;
[0015] Step 2: The polyester fabric passes around the first guide roller and is conveyed forward so that the polyester fabric enters the first water storage chamber of the water storage tank and is initially soaked in water;
[0016] Step 3: The polyester fabric passes through the water flow cavity between the top brushing assembly and the bottom brushing assembly and is transported forward. The top cleaning brush rollers and the bottom cleaning brush rollers are rotated to brush both sides of the polyester fabric. The downward flow of the water removes the brushed fluff and short fibers in time to clean the polyester fabric once.
[0017] Step 4: The polyester fabric passes through a plurality of squeezing rollers and a pressing plate and is conveyed forward. The plurality of squeezing rollers are rotated to initially squeeze out the water absorbed by the polyester fabric after passing through the primary cleaning device.
[0018] Step 5: The polyester fabric passes through one of the second guide devices, two rubbing devices and another second guide device in turn and is transported forward and immersed in the water in the cleaning water tank. The upper rubbing roller is driven up and down by the second linear drive member, and the upper rubbing rollers of the two rubbing devices move in opposite directions to rub the surfaces of both sides of the polyester fabric and achieve a secondary cleaning effect.
[0019] From the above description, it can be seen that the water-saving cleaning equipment and method for polyester fabric production provided by the present invention have the following beneficial effects:
[0020] 1. By setting up a rotary depilatory device, the easily removable fluff or short fibers on the surface of the polyester fabric can be removed before it enters the water;
[0021] Second, the polyester fabric can be cleaned once and twice in sequence through the primary cleaning device and the secondary cleaning device, thereby removing the fluff or short fibers on the surface of the polyester fabric that are difficult to remove;
[0022] 3. By providing an inclined water flow chamber between the top brush assembly and the bottom brush assembly of the first cleaning device, and cooperating with the provision of the first filter water supply assembly, it is effectively ensured that the water in the water flow chamber is flowing and clean. By filtering and purifying the water in the first water storage chamber and recycling it, it is beneficial to save water resources. In addition, the water in the water flow chamber will flow from its high side to its low side, and the polyester fabric is transported from the low side to the high side of the water flow chamber. This ensures that the polyester fabric is always exposed to cleaner water during the forward transportation and cleaning process, thereby effectively ensuring the overall cleaning effect.
[0023] Fourth, by providing the first guide device, the polyester fabric can be guided into the first water storage chamber before entering the first cleaning device, thereby allowing the polyester fabric to be immersed in water first. At the same time, while the first cleaning device is cleaning the polyester fabric, part of the water will flow directly along the surface of the polyester fabric to the bottom of the first water storage chamber without flowing out of the water tank;
[0024] 5. Through the setting of the lifting drive assembly, when cleaning is required, the top brush assembly can be driven to rise by the lifting drive assembly to separate the fixed brush assembly from the bottom brush assembly, thereby facilitating the polyester fabric to pass through the cleaning device once. After passing through, the bottom brush assembly is driven to descend by the lifting drive assembly. BRIEF DESCRIPTION OF THE DRAWINGS
[0025] Figure 1 The present invention is a schematic structural diagram of a water-saving cleaning device and method for polyester fabric production.
[0026] Figure 2 for Figure 1 A local enlarged schematic diagram of point A in the middle.
[0027] Figure 3 It is a schematic diagram of the three-dimensional structure of the rotary hair removal device.
[0028] Figure 4 This is a schematic diagram of the internal structure of a rotary hair removal device.
[0029] Figure 5 Schematic diagram of the three-dimensional structure of the top brush washing component.
[0030] Figure 6 Schematic diagram of the three-dimensional structure of the bottom brushing component.
[0031] Figure 7 It is a schematic diagram of the three-dimensional structure decomposition of the rolling water squeezing device.
[0032] Figure 8 It is a schematic diagram of the three-dimensional structure of the secondary cleaning device.
[0033] Figure 9 It is a schematic diagram of the three-dimensional structure of the rotating cylinder.
[0034] In the figure: 1 - Rotary depilatory device; 11 - Rotating cylinder; 111 - Adsorption inner chamber; 112 - Strip depilatory hole; 113 - Annular baffle; 114 - Negative pressure hole; 12 - Rotating shaft; 13 - Bearing seat; 14 - Depilatory brush roller; 15 - Negative pressure cover; 151 - Negative pressure interface; 152 - Negative pressure chamber; 16 - First fixed plate; 17 - Second fixed plate; 18 - Second rotary drive mechanism; 191 - Fixed gear; 192 - Moving gear; 2. First guide device; 3. Primary cleaning device; 31-first filter water supply assembly; 311-first top water outlet pipe; 312-first bottom water outlet pipe; 32-top brush assembly; 321-top cleaning brush roller; 322-top cleaning cover; 3221-inner top cavity; 323-first top rotation drive mechanism; 33-bottom brush assembly; 331-bottom cleaning brush roller; 332-bottom guide roller; 333-bottom cleaning cover; 3331-inner bottom cavity; 334-first bottom rotation drive mechanism; 34 1 - first linear drive member; 35 - water flow chamber; 4 - secondary cleaning device; 41 - cleaning water tank; 411 - cleaning inner chamber; 412 - strip water outlet; 413 - horizontal plate; 42 - second filter water supply assembly; 421 - second water outlet pipe; 43 - second guide device; 431 - second guide roller; 432 - second mounting seat; 44 - kneading device; 441 - upper kneading roller; 442 - lower kneading roller; 443 - second linear drive member; 444 - lifting seat; 445-sliding block; 446-sliding rod; 447-reset spring; 448-fixed block; 4491-first limit block; 4492-second limit block; 5-water storage tank; 51-first water storage chamber; 52-second water storage chamber; 6-rolling water squeezing device; 61-water squeezing roller; 62-pressing plate; 621-adjusting hole; 63-extrusion spring; 64-adjusting screw; 65-adjusting nut; 66-mounting frame; 67-water squeezing drive assembly; 7-polyester fabric. DETAILED DESCRIPTION
[0035] The present invention is further described below through specific embodiments.
[0036] like Figures 1 to 9As shown, the water-saving polyester fabric production of the present invention includes a rotary dehairing device 1, a first guide device 2, a primary cleaning device 3 and a secondary cleaning device 4 arranged in sequence along the conveying direction of the polyester fabric 7, the primary cleaning device 3 and the secondary cleaning device 4 are respectively arranged above the first water storage chamber 51 and the second water storage chamber 52 of the water storage tank 5, the first guide device 2 is arranged at the bottom of the first water storage chamber 51, the primary cleaning device 3 includes a first filtering water supply component 31, a top brushing component 32, a bottom brushing component 33 and a lifting drive component, the top brushing component The components 32 and the bottom brush component 33 are arranged in sequence up and down, and a water flow cavity 35 is formed between the two to allow the polyester fabric 7 to pass through. The water flow cavity 35 is arranged to be inclined upward along the conveying direction of the polyester fabric 7. The first filter water supply component 31 is used to convey the water in the first water storage cavity 51 to the high side of the water flow cavity 35 after filtration. The water in the water flow cavity 35 can flow back to the first water storage cavity 51 from the low side thereof. The lifting drive component is provided on the bottom brush component 33 and is used to drive the top brush component 32 to rise and fall.
[0037] By setting the rotary dehairing device 1, the fluff or short fibers that are easy to remove on the surface of the polyester fabric 7 can be removed before the polyester fabric 7 enters the water; by the primary cleaning device 3 and the secondary cleaning device 4, the polyester fabric 7 can be cleaned once and twice in sequence, so that the fluff or short fibers that are not easy to remove on the surface of the polyester fabric 7 can be removed; by providing the inclined water flow chamber 35 between the top brush assembly 32 and the bottom brush assembly 33 of the first cleaning device, and cooperating with the setting of the first filtering water supply assembly 31, it is effectively ensured that the water in the water flow chamber 35 is flowing and clean, and by filtering and purifying the water in the first water storage chamber 51 and recycling it, it is beneficial to save water resources. In addition, the water in the water flow chamber 35 will flow from its high side to its low side, and the conveying direction of the polyester fabric 7 is from the low side to the high side of the water flow chamber 35, thereby ensuring that the polyester The polyester fabric 7 is always exposed to cleaner water during the process of being transported forward and cleaned, thereby effectively ensuring the overall cleaning effect; through the setting of the first guide device 2, the polyester fabric 7 can be guided into the first water storage chamber 51 before entering the first cleaning device, so that the polyester fabric 7 can be immersed in water first, and at the same time, in the process of the first cleaning device cleaning the polyester fabric 7, part of the water will flow directly along the surface of the polyester fabric 7 to the bottom of the first water storage chamber 51, and will not flow out of the water tank 5; through the setting of the lifting drive assembly, when cleaning is required, the top brush assembly 32 can be driven to rise by the lifting drive assembly, so that the fixed brush assembly is separated from the bottom brush assembly 33, thereby facilitating the polyester fabric 7 to pass through the primary cleaning device 3. After passing through, the bottom brush assembly 33 is driven to descend by the lifting drive assembly.
[0038] The first guide device 2 includes a first guide roller and a first mounting seat. The first guide roller is rotatably mounted on the first mounting seat. The first mounting seat is fixedly mounted in the first water storage chamber 51 of the water tank 5.
[0039] The first filtered water supply assembly 31 includes a first water pump, a first filter box, a first water supply hose, a first top water outlet pipe 311 and a first bottom water outlet pipe 312. The first water pump and the first filter box are both arranged in the first water storage chamber 51 of the water storage tank 5. The water inlet end of the first water pump is connected to the first filter box, and the water outlet end of the first water pump is connected to the first top water outlet pipe 311 and the first bottom water outlet pipe 312 through the first water supply hose. The first top water outlet pipe 311 is installed on the top cleaning cover 322, and the outer circumference of the first top water outlet pipe 311 is provided with a first top strip. shaped water outlet, the first bottom water outlet pipe 312 is installed on the bottom cleaning cover 333, and a first bottom strip-shaped water outlet is provided on the outer circumference of the first bottom water outlet pipe 312. The first filter box can adopt the structure in the prior art, which is used to filter and purify the water in the first water storage chamber 51. The first water pump can pump the water in the first water storage chamber 51 that has been filtered and purified by the first filter box to the first top water outlet pipe 311 and the first bottom water outlet pipe 312 through the first water supply hose, and flow out from the first top strip-shaped water outlet and the first bottom strip-shaped water outlet into the water flow chamber 35 respectively.
[0040] The lifting drive assembly includes four first linear drive members 341, and the four first linear drive members 341 are respectively arranged at the four corners of the bottom cleaning cover 333. Preferably, the first linear drive member 341 is a first hydraulic cylinder, a first air cylinder or a first electric push rod.
[0041] The top brushing assembly 32 includes a top cleaning brush roller 321, a top cleaning cover 322, and a first top rotation drive mechanism 323. The top cleaning cover 322 is provided with an inner top cavity 3221 open downward. The top cleaning brush roller 321 is rotatably installed in the inner top cavity 3221 through a top bearing. There are multiple top cleaning brush rollers 321 and they are evenly spaced along the conveying direction of the polyester fabric 7. The first top rotation drive mechanism 323 is provided on the top cleaning cover 322 and is used to drive the multiple top cleaning brush rollers 321 to rotate synchronously. Preferably, the number of the top cleaning brush rollers 321 is 5-10.
[0042] Correspondingly, the first top rotation drive mechanism 323 includes a first top drive motor, a first top motor seat and a first top transmission assembly. The motor shaft of the first top drive motor is connected to one end of one of the top cleaning brush rollers 321 through a first top coupling. The first top drive motor is fixedly mounted on the first top motor seat. The first top motor seat is fixedly mounted on one side surface of the top cleaning cover 322. The two adjacent top cleaning brush rollers 321 are connected through the first top transmission assembly. Preferably, the first top transmission assembly is a first top gear transmission assembly.
[0043] Correspondingly, the bottom brush assembly 33 includes a bottom cleaning brush roller 331, a bottom guide roller 332, a bottom cleaning cover 333 and a first bottom rotation drive mechanism 334. The bottom cleaning cover 333 is provided with an inner bottom cavity 3331 that is open upward and runs through both ends thereof. The bottom cleaning brush roller 331 is rotatably installed in the inner bottom cavity 3331 through a bottom bearing. The bottom cleaning brush rollers 331 are multiple and are evenly spaced along the conveying direction of the polyester fabric 7. The first bottom rotation drive mechanism 334 is provided on the bottom cleaning cover 333 and is used to drive the multiple bottom cleaning brush rollers 331 to rotate synchronously. The multiple top cleaning brush rollers 321 correspond to the multiple bottom cleaning brush rollers 331 one by one up and down. The bottom guide rollers 332 are rotatably installed on both sides of the multiple bottom cleaning brush rollers 331 on the bottom cleaning cover 333. Preferably, the number of the bottom cleaning brush rollers 331 is 5-10.
[0044] Correspondingly, the first bottom rotation drive mechanism 334 includes a first bottom drive motor, a first bottom motor seat and a first bottom transmission assembly. The motor shaft of the first bottom drive motor is connected to one end of one of the bottom cleaning brush rollers 331 through a first bottom coupling. The first bottom drive motor is fixedly mounted on the first bottom motor seat. The first bottom motor seat is fixedly mounted on one side surface of the bottom cleaning cover 333. The two adjacent bottom cleaning brush rollers 331 are connected through the first bottom transmission assembly. Preferably, the first bottom transmission assembly is a first bottom gear transmission assembly.
[0045] Therefore, the first top rotation drive mechanism 323 can drive multiple top cleaning brush rollers 321 to rotate synchronously, and the first bottom rotation drive mechanism 334 can drive multiple bottom cleaning brush rollers 331 to rotate synchronously. At the same time, in conjunction with the flowing water in the water flow chamber 35, it can simultaneously play a good cleaning and brushing role on both sides of the polyester fabric 7. In addition, the left and right side edges of the top cleaning cover 322 are fixed with top sealing gaskets on the lower end faces, and the left and right side edges of the bottom cleaning cover 333 are fixed with bottom sealing gaskets on the upper end faces, which is beneficial to improving the sealing effect on the left and right sides of the water flow chamber 35.
[0046] The height of the water flow cavity 35 gradually decreases from its high side to its low side, so as to better ensure the filling effect of the water in the water flow cavity 35.
[0047] The rotation directions of the two adjacent top cleaning brush rollers 321 and the rotation directions of the two adjacent bottom cleaning brush rollers 331 are opposite to each other, which is beneficial to further improve the overall cleaning effect.
[0048] The secondary cleaning device 4 includes a cleaning water tank 41, a second filtering water supply component 42, a second guide device 43 and a kneading device 44. The cleaning water tank 41 is fixedly installed on the upper end of the water storage tank 5. The cleaning water tank 41 is provided with an upwardly open cleaning cavity 411. The second filtering water supply component 42 is used to transport the water in the second water storage cavity 52 to one end of the cleaning cavity 411 after filtering. The cleaning water tank 41 is provided with a strip-shaped water droplet 412 at the bottom of the other end of the cleaning cavity 411. There are two second guide devices 43 and they are respectively provided at both ends of the cleaning cavity 411. There are two kneading devices 44 and they are provided in the cleaning cavity 411 and located between the two second guide devices 43. The kneading directions of the two kneading devices 44 are opposite. The polyester fabric 7 passes through one of the second guide devices 43, two kneading devices 44 and another second guide device 43 in turn.
[0049] By providing the cleaning inner cavity 411 and the strip-shaped drain outlet 412 in the cleaning water tank 41, and cooperating with the setting of the second filter water supply component 42, it is effectively ensured that the water in the cleaning inner cavity 411 is flowing and clean, and by filtering and purifying the water in the second water storage cavity 52 and recycling it, it is beneficial to save water resources. In addition, through the setting of the kneading device 44, the polyester fabric 7 can be further subjected to a corresponding kneading and cleaning effect, so as to better remove impurities on the surface of the polyester fabric 7 and improve the overall cleaning effect. At the same time, by setting the kneading direction of the kneading device 44 to the opposite direction, the normal transportation of the polyester fabric 7 during the kneading process can be effectively ensured.
[0050] The second guide device 43 includes a second guide roller 431 and a second mounting seat 432. The second guide rollers 431 are two and are spaced apart from each other and rotatably mounted on the second mounting seat 432. The second mounting seat 432 is fixedly mounted in the cleaning cavity 411 of the cleaning water tank 41.
[0051] The second filtered water supply assembly 42 includes a second water pump, a second filter box, a second water supply hose, and a second water outlet pipe 421. The second water pump and the second filter box are both arranged in the second water storage chamber 52 of the water storage tank 5. The water inlet end of the second water pump is connected to the second filter box, and the water outlet end of the second water pump is connected to the second water outlet pipe 421 through the second water supply hose. The second water outlet pipe 421 is installed on the clean water tank, and a second strip is provided on the outer circumference of the second water outlet pipe 421. Water outlet, the second filter box can adopt the structure in the existing technology, which is used to filter and purify the water in the second water storage chamber 52. The second water pump can pump the water in the second water storage chamber 52 that has been filtered and purified by the second filter box through the second water supply hose to the second water outlet pipe 421, and flow out from the second strip water outlet to the cleaning cavity 411 of the cleaning water tank 41, and the water in the cleaning cavity 411 can flow back to the second water storage chamber 52 from the strip downspout 412.
[0052] The kneading device 44 includes an upper kneading roller 441, a lower kneading roller 442, a second linear drive member 443, a lifting seat 444, a sliding block 445, a sliding rod 446, a return spring 447, a fixed block 448, a first limit block 4491 and a second limit block 4492. The outer circumference of the upper kneading roller 441 and the lower kneading roller 442 are fixed with a plurality of evenly arranged kneading protrusions. There are two lower kneading rollers 442 and they are arranged at intervals. The upper kneading roller 441 is arranged between the two lower kneading rollers 442. The upper kneading roller 441 is rotatably installed on the lifting seat 444. The second linear drive member 443 is at least one and is used to drive the lifting seat 444. The seat 444 moves up and down. Preferably, the number of the second linear drive members 443 is two, and the second linear drive member 443 is a second hydraulic cylinder, a second air cylinder or a second electric push rod. The second linear drive member 443 is fixedly mounted on the transverse plate 413, and the transverse plate 413 is fixedly arranged on the upper end of the cleaning water tank 41. The moving directions of the upper kneading rollers 441 of the two kneading devices 44 are opposite to each other, so as to realize the opposite kneading directions of the two kneading devices 44. The two ends of the lower kneading roller 442 are rotatably mounted on the two sliding blocks 445 respectively. The sliding block 445 is provided with a sliding hole adapted to the sliding rod 446. The sliding rod 44 6 are two and are arranged in parallel at intervals. The sliding block 445 is sleeved on the sliding rod 446 on the corresponding side through the sliding hole and the two slide together. The two ends of the sliding rod 446 are respectively fixed on the two fixed blocks 448. The fixed block 448 is fixed in the cleaning inner cavity 411 of the cleaning water tank 41. The reset spring 447 is two and sleeved on the sliding rod 446 and corresponds to the two sliding blocks 445 one by one. The reset spring 447 is provided between the sliding block 445 and the first limit block 4491 and is used to always keep the sliding block 445 applying an elastic force toward the side of the upper rubbing roller 441. With force, the first limit block 4491 is fixed on the sliding rod 446, and the second limit block 4492 is fixed on the sliding rod 446 and is located on the side of the sliding block 445 close to the upper rubbing roller 441. The polyester fabric 7 passes between the two lower rubbing rollers 442 and the upper rubbing roller 441. When the upper rubbing roller 441 moves downward, the two lower rubbing rollers 442 can be pushed away from each other. When the upper rubbing roller 441 moves upward, the two reset springs 447 can drive the two lower rubbing rollers 442 to approach each other and reset. Repeating this process can achieve a good rubbing and cleaning effect on the surfaces of both sides of the polyester fabric 7.
[0053] In addition, a rolling water squeezing device 6 is provided between the primary cleaning device 3 and the secondary cleaning device 4. The rolling water squeezing device 6 is provided just above the first water storage chamber 51. The rolling water squeezing device 6 includes a water squeezing roller 61, a pressure plate 62, an extrusion spring 63, an adjusting screw 64, an adjusting nut 65, a mounting frame 66 and a water squeezing drive assembly 67. The mounting frame 66 is fixedly mounted on the upper end of the water storage tank 5. The water squeezing roller 61 is rotatably mounted in the mounting frame 66. There are multiple water squeezing rollers 61 and they are evenly spaced along the conveying direction of the polyester fabric 7. The water squeezing drive assembly 67 is provided on the mounting frame 66 and is used to drive the multiple water squeezing rollers 61 to rotate synchronously. The adjusting screws 64 are fixedly provided at the four corners of the mounting frame 66. The pressure plate 62 is provided just above the multiple water squeezing rollers 61. The four corners of the pressure plate 62 are provided with adjusting holes 621. The pressure plate 62 is sleeved on the four adjusting holes 621. On the adjusting screw 64, the four adjusting screws 64 are provided with the adjusting nuts 65 and the extrusion springs 63 in sequence from top to bottom above the pressing plate 62, and the polyester fabric 7 passes through between the multiple squeezing rollers 61 and the pressing plate 62. As a result, through the cooperation of the multiple squeezing rollers 61 and the pressing plate 62, before the polyester fabric 7 enters the secondary cleaning device 4, the water absorbed by the polyester fabric 7 after passing through the primary cleaning device 3 can be initially squeezed out, which is conducive to better ensuring the secondary cleaning effect of the secondary cleaning device 4 on the polyester fabric 7. In addition, when preparing to clean the polyester fabric 7, the adjusting nut 65 can be loosened to loosen the pressing plate 62 to facilitate the polyester fabric 7 to pass through between the pressing plate 62 and the multiple squeezing rollers 61. After passing through, the adjusting nut 65 is tightened again so that the multiple squeezing rollers 61 can press the polyester fabric 7 on the lower end surface of the pressing plate 62 well.
[0054] Correspondingly, the water squeezing drive assembly 67 includes a third drive motor, a third motor seat and a third transmission assembly. The motor shaft of the third drive motor is transmission-connected to one end of one of the water squeezing rollers 61 through a third coupling. The third drive motor is fixedly mounted on the third motor seat. The third motor seat is fixedly mounted on one side surface of the mounting frame 66. The two adjacent water squeezing rollers 61 are transmission-connected through the third transmission assembly. Preferably, the third transmission assembly is a third belt transmission assembly.
[0055] The rotary dehairing device 1 is two and spaced apart and is used to dehair the two side surfaces of the polyester fabric 7 respectively. The polyester fabric 7 is wound in an S shape on the two rotary dehairing devices 1. The rotary dehairing device 1 includes a rotating cylinder 11, a rotating shaft 12, a bearing seat 13, a dehairing brush roller 14, a negative pressure cover 15, a first fixed plate 16, a second fixed plate 17, a second rotating drive mechanism 18, a fixed gear 191 and a moving gear 192. The rotating shaft 12 is arranged horizontally and is rotatably mounted on the bearing seat 13 through a first bearing. The bearing seat 13 is fixedly arranged on one side surface of the first fixed plate 16, and the second rotation driving mechanism 18 is arranged on the other side surface of the first fixed plate 16 and is transmission-connected to one end of the rotating shaft 12. The other end of the rotating shaft 12 is fixedly connected to the center of one end of the rotating cylinder 11. The rotating cylinder 11 is provided with an adsorption inner cavity 111 open to the other end. A plurality of strip-shaped de-hairing holes 112 are evenly arranged on the outer circumferential surface of the rotating cylinder 11 along its circumferential direction. The adsorption inner cavity 111 of the rotating cylinder 11 is provided with a plurality of the The strip-shaped depilatory holes 112 are rotatably mounted with the depilatory brush roller 14 through the second bearing. Preferably, the number of the depilatory brush rollers 14 is 10-20, and the depilatory brush rollers 14 protrude from the outer circumference of the rotating cylinder 11. One end of the plurality of depilatory brush rollers 14 is fixedly mounted with the movable gear 192, and the outer side of the bearing seat 13 is fixedly mounted with the fixed gear 191. The fixed gear 191 and the plurality of movable gears 192 are meshed for transmission, and the negative pressure cover 15 is fixedly mounted on the second fixed plate 17 and extends into the rotating cylinder. In the adsorption inner cavity 111 of 11, the first fixed plate 16 and the second fixed plate 17 are respectively arranged on both sides of the rotating drum 11, and a negative pressure interface 151 is provided at one end of the negative pressure cover 15. The negative pressure cover 15 is fan-shaped, and a negative pressure cavity 152 is provided in the negative pressure cover 15, which is open to its outer peripheral surface and communicated with the negative pressure interface 151. The openings of the negative pressure cavities 152 of the negative pressure covers 15 of the two rotary hair removal devices 1 are arranged in opposite directions. In addition, the rotation speed of the rotating drum 11 is inconsistent with the conveying speed of the polyester fabric 7.
[0056] The second rotating drive mechanism 18 can drive the rotating drum 11 to rotate, thereby driving the multiple hair removal brush rollers 14 to revolve around the rotating shaft 12, and at the same time cooperate with the meshing transmission of the movable gear 192 and the fixed gear 191, and the fixed gear 191 is fixed. In this way, when the movable gear 192 follows the hair removal brush roller 14 to revolve, the hair removal brush roller 14 can be rotated by itself, and by making the rotation speed of the rotating drum 11 inconsistent with the conveying speed of the polyester fabric 7, the polyester fabric 7 can be conveyed. The surface of 7 will be completely brushed by multiple depilatory brush rollers 14, so that the fluff or short fibers that are easy to remove from the surface of the polyester fabric 7 can be brushed away. Accordingly, the negative pressure interface 151 of the negative pressure cover 15 is connected to an external negative pressure source, so that negative pressure is generated in the negative pressure chamber 152. In this way, the fluff and short fibers brushed off can be adsorbed away in time by using negative pressure adsorption, so as to avoid the fluff and short fibers from remaining on the depilatory brush roller 14 as much as possible, which is conducive to ensuring the long-term and efficient cleaning effect of the depilatory brush roller 14, and further ensuring the initial depilatory effect on the polyester fabric 7.
[0057] The second rotation drive mechanism 18 includes a second drive motor and a second motor base. The motor shaft of the second drive motor is transmission-connected to one end of the rotating shaft 12 via a second coupling. The second drive motor is fixedly mounted on the second motor base, and the second motor base is fixedly mounted on the first fixed plate 16.
[0058] In addition, annular baffles 113 are fixedly provided at both end edges of the outer circumference of the rotating cylinder 11. The other end of the rotating cylinder 11 is rotatably connected to the second fixed plate 17 through a third bearing to provide rotational support for the other end of the rotating cylinder 11 and further improve the stability of the rotating cylinder 11 during rotation. A plurality of negative pressure holes 114 are provided on the outer circumference of the rotating cylinder 11 between two adjacent strip-shaped deburring holes 112, which are evenly arranged along its axial direction.
[0059] A water-saving polyester fabric production cleaning method is provided, wherein the water-saving polyester fabric production cleaning method described in any one of the above is used for cleaning, and comprises the following steps:
[0060] Step 1: The polyester fabric 7 is wound in an S shape on two rotating dehairing devices 1 and conveyed forward. By making multiple dehairing brush rollers 14 follow the rotating drum 11 to revolve around the rotating shaft 12, the dehairing brush rollers 14 are also rotated, and the rotation speed of the rotating drum 11 is inconsistent with the conveying speed of the polyester fabric 7, so as to roll brush the surfaces of both sides of the polyester fabric 7, and utilize the negative pressure adsorption of the negative pressure cover 15 to timely absorb the brushed fluff and short fibers, thereby preliminarily removing the fluff and short fibers;
[0061] Step 2: The polyester fabric 7 passes around the first guide roller and is conveyed forward, so that the polyester fabric 7 enters the first water storage chamber 51 of the water storage tank 5 and is initially immersed in water;
[0062] Step 3: The polyester fabric 7 passes through the water flow chamber 35 between the top brush assembly 32 and the bottom brush assembly 33 and is transported forward. The top cleaning brush rollers 321 and the bottom cleaning brush rollers 331 are rotated to brush both sides of the polyester fabric 7. The downward flow of the water removes the brushed fluff and short fibers in time, thereby cleaning the polyester fabric 7 once.
[0063] Step 4: The polyester fabric 7 passes through between the multiple squeezing rollers 61 and the pressing plate 62 and is transported forward. The multiple squeezing rollers 61 are rotated to initially squeeze out the water absorbed by the polyester fabric 7 after passing through the primary cleaning device 3.
[0064] Step 5: The polyester fabric 7 passes through one of the second guide devices 43, two kneading devices 44 and another second guide device 43 in sequence and is transported forward and immersed in the water in the cleaning water tank 41. The upper kneading roller 441 is driven up and down by the second linear drive member 443, and the movement directions of the upper kneading rollers 441 of the two kneading devices 44 are opposite to each other, so as to knead the surfaces of both sides of the polyester fabric 7 and achieve a secondary cleaning effect.
[0065] The above are only some specific implementation methods of the present invention, but the design concept of the present invention is not limited to this. Any non-substantial changes to the present invention using this concept shall be deemed as an infringement of the protection scope of the present invention.
Claims
1. A water-saving cleaning device for polyester fabric production, characterized by: The invention also provides a method for cleaning the cleaning surface of the cleaning surface of the cleaning surface, wherein the cleaning surface is provided with a first cleaning device and a second cleaning device. The method further comprises: firstly, a first cleaning device and a second cleaning device arranged in sequence along the conveying direction of the polyester fabric, wherein the first cleaning device and the second cleaning device are respectively arranged directly above the first water storage chamber and the second water storage chamber of the water tank, and the first guide device is arranged at the bottom of the first water storage chamber. The first cleaning device comprises a first filtering water supply component, a top brush component, a bottom brush component and a lifting drive component. The top brush component and the bottom brush component are arranged in sequence up and down and a water flow chamber is formed between the two for the polyester fabric to pass through. The water flow chamber is arranged upwardly inclined along the conveying direction of the polyester fabric. The first filtering water supply component is used to filter the water in the first water storage chamber and then convey it to the higher side of the water flow chamber. The water in the water flow chamber can flow back to the first water storage chamber from the lower side thereof. The lifting drive component is provided on the bottom brush component and is used to drive the top brush component to rise and fall.
2. The water-saving cleaning equipment for polyester fabric production according to claim 1, characterized in that: The top brush assembly includes a top cleaning brush roller, a top cleaning cover, and a first top rotation drive mechanism. The top cleaning cover is provided with an inner top cavity open downwards. The top cleaning brush roller is rotatably installed in the inner top cavity through a top bearing. There are multiple top cleaning brush rollers and they are evenly spaced along the conveying direction of the polyester fabric. The first top rotation drive mechanism is provided on the top cleaning cover and is used to drive the multiple top cleaning brush rollers to rotate synchronously. The bottom brush assembly includes a bottom cleaning brush roller, a bottom guide roller, a bottom cleaning cover and a first bottom rotation drive mechanism. The bottom cleaning cover is provided with an inner bottom cavity which is open upward and passes through both ends thereof. The bottom cleaning brush roller is rotatably installed in the inner bottom cavity through a bottom bearing. There are multiple bottom cleaning brush rollers which are evenly spaced along the conveying direction of the polyester fabric. The first bottom rotation drive mechanism is provided on the bottom cleaning cover and is used to drive the multiple bottom cleaning brush rollers to rotate synchronously. The multiple top cleaning brush rollers correspond to the multiple bottom cleaning brush rollers one by one up and down. The bottom guide rollers are rotatably installed on both sides of the multiple bottom cleaning brush rollers on the bottom cleaning cover.
3. The water-saving cleaning equipment for polyester fabric production according to claim 2, characterized in that: The height of the water flow chamber gradually decreases from its high side to its low side, and the rotation directions of the two adjacent top cleaning brush rollers and the rotation directions of the two adjacent bottom cleaning brush rollers are opposite.
4. The water-saving cleaning equipment for polyester fabric production according to claim 1, characterized in that: The secondary cleaning device includes a cleaning water tank, a second filtering water supply component, a second guide device and a kneading device. The cleaning water tank is fixedly installed at the upper end of the water storage tank. The cleaning water tank is provided with an upwardly open cleaning inner cavity. The second filtering water supply component is used to transport the water in the second water storage cavity to one end of the cleaning inner cavity after filtering. The cleaning water tank is provided with a strip-shaped water outlet at the bottom of the other end of the cleaning inner cavity. There are two second guide devices and they are respectively provided at both ends of the cleaning inner cavity. There are two kneading devices and they are provided in the cleaning inner cavity and located between the two second guide devices. The kneading directions of the two kneading devices are opposite. The polyester fabric passes through one of the second guide devices, two of the kneading devices and the other second guide device in turn.
5. The water-saving cleaning equipment for polyester fabric production according to claim 4, characterized in that: The camming mechanism comprises an upper camming roller, a lower camming roller, a second linear drive member, a lifting seat, a sliding block, a sliding rod, a return spring, a fixed block, a first limit block and a second limit block, the outer circumference of the upper camming roller and the lower camming roller are fixedly provided with a plurality of evenly arranged camming protrusions, the lower camming rollers are two and are arranged at intervals, the upper camming roller is arranged between the two lower camming rollers, the upper camming roller is rotatably mounted on the lifting seat, the second linear drive member is at least one and is used to drive the lifting seat to move up and down, the second linear drive member is fixedly mounted on the transverse plate, the transverse plate is fixedly arranged on the upper end of the cleaning water tank, the moving directions of the upper camming rollers of the two camming devices are opposite, the two ends of the lower camming roller are rotatably mounted on the two sliding blocks, the sliding block is provided with a sliding hole adapted for the sliding rod, and the sliding rods are two and are arranged in parallel and at intervals. The two ends of the sliding block are fixedly mounted on the two fixing blocks, and the fixing blocks are fixedly mounted on the cleaning inner cavity of the cleaning water tank, and the return spring is arranged between the sliding block and the first limit block and is used to always keep the sliding block applying an elastic force toward one side of the upper rubbing roller. The first limit block is fixedly mounted on the sliding block, and the second limit block is fixedly mounted on the sliding block and is located on the side of the sliding block close to the upper rubbing roller. When the upper rubbing roller moves downward, the two lower rubbing rollers can be pushed away from each other, and when the upper rubbing roller moves upward, the two return springs can drive the two lower rubbing rollers to move closer to each other and reset.
6. The water-saving cleaning equipment for polyester fabric production according to claim 1, characterized in that: The urging means is configured to move the urging means towards the drawer, wherein the urging means is configured to move the urging means towards the drawer, wherein the urging means is configured to move the urging means towards the drawer, wherein the urging means is configured to move the urging means towards the drawer, wherein the urging means is configured to move the urging means towards the drawer, 7. The water-saving cleaning equipment for polyester fabric production according to claim 1, characterized in that: The two rotating dehairing devices are arranged at intervals and are respectively used to dehair the two side surfaces of the polyester fabric, and the polyester fabric is wound around the two rotating dehairing devices in an S shape. The rotating dehairing device includes a rotating drum, a rotating shaft, a bearing seat, a dehairing brush roller, a negative pressure cover, a first fixed plate, a second fixed plate, a second rotating drive mechanism, a fixed gear and a moving gear. The rotating shaft is arranged horizontally and is rotatably mounted on the bearing seat through a first bearing. The bearing seat is fixedly provided on one side surface of the first fixed plate, the second rotating drive mechanism is provided on the other side surface of the first fixed plate and is transmission-connected to one end of the rotating shaft, the other end of the rotating shaft is fixedly connected to the center of one end of the rotating drum, an adsorption inner cavity open to the other end is provided in the rotating drum, and a plurality of The gear train is connected with the gear of the driven gear and the gear is connected with the gear of the driven gear to form a circle, and the gear is connected with the gear of the driven gear to form a circle.
8. The water-saving cleaning equipment for polyester fabric production according to claim 7, characterized in that: The rotation speed of the rotating drum is inconsistent with the conveying speed of the polyester fabric.
9. The water-saving cleaning equipment for polyester fabric production according to claim 7, characterized in that: Annular baffles are fixedly provided at both end edges of the outer circumference of the rotating cylinder. The other end of the rotating cylinder is rotatably connected to the second fixed plate through a third bearing. A plurality of negative pressure holes are provided on the outer circumference of the rotating cylinder between two adjacent strip-shaped deburring holes, evenly arranged along its axial direction.
10. A water-saving cleaning method for polyester fabric production, characterized by: The cleaning process of polyester fabric production using the water-saving cleaning device according to any one of claims 1 to 9 comprises the following steps: Step 1: The polyester fabric is wound in an S shape on two rotating dehairing devices and transported forward. By making multiple dehairing brush rollers follow the rotating drum to revolve around the rotating axis, the dehairing brush rollers are also rotated, and the rotation speed of the rotating drum is inconsistent with the conveying speed of the polyester fabric, so as to roll brush the surfaces of both sides of the polyester fabric, and utilize the negative pressure adsorption of the negative pressure cover to promptly absorb the brushed fluff and short fibers, thereby preliminarily removing the fluff and short fibers; Step 2: The polyester fabric passes around the first guide roller and is conveyed forward so that the polyester fabric enters the first water storage chamber of the water storage tank and is initially soaked in water; Step 3: The polyester fabric passes through the water flow cavity between the top brushing assembly and the bottom brushing assembly and is transported forward. The top cleaning brush rollers and the bottom cleaning brush rollers are rotated to brush both sides of the polyester fabric. The downward flow of the water removes the brushed fluff and short fibers in time to clean the polyester fabric once. Step 4: The polyester fabric passes through a plurality of squeezing rollers and a pressing plate and is conveyed forward. The plurality of squeezing rollers are rotated to initially squeeze out the water absorbed by the polyester fabric after passing through the primary cleaning device. Step 5: The polyester fabric passes through one of the second guide devices, two rubbing devices and another second guide device in turn and is transported forward and immersed in the water in the cleaning water tank. The upper rubbing roller is driven up and down by the second linear drive member, and the upper rubbing rollers of the two rubbing devices move in opposite directions to rub the surfaces of both sides of the polyester fabric and achieve a secondary cleaning effect.