Wear-resistant breathable oxford fabric and processing equipment thereof

Abstract

The invention discloses a wear-resistant breathable oxford fabric and a processing device thereof, and relates to the technical field of textiles, the key points of the technical scheme are as follows: a base fabric layer comprises a plurality of breathable parts and a plurality of wear-resistant parts which are arranged in a staggered manner along the length direction of the base fabric layer, a plurality of breathable holes are formed in the breathable parts in an array manner, and raised lines are arranged on the same sides of the wear-resistant parts; a wear-resisting layer is arranged on the side, away from the wear-resisting part, of the protruding strip, a wear-resisting groove is formed in the side, away from the protruding strip, of the wear-resisting part through hot-pressing deformation, a plurality of wear-resisting pieces are arranged on the bottom face of the wear-resisting groove in an array mode, and the ends, away from the protruding strip, of the wear-resisting pieces extend out of the The air circulation effect and the moisture permeability of the two sides of the oxford fabric are improved through the multiple air holes, the first plied yarn made of the polyamide fibers makes contact and rubs with the skin firstly, and the abrasion-resistant strength of the oxford fabric is enhanced through the multiple abrasion-resistant parts and the abrasion-resistant layers made of the polyvinyl chloride materials; the wear-resistant breathable oxford fabric can be efficiently processed and produced through the equipment body, meanwhile, resources are recycled, and labor input and production cost are reduced.

Description

Technical Field

[0001] This invention relates to the field of textile technology, and more specifically, to abrasion-resistant and breathable Oxford cloth and processing equipment thereof. Background Technology

[0002] Oxford cloth, also known as Oxford woven fabric, is a versatile and widely used fabric. The main varieties on the market include tartan, stretch, nylon, and jacquard. It has excellent abrasion resistance and tear resistance and is widely used in the production of bags, clothing, home decorations, gloves, and other products.

[0003] Oxford cloth's excellent abrasion resistance and tear resistance are due to the tight molecular structure of its chemical fibers. However, the tight molecular structure of chemical fibers does not facilitate air circulation, making gloves made of Oxford cloth prone to causing stuffiness and sweating when worn. When driving, climbing, or gripping while wearing gloves, the sweat can cause slippage, posing a certain safety hazard.

[0004] Therefore, a new Oxford cloth needs to be designed that can improve breathability while ensuring abrasion resistance. Summary of the Invention

[0005] In view of the shortcomings of the existing technology, the purpose of this invention is to provide wear-resistant and breathable Oxford cloth and its processing equipment.

[0006] The above-mentioned technical objective of the present invention is achieved through the following technical solution: abrasion-resistant and breathable Oxford cloth, comprising a base fabric layer, the base fabric layer comprising a plurality of breathable portions and a plurality of abrasion-resistant portions arranged alternately along its length direction, the array of breathable portions having a plurality of breathable holes, a raised strip being provided on the same side of the plurality of abrasion-resistant portions, an abrasion-resistant layer being provided on the side of the raised strip away from the abrasion-resistant portion, an abrasion-resistant groove being formed by hot pressing on the side of the abrasion-resistant portion away from the raised strip, a plurality of abrasion-resistant elements being arranged in an array on the bottom surface of the abrasion-resistant groove, and the end of the abrasion-resistant element away from the raised strip extending out from the abrasion-resistant groove.

[0007] Preferably, the length and width of the wear-resistant layer are the same as the length and width of the convex strip, the wear-resistant part is hemispherical, and both the wear-resistant part and the wear-resistant layer are made of polyvinyl chloride.

[0008] The equipment for processing abrasion-resistant and breathable Oxford cloth includes a main body. The base fabric layer is conveyed onto the main body by an output roller, two guide rollers and a take-up roller. The main body includes a hot pressing device, a coating device and a setting chamber arranged sequentially along the conveying direction of the base fabric layer.

[0009] Preferably, the top of the equipment body is fixedly connected with support plate one and support plate two, and the hot pressing device includes an electric push rod, two telescopic rods, a hot pressing plate and a hot pressing platform, with the hot pressing plate and hot pressing platform being arranged correspondingly above and below.

[0010] Preferably, the base of the electric push rod is fixedly connected to the bottom surface of the support plate, the telescopic end of the electric push rod is fixedly connected to the middle of the hot press plate, two telescopic rods are symmetrically arranged on both sides of the electric push rod and their ends are fixedly connected to the hot press plate and the support plate respectively, and the length and width of the hot press plate are the same as the length and width of the wear-resistant groove.

[0011] Preferably, the coating device includes a dripping assembly and a coating assembly arranged correspondingly at the top and bottom. The dripping assembly includes a feeding cylinder, a hot melt chamber, an infusion chamber, and a plurality of dripping heads. An infusion tube is connected between the dripping heads and the infusion chamber. A linear module is fixedly connected to the bottom of the second support plate. The plurality of dripping heads move back and forth along the width direction of the device body through the linear module.

[0012] Preferably, the top of the shaping chamber is connected to an exhaust pipe 1, the end of the exhaust pipe 1 away from the shaping chamber is connected to the side wall of the feeding cylinder, the side wall of the feeding cylinder is connected to an exhaust pipe 2, the ends of the exhaust pipe 1 and the exhaust pipe 2 near the feeding cylinder are both inclined downwards, and the top surface of the feeding cylinder is connected to a feeding pipe.

[0013] Preferably, the coating assembly includes a coating chamber and a rotating roller, the rotating roller being rotatably connected to the coating chamber, and the axis of rotation of the rotating roller being lower than the liquid level in the coating chamber.

[0014] Preferably, a coating roller is fixedly connected to the rotating roller, and a plurality of grooves are arranged in a circumferential array on the outer peripheral wall of the coating roller. The portion of the coating roller located between adjacent grooves forms a coating strip. The width of the groove opening is the same as the distance between adjacent protrusions, and the width of the coating strip is the same as the width of the protrusion.

[0015] In summary, the present invention has the following beneficial effects: Because the diameter of the first strand is larger than that of the second strand, the surface of the twisted, abrasion-resistant, and breathable yarn has a continuous uneven surface. Therefore, the woven base fabric layer forms a large number of pores, thereby improving breathability. Several breathable holes further enhance the breathability of the base fabric layer. The first strand, made of nylon fiber, has high strength and abrasion resistance. The larger diameter first strand will first come into contact with the skin and rub against it, making the resulting base fabric layer less prone to wear. Several abrasion-resistant parts and layers reduce the contact area on both sides of the base fabric layer. The abrasion-resistant parts and layers, made of polyvinyl chloride, have strong abrasion resistance, further enhancing the abrasion resistance of the Oxford cloth. Thus, while ensuring the abrasion resistance of the Oxford cloth, the breathability is improved. The equipment itself can efficiently process and produce this abrasion-resistant and breathable Oxford cloth, while simultaneously recycling and reusing resources, reducing labor input and production costs. Attached Figure Description

[0016] Figure 1This is a schematic diagram of the structure of the present invention; Figure 2 This is a cross-sectional view of the present invention; Figure 3 for Figure 2 Enlarged view of point A in the middle; Figure 4 This is a schematic diagram of the structure of the wear-resistant and breathable yarn in this invention; Figure 5 This is a schematic diagram of the structure of the device body in this invention; Figure 6 This is a cross-sectional view of the device body in this invention; Figure 7 This is a schematic diagram of the hot pressing device in this invention; Figure 8 This is a schematic diagram of the structure of the drip molding component in this invention; Figure 9 Figure 8 Enlarged view of point B in the middle; Figure 10 This is a schematic diagram of the coating component in this invention.

[0017] In the diagram: 1. Base fabric layer; 101. Breathable section; 102. Abrasion-resistant section; 2. Breathable holes; 3. Raised strips; 4. Abrasion-resistant layer; 5. Abrasion-resistant grooves; 6. Abrasion-resistant parts; 7. Abrasion-resistant and breathable yarn; 701. First strand; 702. Second strand; 8. Equipment body; 9. Output roller; 10. Guide roller; 11. Take-up roller; 12. Hot pressing device; 1201. Electric push rod; 1202. Telescopic rod; 1203. Hot pressing plate; 1204. Hot pressing platform; 13. Coating device; 14. Shaping 15. Dispensing chamber; 1501. Feeding cylinder; 1502. Hot melt chamber; 1503. Infusion chamber; 1504. Dispensing head; 16. Coating assembly; 1601. Coating chamber; 1602. Rotating roller; 17. Support plate one; 18. Support plate two; 19. Infusion pipe; 20. Linear module; 21. Exhaust pipe one; 22. Exhaust pipe two; 23. Feeding pipe; 24. Coating roller; 25. Groove; 26. Coating strip; 27. Through groove; 28. Control panel; 29. ​​Stepper motor. Detailed Implementation

[0018] The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0019] Example: Abrasion-resistant and breathable Oxford cloth, such as Figures 1-5As shown, the fabric includes a base fabric layer 1. The base fabric layer 1 includes several breathable sections 101 and several abrasion-resistant sections 102 arranged alternately along its length. The breathable sections 101 are arrayed with several breathable holes 2. The air circulation and moisture permeability of the Oxford cloth are improved through the several breathable holes 2, thereby enhancing the breathability and moisture dissipation speed of the Oxford cloth, making the finished garment breathable and dry when worn. The warp and weft yarns of the base fabric layer 1 are both made of abrasion-resistant and breathable yarns 7. The base fabric layer 1 is made by feeding the abrasion-resistant and breathable yarns 7 into a multi-arm loom and weaving them alternately with perforated and raised stripe structures. The multi-arm loom can change the fabric structure within a large range. By controlling the lifting and lowering movement and lifting sequence of the heald frame, the alternating weaving of raised stripe structures and perforated structures can be achieved. The breathable sections 101 and the several breathable holes 2 are all breathable. The perforated weave is integrally formed on the base fabric layer 1. A plurality of abrasion-resistant portions 102 are provided on the same side with raised strips 3. The abrasion-resistant portions 102 and their raised strips 3 are integrally formed on the base fabric layer 1 through the raised strip weave. The raised strips 3 reduce the contact area between the base fabric layer 1 and the skin or external objects, thereby reducing the wear of the breathable portion 101 and increasing airflow between the base fabric layer 1 and the skin or external objects. A wear-resistant layer 4 is provided on the side of the raised strips 3 away from the abrasion-resistant portion 102. The length and width of the wear-resistant layer 4 are the same as the length and width of the raised strips 3, respectively. This wear-resistant layer 4 is formed by coating the raised strips 3 with polyvinyl chloride (PVC) paint using the equipment body 8 and then drying it. The PVC coating has strong abrasion resistance, making the base fabric layer 1 located at the raised strips 3 less prone to wear.

[0020] like Figure 1 and Figure 4 As shown, the wear-resistant and breathable yarn 7 is made by twisting a first strand 701 and a second strand 702 using an "S" twist method on a twisting machine. The first strand 701 is made by twisting multiple 75D nylon filaments, and the second strand 702 is made by twisting multiple 40D polyester profiled filaments, making the diameter of the first strand 701 larger than the diameter of the second strand 702. The cross-section of the polyester profiled filament is Y-shaped. By profiled polyester fibers, the porosity and surface area inside the fibers are increased, thereby improving breathability and moisture absorption. This makes the base fabric layer woven from the wear-resistant and breathable yarn 7 more effective. 1. It has a certain degree of breathability and moisture absorption. Since the diameter of the first strand 701 is larger than that of the second strand 702, the surface of the twisted abrasion-resistant and breathable yarn 7 is continuously uneven. Therefore, the woven base fabric layer 1 will form a large number of pores. The large number of pores further enhances the breathability of the base fabric layer 1. The first strand 701, made of nylon fiber, has high strength and abrasion resistance. The larger diameter first strand 701 will come into contact with the skin or foreign objects first, thereby reducing the abrasion degree of the second strand 702, so that the base fabric layer 1 has good abrasion resistance.

[0021] like Figure 1 , Figure 3 and Figure 5 As shown, a rectangular wear-resistant groove 5 is formed on the side of the wear-resistant part 102 away from the convex strip 3. The length and width of the wear-resistant groove 5 are the same as the length and width of the convex strip 3, respectively. The wear-resistant groove 5 is formed by simultaneously hot-pressing both sides of the wear-resistant part 102 and the convex strip 3 through the equipment body 8. The hot-pressing method enhances the bonding force between the fibers, thereby achieving a shaping effect and maintaining the structural stability of the wear-resistant groove 5 and the convex strip 3. At the same time, it hardens the inner wall of the wear-resistant groove 5 and the surface of the convex strip 3, forming a denser surface layer, thereby enhancing the wear resistance of the wear-resistant part 102 and the convex strip 3. Several wear-resistant parts 6 are arranged in an array on the bottom surface of the wear-resistant groove 5. Part 6 is hemispherical, and the radius of the wear-resistant part 6 is greater than the depth of the wear-resistant groove 5, so that the end of the wear-resistant part 6 away from the convex strip 3 extends out of the wear-resistant groove 5. Through the contact and friction of several wear-resistant parts 6 with the skin or foreign objects, the wear degree of the base fabric layer 1 is reduced. Several wear-resistant parts 6 are all formed by dripping polyvinyl chloride material on the bottom surface of the wear-resistant groove 5 through the equipment body 8, so that the wear-resistant parts 6 are not easy to wear and break, and the Oxford cloth has a longer service life. At the same time, polyvinyl chloride has a good anti-slip effect, so that the several wear-resistant parts 6 and several wear-resistant layers 4 can improve the anti-slip effect on both sides of the base fabric layer 1, so that the gloves are not easy to slip when wearing and gripping.

[0022] like Figure 1 , Figure 5 and Figure 6 As shown, the processing equipment for wear-resistant and breathable Oxford cloth includes a base fabric layer 1 that is fed onto the equipment body 8 via an output roller 9, two guide rollers 10, and a take-up roller 11. The output roller 9 and the take-up roller 11 are horizontally arranged, and the two guide rollers 10 are horizontally arranged and located between the output roller 9 and the take-up roller 11. The woven base fabric layer 1 is rolled up and placed on the output roller 9. The base fabric layer 1 output from the output roller 9 is fed below the two guide rollers 10. The take-up roller 11 performs a rolling operation on the base fabric layer 1, so that the base fabric layer 1 forms a certain tension during the conveying process. The equipment body 8 includes a hot pressing device 12, a coating device 13, and a setting chamber 14 arranged sequentially along the conveying direction of the base fabric layer 1. The two guide rollers 10 are located on both sides of the hot pressing device 12 and the setting chamber 14, respectively. The two guide rollers 10 change the conveying direction of the base fabric layer 1, so that the base fabric layer 1 passes through the hot pressing device 12, the coating device 13, and the setting chamber 14 in sequence.

[0023] like Figure 1 , Figure 3 , Figure 5 and Figure 7As shown, a support plate 17 and a support plate 18 are fixedly connected to the top of the equipment body 8. The hot pressing device 12 includes an electric push rod 1201, two telescopic rods 1202, a hot pressing plate 1203, and a hot pressing platform 1204. Both the hot pressing plate 1203 and the hot pressing platform 1204 are made of aluminum alloy, which has excellent thermal conductivity and is lightweight and high-strength. The hot pressing plate 1203 is electrically heated. The length and width of the hot pressing plate 1203 are the same as the length and width of the wear-resistant groove 5 and smaller than the length and width of the hot pressing platform 1204. The hot pressing plate 1203 and the hot pressing platform 1204 are arranged vertically and vertically. The base of the electric push rod 1201 is fixedly connected to the bottom surface of the support plate 17. The telescopic end of the electric push rod 1201 is fixedly connected to the middle of the hot pressing plate 1203. The extension and retraction of the push rod 1201 drives the hot press plate 1203 to reciprocate along the height direction of the equipment body 8. Two telescopic rods 1202 are symmetrically arranged on both sides of the electric push rod 1201 and their ends are fixedly connected to the hot press plate 1203 and the support plate 17, respectively. The two telescopic rods 1202 can extend and retract with the reciprocating movement of the hot press plate 1203. The stability of the hot press plate 1203 during the movement is ensured by the two telescopic rods 1202. The side of the base fabric layer 1 with the protrusion 3 is conveyed downward. When the wear-resistant part 102 of the base fabric layer 1 is conveyed between the hot press plate 1203 and the hot press platform 1204, the electric push rod 1201 drives the hot press plate 1203 to move downward and cooperate with the hot press platform 1204 to perform hot pressing and shaping processing on the wear-resistant part 102 and the protrusion 3, thereby forming the wear-resistant groove 5.

[0024] like Figure 5 , Figure 6 , Figure 8 and Figure 9As shown, the coating device 13 includes a drip molding assembly 15 and a coating assembly 16 arranged vertically. The drip molding assembly 15 includes a feeding cylinder 1501, a hot melt chamber 1502, an infusion chamber 1503, and several drip molding heads 1504. The bottom of the feeding cylinder 1501 is connected to the top of the hot melt chamber 1502, and the hot melt chamber 1502 is connected to the infusion chamber 1503. The bottoms of the infusion chamber 1503 and the hot melt chamber 1502 are fixedly connected to... On the top surface of support plate 2, an infusion pipe 19 connects the dripping head 1504 and the infusion chamber 1503. Support plate 2 18 has through slots 27 for several infusion pipes 19 to pass through. The top surface of the feeding cylinder 1501 is connected to a feeding pipe 23. The feeding pipe 23 uses a blower to draw and transport polyvinyl chloride raw material into the feeding cylinder 1501. The polyvinyl chloride raw material in the feeding cylinder 1501 is melted into a polyvinyl chloride solution after entering the hot melt chamber 1502. The infusion chamber 1503 is equipped with several... A dry hydraulic valve and several hydraulic pumps are used to draw polyvinyl chloride solution from the hot melt chamber 1502 and deliver it to the dripping head 1504 through the infusion pipe 19. A first exhaust pipe 21 is connected to the top of the setting chamber 14. The end of the first exhaust pipe 21 away from the setting chamber 14 is connected to the side wall of the feeding cylinder 1501. A second exhaust pipe 22 is connected to the side wall of the feeding cylinder 1501. The ends of both the first exhaust pipe 21 and the second exhaust pipe 22 near the feeding cylinder 1501 are inclined downwards. The high-temperature exhaust gas generated in the shaping chamber 14 can enter the feeding cylinder 1501 through the exhaust pipe 21, thereby preheating the polyvinyl chloride raw material in the feeding cylinder 1501, thus increasing the melting speed of the polyvinyl chloride raw material in the hot melt chamber 1502, realizing the recycling and reuse of high-temperature exhaust gas, and reducing the energy consumption of the hot melt chamber 1502. The end of the exhaust pipe 22 away from the feeding cylinder 1501 is connected to an exhaust gas treatment device, which is used to treat the exhaust gas to meet the emission standards before it is discharged.

[0025] like Figures 3-10As shown, a linear module 20 is fixedly connected to the bottom of the support plate 2 18. The linear module 20 outputs power through a motor and transmits it to a ball screw through a coupling. The ball screw converts the rotational motion into linear motion to drive the slider to perform reciprocating linear motion on the linear guide rail, thereby achieving high-precision linear motion. Several dispensing heads 1504 are arrayed and fixed on the slider of the linear module 20. When the wear-resistant groove 5 moves below the several dispensing heads 1504, the linear module 20 drives the several dispensing heads 1504 to reciprocate along the width direction of the equipment body 8. The device moves to form an array of protrusions on the wear-resistant groove 5, and after drying and shaping in the shaping chamber 14, it forms a wear-resistant part 6. A control panel 28 is provided on the side wall of the device body 8. The control panel 28 is electrically connected to the dripping device and is used to control the feeding of the feeding cylinder 1501, the heating temperature of the hot melt chamber 1502, the moving speed and distance of the linear module 20, the opening and closing of several dripping heads 1504, and the dripping speed. The coating assembly 16 includes a coating chamber 1601 and a rotating roller 1602. The rotating roller 1602 and the output... Roller 9 and take-up roller 11 are both driven by stepper motor 29. Rotating roller 1602 is rotatably connected inside coating chamber 1601. A coating roller 24 is glued and fixed to rotating roller 1602. Several elongated grooves 25 are arranged in a circular array on the outer peripheral wall of coating roller 24. The grooves 25 form several arrayed elongated coating strips 26 on the surface of coating roller 24. Coating roller 24 is made of foam plastic. The rotation axis of rotating roller 1602 is lower than the liquid level in coating chamber 1601, so that the bottom of coating roller 24 can... The PVC coating in the coating chamber 1601 is absorbed. The width of the opening of the groove 25 is the same as the distance between the adjacent ridges 3. The width of the coating strip 26 is the same as the width of the ridges 3. When the ridges 3 on the wear-resistant part 102 are conveyed to the top of the coating roller 24, they abut against the coating strip 26, thereby coating the surface of the ridges 3 with PVC coating. After entering the drying chamber for setting, the wear-resistant layer 4 is formed. The equipment body 8 can efficiently process and produce the wear-resistant and breathable Oxford cloth, while recycling and reusing resources, reducing labor input and production costs.

[0026] The specific processing steps using the device body 8 include: Step 1: After the woven base fabric layer 1 is rolled up, it is placed on the output roller 9, so that the side of the base fabric layer 1 with the protrusions 3 is facing down, and it is conveyed through the hot pressing device 12, the coating device 13 and the shaping chamber 14 in sequence by two guide rollers 10. Step 2: When the wear-resistant part 102 of the base fabric layer 1 is conveyed between the hot press plate 1203 and the hot press platform 1204, the electric push rod 1201 drives the hot press plate 1203 to move downward and cooperate with the hot press platform 1204 to hot press and shape the wear-resistant part 102 and the protrusion 3 to form the wear-resistant groove 5. Step 3: When the wear-resistant tank 5 moves below the several dripping heads 1504, the linear module 20 drives the several dripping heads 1504 to move while dripping to form several arrayed polyvinyl chloride protrusions in the wear-resistant tank 5. When the protrusion 3 moves above the coating roller 24, it abuts against the coating strip 26, thereby coating the surface of the protrusion 3 with polyvinyl chloride coating. Step 4: The polyvinyl chloride (PVC) coating on the PVC bumps and ribs 3 in the wear-resistant groove 5 is dried and shaped after entering the drying chamber, thereby forming several wear-resistant parts 6 and wear-resistant layer 4. Step 5: The processed Oxford cloth is wound up using the take-up roller 11.

[0027] The above description is merely a preferred embodiment of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions falling within the scope of the present invention's concept are within the scope of protection of the present invention. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principles of the present invention should also be considered within the scope of protection of the present invention.

Claims

1. Abrasion-resistant and breathable Oxford cloth, comprising a base fabric layer (1), characterized in that: The base fabric layer (1) includes several breathable parts (101) and several wear-resistant parts (102) arranged alternately along its length. The breathable parts (101) are arrayed with several breathable holes (2). The wear-resistant parts (102) are provided with ridges (3) on the same side. The side of the ridges (3) away from the wear-resistant parts (102) is provided with a wear-resistant layer (4). The side of the wear-resistant parts (102) away from the ridges (3) is hot-pressed to form a wear-resistant groove (5). The bottom surface of the wear-resistant groove (5) is provided with several wear-resistant parts (6). The end of the wear-resistant part (6) away from the ridges (3) extends out from the wear-resistant groove (5).

2. The wear-resistant and breathable Oxford cloth according to claim 1, characterized in that: The length and width of the wear-resistant layer (4) are the same as the length and width of the convex strip (3), the wear-resistant part (6) is hemispherical, and both the wear-resistant part (6) and the wear-resistant layer (4) are made of polyvinyl chloride.

3. A processing device for abrasion-resistant and breathable Oxford cloth, used for processing the abrasion-resistant and breathable Oxford cloth according to any one of claims 1-2, comprising a device body (8), characterized in that: The base fabric layer (1) is conveyed onto the equipment body (8) by an output roller (9), two guide rollers (10) and a take-up roller (11). The equipment body (8) includes a hot pressing device (12), a coating device (13) and a shaping chamber (14) arranged sequentially along the conveying direction of the base fabric layer (1).

4. The processing equipment for abrasion-resistant and breathable Oxford cloth according to claim 3, characterized in that: The top of the equipment body (8) is fixedly connected with support plate one (17) and support plate two (18). The hot pressing device (12) includes an electric push rod (1201), two telescopic rods (1202), a hot pressing plate (1203) and a hot pressing platform (1204). The hot pressing plate (1203) and the hot pressing platform (1204) are arranged vertically and vertically respectively.

5. The processing equipment for abrasion-resistant and breathable Oxford cloth according to claim 4, characterized in that: The base of the electric push rod (1201) is fixedly connected to the bottom surface of the support plate (17). The telescopic end of the electric push rod (1201) is fixedly connected to the middle of the hot press plate (1203). Two telescopic rods (1202) are symmetrically arranged on both sides of the electric push rod (1201) and their ends are fixedly connected to the hot press plate (1203) and the support plate (17) respectively. The length and width of the hot press plate (1203) are the same as the length and width of the wear-resistant groove (5).

6. The processing equipment for abrasion-resistant and breathable Oxford cloth according to claim 5, characterized in that: The coating device (13) includes a drip molding assembly (15) and a coating assembly (16) arranged correspondingly on the top and bottom. The drip molding assembly (15) includes a feeding cylinder (1501), a hot melt chamber (1502), an infusion chamber (1503), and a plurality of drip molding heads (1504). An infusion tube (19) is connected between the drip molding head (1504) and the infusion chamber (1503). A linear module (20) is fixedly connected to the bottom of the support plate (18). The plurality of drip molding heads (1504) move back and forth along the width direction of the equipment body (8) through the linear module (20).

7. The processing equipment for abrasion-resistant and breathable Oxford cloth according to claim 6, characterized in that: The top of the shaping chamber (14) is connected to an exhaust pipe (21). The end of the exhaust pipe (21) away from the shaping chamber (14) is connected to the side wall of the feeding cylinder (1501). The side wall of the feeding cylinder (1501) is connected to an exhaust pipe (22). The ends of the exhaust pipe (21) and the exhaust pipe (22) near the feeding cylinder (1501) are both inclined downwards. The top surface of the feeding cylinder (1501) is connected to a feeding pipe (23).

8. The processing equipment for abrasion-resistant and breathable Oxford cloth according to claim 7, characterized in that: The coating assembly (16) includes a coating chamber (1601) and a rotating roller (1602), the rotating roller (1602) being rotatably connected inside the coating chamber (1601), and the axis of rotation of the rotating roller (1602) being lower than the liquid level inside the coating chamber (1601).

9. The processing equipment for abrasion-resistant and breathable Oxford cloth according to claim 8, characterized in that: A coating roller (24) is fixedly connected to the rotating roller (1602). The outer peripheral wall of the coating roller (24) is provided with a plurality of grooves (25) arranged in a circular array. The portion of the coating roller (24) located between adjacent grooves (25) forms a coating strip (26). The width of the opening of the groove (25) is the same as the distance between adjacent protrusions (3). The width of the coating strip (26) is the same as the width of the protrusion (3).

Images