Oxford modification cleaning system

Abstract

This utility model belongs to the field of Oxford cloth production technology, and particularly relates to an Oxford cloth modification and cleaning system, including multiple washing tanks. Above the washing tanks are steam rollers for conveying and guiding and for injecting steam for heating, and a spray mechanism for spray rinsing. Inside the washing tanks are crease rollers for conveying and guiding, which create dotted protrusions on the Oxford cloth. During cleaning, the steam rollers preheat and soften impurities on the surface and between the fibers of the Oxford cloth, while the spray mechanism performs targeted rinsing. The crease rollers induce localized vortices in the washing water through the dotted protrusions, enhancing the removal of deep impurities. The spray water can be used as replenishment liquid for the washing tanks, and an automatic drainage system is implemented at the bottom of the tanks using a water level sensor. Through the synergistic effect of preheating and softening, spray rinsing, and vortex removal, the cleaning effect and efficiency are significantly improved, avoiding any impact on subsequent Oxford cloth improvement treatments. Furthermore, the system is compact and easy to operate.

Description

Technical Field

[0001] This utility model belongs to the field of Oxford cloth production technology, and in particular relates to a modified cleaning system for Oxford cloth. Background Technology

[0002] Oxford cloth is a woven fabric with a plain or twill weave. To improve the performance of Oxford cloth, the surface or internal structure of the cloth is modified to compensate for the original performance defects and give it new functions. Before modification, the Oxford cloth usually needs to be cleaned to remove impurities from the surface and between the fibers, so as to provide a clean and uniform substrate surface for the modification process.

[0003] Traditional cleaning methods for Oxford cloth before modification often involve single or combined methods such as steam treatment, spray rinsing, ultrasonic cleaning, or rinsing. However, these methods are not very effective at removing impurities during rinsing. Relying solely on natural water rinsing is insufficient to completely remove stubborn pulp, oil, and other impurities from the fiber gaps, which can easily affect subsequent modification treatments. Utility Model Content

[0004] The purpose of this invention is to address the aforementioned technical problems by providing an Oxford cloth modification cleaning system that improves the removal of impurities during rinsing and avoids affecting the effectiveness of subsequent modification treatments.

[0005] In view of this, the present invention provides a modified cleaning system for Oxford cloth, comprising: Multiple washing pools are arranged sequentially along the Oxford cloth conveying direction; A steam roller, installed above the washing tank, is used to guide the Oxford cloth and injects steam to heat the Oxford cloth; A spray system is installed above the washing tank and is used to spray and rinse the Oxford cloth. A crease roller is installed inside the washing tank and is used to guide the Oxford cloth and to create dotted bumps on the Oxford cloth to help remove impurities.

[0006] In the above technical solution, the steam roller further includes: The first shaft is hollow inside and forms a steam-containing cavity, and a steam generator is connected to the axial end through a pipe to supply steam to the steam-containing cavity; The first roller is sleeved on the first shaft and rotates with the first shaft, and has multiple air outlets on its circumference; A duct is installed inside the air outlet, with one end penetrating through the side wall of the first shaft and communicating with the steam receiving chamber, for guiding steam to the surface of the first roller. The self-opening and closing component is installed inside the air guide pipe. It is used to open the air guide pipe when the air guide pipe rotates with the first roller body to the upper half of the steam roller, and to close the air guide pipe when it rotates to the lower half of the steam roller.

[0007] In the above technical solution, further: The self-opening and closing component includes a first cylinder near the first shaft, a second cylinder near the surface of the first roller, and a gravity ball installed between the two. The first cylinder has a first through hole in the axial direction, and the second cylinder has a second through hole in the axial direction. The first cylinder has a metal mesh at one end near the second cylinder. When the gravity ball approaches the first cylinder, it will be blocked by the metal mesh, keeping the air duct open. When the gravity ball approaches the second cylinder, it will block the second through hole due to gravity, thus closing the air duct.

[0008] In the above technical solution, further: The first cylinder has a first chamfer at one end near the second cylinder; The second cylinder has a second chamfer at the end closest to the first cylinder.

[0009] In the above technical solution, the crease roller further includes: The second shaft is rotatably connected to the inner wall of the washing pool at both ends, and has multiple slots evenly spaced around its circumference. The second roller body is sleeved on the second shaft body and has multiple third through holes corresponding to the slots on its circumference. The inner wall of the roller body forms an annular cavity with the surface of the second shaft body. A sliding pin is slidably connected in the third through hole, and an elastic connector is provided between it and the inner wall of the annular chamber; A stop plate, installed in a slot, is used to push the sliding pin to extend out of the second roller body; The cover plate is installed at both ends of the second roller body and is used for connecting and fixing the second shaft body and the two ends of the second roller body.

[0010] In the above technical solution, further: At least one stop plate is provided, and at least one sliding pin is pushed out of the surface of the second roller.

[0011] In the above technical solution, further: A partition is provided between two adjacent washing pools, and a steam roller is installed above the partition; Each washing tank is equipped with two wrinkling rollers; The portion of the Oxford cloth located between the steam roller and the corresponding pleating roller is arranged vertically.

[0012] In the above technical solution, further: The spraying mechanism includes a spray pipe and multiple spray heads installed on the spray pipe, with the spray heads corresponding to the vertically arranged Oxford cloth.

[0013] The beneficial effects of this utility model are as follows: 1. By setting up pleating rollers in the washing tank, dot-like protrusions can be generated on the surface of the Oxford cloth when it enters the washing tank for rinsing. This induces local eddies in the washing water on the surface of the Oxford cloth, allowing the washing water to penetrate deeper into the fiber gaps. Compared with traditional rinsing, this effectively improves the removal of impurities from the surface of the Oxford cloth, enhances the cleaning effect, and avoids the impact on subsequent modification treatments.

[0014] 2. By using a self-closing mechanism for the steam roller, steam is sprayed onto the upper half of the Oxford cloth that is in contact with the cloth, while no steam is sprayed onto the lower half that is not in contact with the cloth. Furthermore, as the steam roller rotates, the opening and closing of the steam spray can be automatically and quickly adjusted, effectively reducing steam consumption and achieving energy-saving effects.

[0015] 3. By using multiple sliding pins on the surface of the pleating roller to form multiple dot-shaped protrusions, and by using a stop plate to selectively adjust which dot-shaped protrusions protrude from the pleating roller, targeted selection can be made for Oxford cloth of different thicknesses and types, as well as for the differences in impurity residue caused by different surface structures, thereby improving applicability and flexibility. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a utility model Figure 1 Enlarged view of point A in the middle; Figure 3 This is a utility model Figure 2 Enlarged view of point B in the middle; Figure 4 This is a utility model Figure 1 Enlarged view of point C in the middle; Figure 5 This is a schematic diagram of the structure of the steam roller of this utility model; Figure 6 This is a schematic diagram of the structure of the crease roller of this utility model; the markings in the figure are as follows: 1, washing pool; 10, partition plate; 2, steam roller; 20, first shaft; 21, steam receiving chamber; 22, first roller body; 23, air outlet; 24, air guide pipe; 25, self-opening and closing component; 250, first cylinder; 251, second cylinder; 252, gravity ball; 253, first through hole; 254, second through hole; 255, metal mesh; 256, first chamfer; 257, second chamfer; 3, spraying mechanism; 30, spray pipe; 31, spray head; 4, crease roller; 40, second shaft; 41, slot; 42, second roller body; 43, third through hole; 44, annular chamber; 45, sliding pin; 46, elastic connecting component; 47, abutment plate; 48, cover plate. Detailed Implementation

[0017] The technical solutions of the embodiments of this application will be clearly described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application are within the scope of protection of this application.

[0018] Example 1: This embodiment provides a modified cleaning system for Oxford cloth, including: Washing pool 1, multiple of which are arranged sequentially along the Oxford cloth conveying direction; Steam roller 2 is installed above washing tank 1 and is used to guide the Oxford cloth and to inject steam to heat the Oxford cloth; The spraying mechanism 3 is installed above the washing tank 1 and is used to spray and rinse the Oxford cloth. The pleating roller 4 is installed in the washing tank 1 and is used to guide the Oxford cloth and to make the Oxford cloth dotted to promote the removal of impurities. The cleaning system also includes structures such as unwinding rollers, drying devices, and winding rollers, all of which are existing mature technologies. These technologies were learned by those skilled in the art from traditional Oxford cloth modified cleaning systems and will not be described in detail here. Meanwhile, both the spraying mechanism 3 and the washing pool 1 contain warm water, preferably 45-60℃.

[0019] As can be seen from this embodiment, by setting up a pleating roller 4 in the washing tank 1, when the Oxford cloth enters the washing tank 1 for rinsing, it can generate dot-shaped protrusions on the surface of the Oxford cloth, induce local eddies in the washing water on the surface of the Oxford cloth, and make the washing water penetrate deeper into the fiber gaps. Compared with traditional rinsing, it effectively improves the removal effect of impurities on the surface of the Oxford cloth, ensures the cleaning quality, and avoids the impact on subsequent modification treatment. Furthermore, the Oxford cloth is preheated by the steam roller 2 to soften impurities, then cleaned by the spray mechanism 3, and finally rinsed in the washing tank 1 by the pleating roller 4. The process of multiple steam preheating, spray rinsing and rinsing cycles ensures continuous and effective cleaning of the Oxford cloth, improving the cleaning effect and efficiency. Meanwhile, multiple washing pools 1 are provided, and washing liquid is used in the first few washing pools 1 that come into contact with the Oxford cloth, while clean water is used in the next few washing pools 1 that come into contact with the Oxford cloth, thereby avoiding the impact of residual washing liquid on the surface of the Oxford cloth on subsequent modification. Correspondingly, the spray mechanism 3 above the washing tank 1 that uses washing liquid uses washing liquid, while the spray mechanism 3 above the washing tank 1 that uses clean water uses clean water. At the same time, the falling spray water can replenish the washing liquid or clean water in the washing tank 1, serving as a liquid replenishment device for the washing tank 1, avoiding the need for an additional liquid replenishment device. Furthermore, a water level sensor is installed in the washing tank 1, so that when the water level reaches a preset height, the washing liquid or clean water can be discharged from the bottom of the washing tank 1, carrying some impurities with it, thus preventing excessive accumulation of impurities at the bottom of the washing tank 1 and ensuring continuous washing.

[0020] Example 2: This embodiment provides an Oxford cloth modified cleaning system, which, in addition to the technical solutions of the above embodiments, also has the following technical features, wherein the steam roller 2 includes: The first shaft 20 is hollow inside and forms a steam receiving cavity 21. A steam generator is connected to the axial end of the shaft through a pipe to supply steam to the steam receiving cavity 21. The first roller body 22 is sleeved on the first shaft body 20 and rotates with the first shaft body 20, and has multiple air outlets 23 circumferentially opened; The air guide pipe 24 is installed inside the air outlet 23, and one end of it passes through the side wall of the first shaft 20 and communicates with the steam receiving chamber 21, for guiding steam to the surface of the first roller 22. The self-opening and closing component 25 is installed inside the air guide pipe 24 and is used to open the air guide pipe 24 when it rotates with the first roller body 22 to the upper half area of ​​the steam roller 2 and close the air guide pipe 24 when it rotates to the lower half area of ​​the steam roller 2. The specific structure of the steam generator and its end connected to the first shaft 20 via a pipe, as well as the rotating seal adapted to the first shaft 20, are all existing mature technologies and are the traditional steam supply method for the steam roller 2, which are well known to those skilled in the art and will not be described in detail here.

[0021] As can be seen from this embodiment, by using a self-closing component 25 for the steam roller 2, steam is sprayed onto the upper half of the Oxford cloth that is in contact with the cloth, while no steam is sprayed onto the lower half that is not in contact with the cloth. Furthermore, as the steam roller 2 rotates, the opening and closing of the steam spray can be automatically and quickly adjusted, effectively reducing steam consumption and achieving energy-saving effects.

[0022] Example 3: This embodiment provides a modified cleaning system for Oxford cloth, which, in addition to the technical solutions of the above embodiments, also has the following technical features: The self-opening and closing component 25 includes a first cylinder 250 near the first shaft 20, a second cylinder 251 near the surface of the first roller 22, and a gravity ball 252 installed between the two. The first cylinder 250 is provided with a first through hole 253 in the axial direction, and the second cylinder 251 is provided with a second through hole 254 in the axial direction. The first cylinder 250 is provided with a metal mesh 255 at one end near the second cylinder 251. When the gravity ball 252 approaches the first cylinder 250, it will be blocked by the metal mesh 255 and keep the air duct 24 open. When the gravity ball 252 approaches the second cylinder 251, it will block the second through hole 254 due to gravity and close the air duct 24. Meanwhile, both the first cylinder 250 and the second cylinder 251 can be connected to the air guide pipe 24 by threads. In addition to using metal mesh 255, structures such as grid mesh can also be used to block the gravity ball 252 without hindering the passage of steam. These will not be elaborated here.

[0023] As can be seen from this embodiment, by setting a metal mesh 255 on the first cylinder 250 closer to the first shaft 20, the gravity ball 252 is prevented from blocking the first through hole 253 when the first cylinder 250 is below the second cylinder 251. Consequently, after the steam roller 2 rotates, when the position of the second cylinder 251 is higher than the first cylinder 250, the gravity ball 252 rolls towards the first cylinder 250 and is blocked by the metal mesh 255, keeping the first through hole 253 open. Thus, steam passes through the first through hole 253 and the second shaft 251. The two through holes 254 reach the surface of the second roller 42 and spray steam onto the Oxford cloth. When the position of the first cylinder 250 is higher than that of the second cylinder 251, the gravity ball 252 will roll toward the second cylinder 251. At this time, without the metal mesh 255 blocking it, the gravity ball 252 will close the second through hole 254, thereby cutting off the steam from the surface of the second roller 42. When rotating, the upper half of the self-controlled steam roller 2 opens and the lower half closes, ensuring the utilization rate of steam, avoiding steam waste, and having a good energy-saving effect. Meanwhile, the steam roller 2 is located above the washing tank 1, while the pleating roller 4 is located inside the washing tank 1. Therefore, the Oxford cloth is in contact with the upper half of the steam roller 2, but not with the lower half. Thus, opening the steam jet in the upper half and closing the steam jet in the lower half can better adapt to the opening of the upper half of the steam roller 2 and the closing of the lower half, ensuring the preheating effect of the Oxford cloth when the upper half is open. Furthermore, the threaded connection between the first cylinder 250 and the second cylinder 251 and the air guide pipe 24 can be achieved by opening an internal hexagonal hole along the axial direction inside the first cylinder 250 and the second cylinder 251.

[0024] Example 4: This embodiment provides a modified cleaning system for Oxford cloth, which, in addition to the technical solutions of the above embodiments, also has the following technical features: The first cylinder 250 has a first chamfer 256 at one end near the second cylinder 251; The second cylinder 251 has a second chamfer 257 at one end near the first cylinder 250.

[0025] As can be seen from this embodiment, the opening of the first chamfer 256 facilitates the setting of the metal mesh 255, ensuring a large opening of the first through hole 253 at the end of the first cylinder 250 near the second cylinder 251, ensuring the large flow of steam and the preheating effect on the Oxford cloth. The opening of the second chamfer 257 facilitates the guidance of the gravity ball 252 to close the second through hole 254 when the position of the first cylinder 250 is higher than the second cylinder 251, so that when the position of the first cylinder 250 is slightly higher than the second cylinder 251, the gravity ball 252 can also be guided to close the second through hole 254, thus improving the response sensitivity of the self-opening and closing component 25. At the same time, it should be explained that there is no need to consider the sealing between the gravity ball 252 and the second through hole 254. Even if steam leaks a little from here, it will not affect the overall effect. As long as the gravity ball 252 can block the opening of the second through hole 254 over a large range, the utilization rate of steam can be guaranteed, steam waste can be avoided, and there is a good energy-saving effect. It significantly reduces the manufacturing difficulty and cost, and the gravity ball 252 can be made of metal.

[0026] Example 5: This embodiment provides an Oxford cloth modified cleaning system, which, in addition to the technical solutions of the above embodiments, also has the following technical features, wherein the crease roller 4 includes: The second shaft 40 is rotatably connected to the inner wall of the washing pool 1 at both ends of the axial direction, and has multiple slots 41 evenly spaced around its circumference; The second roller body 42 is sleeved on the second shaft body 40 and has multiple third through holes 43 corresponding to the slots 41 on its circumference. An annular cavity 44 is formed between the inner wall and the surface of the second shaft body 40. The sliding pin 45 is slidably connected in the third through hole 43, and an elastic connector 46 is provided between it and the inner wall of the annular chamber 44. A stop plate 47 is installed in a slot 41 and is used to push the sliding pin 45 to extend out of the second roller body 42; The cover plate 48 is installed at both ends of the second roller body 42 and is used to connect and fix the second shaft body 40 and the two ends of the second roller body 42. Among them, the elastic connector 46 is made of rubber, and one end is connected to the middle section of the sliding pin 45 near the axis of the second roller 42, and the other end is connected to the inner wall of the annular chamber 44. Furthermore, in order to facilitate the extension of the sliding pin 45, the elastic connector 46 is stretched and located in the third through hole 43, and a gap is formed between the surface of the sliding pin 45 and the inner wall of the third through hole 43, as shown in the attached figure of the specification. When the elastic connector 46 is not stretched, the outer end of the sliding pin 45 does not extend beyond the surface of the second roller body 42, and both ends of the sliding pin 45 are hemispherical. Meanwhile, the size of the sliding pin 45 protruding from the surface of the second roller 42 is specifically selected based on the differences in impurity residue caused by different thicknesses and types of Oxford cloth and different surface structures, and is achieved by changing the height of different abutment plates 47. As for the protrusion size of dot-shaped protrusions, this application does not limit it, but is an adaptive selection that can be made by those skilled in the art based on different Oxford cloths, and will not be elaborated here. The abutment plate 47 and the second shaft 40 are fastened together with bolts.

[0027] As can be seen from this embodiment, by using multiple sliding pins 45 on the surface of the pleating roller 4 to form multiple dot-shaped protrusions, and by using the abutment plate 47 to selectively adjust which dot-shaped protrusions protrude from the pleating roller 4, targeted selection can be made for Oxford cloth of different thicknesses and types and different surface structure differences, resulting in differences in impurity residue, thereby improving applicability and flexibility. The elastic connector 46 facilitates the retraction of the unselected protruding sliding pin 45 into the third through hole 43, while the cover plate 48 facilitates the structural stability between the second shaft 40 and the second roller 42, ensuring the formation and structural stability of the annular chamber 44.

[0028] Example 6: This embodiment provides a modified cleaning system for Oxford cloth, which, in addition to the technical solutions of the above embodiments, also has the following technical features: At least one abutment 47 is provided, and at least one sliding pin 45 is pushed out of the surface of the second roller 42.

[0029] As can be seen from this embodiment, by flexibly adjusting the number and distribution of the protruding sliding pins 45, applicability can be ensured. The number and position of the protruding sliding pins 45 can be reasonably selected for different Oxford cloths, ensuring a good effect on removing impurities from the Oxford cloth. Meanwhile, in order to ensure ease of manufacturing and installation when adapting to different Oxford cloths, a single abutment 47 can be set to push multiple sliding pins 45 out of the surface of the second roller 42 simultaneously. This is a conventional setting that can be made by those skilled in the art and will not be described in detail here.

[0030] Example 7: This embodiment provides a modified cleaning system for Oxford cloth, which, in addition to the technical solutions of the above embodiments, also has the following technical features: A partition 10 is provided between two adjacent washing pools 1, and a steam roller 2 is installed above the partition 10; Each washing pool 1 is equipped with two wrinkling rollers 4; The portion of the Oxford cloth located between the steam roller 2 and the corresponding pleating roller 4 is arranged vertically.

[0031] As can be seen from this embodiment, by setting the steam roller 2 above the partition 10, it is convenient to transport and guide the Oxford cloth between two adjacent washing pools 1, ensuring the compactness of the installation and reducing the floor space occupied. Each washing tank 1 is equipped with two pleating rollers 4, which facilitates the vertical introduction and exit of the Oxford cloth, ensuring that after spray rinsing, impurities on both sides of the Oxford cloth can be more easily removed with the water flow.

[0032] Example 8: This embodiment provides a modified cleaning system for Oxford cloth, which, in addition to the technical solutions of the above embodiments, also has the following technical features: The spraying mechanism 3 includes a spray pipe 30 and a plurality of spray heads 31 installed on the spray pipe 30, and the spray heads 31 are arranged corresponding to the vertically arranged Oxford cloth. The spraying mechanism 3 also includes equipment such as a spraying water supply device, which is known to those skilled in the art from traditional spraying equipment and will not be described in detail here. Meanwhile, the water outlet method and water pressure of the nozzles are adjusted according to different Oxford cloths. For example, a high-pressure fan-shaped water outlet is used for heavy-duty Oxford cloth, and a low-pressure mist water outlet is used for ultra-thin Oxford cloth. This is standard practice for technicians in the relevant technical field and will not be elaborated here.

[0033] As can be seen from this embodiment, by setting the nozzles of the spraying mechanism 3 to correspond with the vertically arranged Oxford cloth, it is easier for the spraying mechanism 3 to spray and wash the Oxford cloth, and it is easier to wash away impurities from the surface of the Oxford cloth, thus ensuring the effect of removing impurities from the surface of the Oxford cloth.

[0034] The embodiments of this application have been described above with reference to the accompanying drawings. Unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other. This application is not limited to the specific embodiments described above. The specific embodiments described above are merely illustrative and not restrictive. Those skilled in the art can make many other forms under the guidance of this application without departing from the spirit and scope of the claims, and all of these forms are within the protection scope of this application.

Claims

1. A modified cleaning system for Oxford cloth, characterized in that, include: Washing pools (1) are provided in sequence along the Oxford cloth conveying direction; A steam roller (2) is installed above the washing tank (1) and is used to guide the Oxford cloth and to inject steam to heat the Oxford cloth; A spraying mechanism (3) is installed above the washing tank (1) and is used to spray and rinse the Oxford cloth; A crease roller (4) is installed inside the washing tank (1) and is used for conveying and guiding the Oxford cloth and for creating dotted bumps on the Oxford cloth to facilitate the removal of impurities.

2. The Oxford cloth modified cleaning system according to claim 1, characterized in that, The steam roller (2) includes: The first shaft (20) is hollow inside and forms a steam receiving cavity (21), and a steam generator is connected to the axial end through a pipe for supplying steam to the steam receiving cavity (21); The first roller (22) is sleeved on the first shaft (20) and rotates with the first shaft (20), and has multiple air outlets (23) on its circumference. The air guide pipe (24) is installed inside the air outlet (23), and one end passes through the side wall of the first shaft (20) and communicates with the steam receiving chamber (21) to guide steam to the surface of the first roller (22); The self-opening and closing component (25) is installed inside the air guide pipe (24) and is used to open the air guide pipe (24) when the air guide pipe (24) rotates with the first roller body (22) to the upper half of the steam roller (2) and close the air guide pipe (24) when it rotates to the lower half of the steam roller (2).

3. The Oxford cloth modified cleaning system according to claim 2, characterized in that: The self-opening and closing component (25) includes a first cylinder (250) near the first shaft (20), a second cylinder (251) near the surface of the first roller (22), and a gravity ball (252) installed between the two. The first cylinder (250) has a first through hole (253) axially, and the second cylinder (251) has a second through hole (254) axially. The first cylinder (250) is provided with a metal mesh (255) at one end near the second cylinder (251). When the gravity ball (252) approaches the first cylinder (250), it will be blocked by the metal mesh (255) and the air duct (24) will remain open. When the gravity ball (252) approaches the second cylinder (251), it will block the second through hole (254) due to gravity and close the air duct (24).

4. The Oxford cloth modified cleaning system according to claim 3, characterized in that: The first cylinder (250) has a first chamfer (256) at one end near the second cylinder (251); The second cylinder (251) has a second chamfer (257) at one end near the first cylinder (250).

5. The Oxford cloth modified cleaning system according to claim 1, characterized in that, The crease roller (4) includes: The second shaft (40) is rotatably connected to the inner wall of the washing pool (1) at both ends of the axial direction, and has multiple slots (41) at equal intervals around its circumference. The second roller (42) is sleeved on the second shaft (40) and has multiple third through holes (43) corresponding to the slot (41) on its circumference. An annular cavity (44) is formed between the inner wall and the surface of the second shaft (40). The sliding pin (45) is slidably connected in the third through hole (43) and an elastic connector (46) is provided between it and the inner wall of the annular cavity (44). A stop plate (47) is installed in a slot (41) and is used to push a sliding pin (45) to extend out of the second roller (42). The cover plate (48) is installed at both ends of the second roller body (42) and is used for connecting and fixing the second shaft body (40) and the two ends of the second roller body (42).

6. The Oxford cloth modified cleaning system according to claim 5, characterized in that: At least one abutment (47) is provided, and at least one sliding pin (45) is pushed out of the surface of the second roller (42).

7. The Oxford cloth modified cleaning system according to claim 1, characterized in that: A partition (10) is provided between two adjacent washing pools (1), and a steam roller (2) is installed above the partition (10); Each of the washing pools (1) is provided with two wrinkling rollers (4); The portion of the Oxford cloth located between the steam roller (2) and the corresponding pleating roller (4) is arranged vertically.

8. The Oxford cloth modified cleaning system according to claim 7, characterized in that: The spraying mechanism (3) includes a spray pipe (30) and a plurality of spray heads (31) installed on the spray pipe (30), and the spray heads (31) are arranged in correspondence with the vertically arranged Oxford cloth.

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