Oxford fabric processing equipment and use method thereof

Abstract

The present application discloses an Oxford fabric processing device and a method for using the same, and relates to the technical field of fabric processing. The present application comprises: a dyeing box, with an inlet and an outlet respectively constructed on both sides; a transport assembly installed on the dyeing box, and the transport assembly is used to transport the grey cloth. The present application adopts the design of an actuator, and when the rotating roller rotates, the abutment part can abut against the rod body, and the grey cloth can be clamped by the cooperation between the abutment part and the rod body, and then when the two abutment parts are driven by the actuator to move in opposite directions, the grey cloth can slide on the rod body as the abutment part moves, so that the grey cloth can be stretched in the length and width directions at the same time, and when the two abutment parts move relative to each other, the abutment part is separated from the rod body, the grey cloth is separated from the rod body, and restored to the state before stretching, and the above operation is repeated, so that the grey cloth can be fully stretched, so that the speed of its absorption of dye can be accelerated, and its soaking time in the dye can be reduced, thereby improving the production efficiency of the grey cloth.

Description

Technical Field

[0001] The present application relates to the technical field of Oxford fabric processing, and in particular to an Oxford fabric processing device and a method for using the same. Background Art

[0002] Oxford fabric (Oxford cloth), also known as Oxford spinning, is a fabric with diverse functions and wide applications. The main varieties on the market include checkered, full-stretch, nylon, and tiga. In the production and processing of Oxford fabric, the grey fabric needs to undergo multiple processing steps such as relaxation, alkali addition, dyeing, anti-static and coating.

[0003] After searching, the invention with patent publication number CN117584571A discloses heat-permeable and waterproof outdoor Oxford cloth and its preparation process, and discloses a dyeing device, a transport component, a driving mechanism and an extrusion component. When dyeing the cloth, the driving mechanism can push the Oxford cloth to move toward the dyeing tank to stretch and deform the Oxford cloth, so that the surface texture is stretched, so that the contact area between the Oxford cloth and the dye is larger, which is convenient for the dye to adhere and dye, thereby accelerating the speed at which the Oxford cloth absorbs the dye, thereby reducing its immersion time in the dye, and achieving the purpose of improving the production efficiency of the Oxford cloth. However, in the above-mentioned disclosed technical solution, when dyeing the Oxford cloth, the driving mechanism can only stretch the Oxford cloth in the length direction, and cannot stretch the Oxford cloth in the width direction, which results in a limited stretching range of the surface texture, which is not convenient for the dye to adhere and dye, resulting in a limited improvement in the production efficiency of the Oxford cloth. In order to reasonably improve this problem, the present application proposes an Oxford fabric processing device and a method for using the same. Summary of the invention

[0004] The purpose of the present application is to solve the technical problem in the prior art that when Oxford cloth is dyed, the driving mechanism can only stretch the Oxford cloth in the length direction, but cannot stretch the Oxford cloth in the width direction, which leads to limited stretching of the surface texture, inconvenience for dye adhesion and dyeing, and limited improvement in the production efficiency of Oxford cloth. The present application provides an Oxford fabric processing equipment and a method of using the same.

[0005] In order to achieve the above-mentioned purpose, this application specifically adopts the following technical solutions: An Oxford fabric processing device, comprising: The dyeing box has an inlet and an outlet on both sides; A transport component is installed on the dyeing box and is used to transport the grey cloth; Two squeezing mechanisms are respectively arranged on opposite sides of the inlet and the outlet, and both of them are linked with the transport component; A rotating roller is rotatably installed in the dyeing box and is linked with the transport component. A rod body is provided in the dyeing box and is arranged parallel to the bottom side of the rotating roller. Both ends of the rotating roller are provided with a contact part, which movably contacts with the peripheral side of the rod body. The actuator is installed on the rotating roller and is used to drive the two abutting parts to move back and forth synchronously.

[0006] Furthermore, the number of the rotating rollers and the rod bodies are both two, and they are symmetrically arranged in the dyeing box.

[0007] Furthermore, the abutment portion comprises a first tube body arranged on the rotating roller, an eccentric wheel is configured on the circumference of the first tube body, and the eccentric wheel is tangent to the cylindrical surface of the first tube body.

[0008] Furthermore, the actuator includes a second tube body rotatably installed at both ends of the rotating roller, the two first tube bodies are respectively slidably matched with the two second tube bodies, the rotating roller is symmetrically structured with reciprocating threads, and guide blocks are rotatably installed on the inner sides of the two first tube bodies, and the two guide blocks are respectively threadedly matched with the two reciprocating threads, and a transmission mechanism is installed on the dyeing box, and the two second tube bodies are linked to the rotating roller through the transmission mechanism.

[0009] Furthermore, the transmission mechanism includes a movable rod rotatably installed on the top of the dyeing box, with first sprockets installed at both ends of the movable rod, two second tubes respectively penetrate the opposite sides of the dyeing box, and are connected to second sprockets on the outside, the first sprocket and the second sprocket are connected by a chain transmission, one of the second tubes is connected to the outside of the first spur gear, the end of the rotating roller is connected to the second spur gear, a large gear is rotatably installed on the outside of the dyeing box, which is meshed with the first spur gear, and a small gear is coaxially connected to the outside of the large gear, which is meshed with the second spur gear.

[0010] Furthermore, annular blocks are constructed at both ends of the rod body, and compression springs are connected to the opposite sides of the two. Two sleeves are movably sleeved on the rod body, and the opposite ends of the two sleeves respectively contact the two compression springs. An annular stopper is connected to the middle of the rod body, and the opposite sides of the two sleeves are movably overlapped with the annular stopper.

[0011] Furthermore, the rod body is rotationally matched with the dyeing box, and the two sleeves are slidingly matched with the rod body.

[0012] Furthermore, one side of the eccentric wheel is configured with an arc surface, which is away from the first tube body and on which a flexible block is mounted, and the flexible block is configured with an arc surface, and the arc diameter of the arc surface is equal to the outer diameter of the eccentric wheel.

[0013] Furthermore, sealing rings are installed at both ends of the first tube body, and the second tube body and the rotating roller pass through the inner sides of the two sealing rings respectively.

[0014] A method for using Oxford fabric processing equipment comprises the following steps: S1: Winding: The grey cloth is wound on the transport component and the first tube body, and two ends of the grey cloth pass through the inlet and the outlet respectively through the extrusion mechanism; S2: Length stretching: When the transport assembly transports the grey cloth, the rotating rollers rotate synchronously, and the second spur gear drives the small gear and the large gear to rotate, and the large gear drives the second tube body to drive the first tube body to rotate. Through the cooperation of the guide block and the reciprocating thread, the two first tube bodies can drive the two eccentric wheels to slide back and forth on the rotating rollers. When the two guide blocks are located at the opposite ends of the two reciprocating threads, the two eccentric wheels conflict with the rod body and clamp the grey cloth. At this time, the grey cloth is stretched in the dye along its length direction under the conflict of the eccentric wheels; S3: Width stretching: When the two guide blocks move toward the opposite ends of the two reciprocating threads, the two first tubes slide toward the two second tubes respectively. At this time, the two eccentric wheels contact the rods and clamp the grey cloth. The grey cloth can slide along the length direction of the rods under the contact of the eccentric wheels, so that it can stretch along its width direction in the dye. S4: Reset: When the two guide blocks move toward the opposite ends of the two reciprocating threads, the two first tubes move away from the two second tubes respectively, the abutment portion separates from the rod, the grey cloth is separated from the rod, and returns to the state before stretching; S5: Dyeing: By repeating the processes of S2-S4, the grey cloth can be effectively stretched so that the surface texture can be fully stretched, which is convenient for the dye to penetrate and dye; S6: Dehydration: The excess water on the dyed grey cloth can be squeezed out through the squeezing mechanism to complete the dehydration, and then it can be discharged from the dyeing box from the outlet.

[0015] The beneficial effects of this application are as follows: The present application adopts the design of an actuator, and when the rotating roller rotates, the interference part can interfere with the rod body, and the grey cloth can be clamped through the cooperation of the interference part and the rod body. Then, when the two interference parts are driven by the actuator to move in opposite directions, the grey cloth can slide on the rod body as the interference part moves, so that the grey cloth can be stretched in the length and width directions at the same time. When the two interference parts move relative to each other, the interference part is separated from the rod body, the grey cloth is separated from the rod body, and returns to the state before stretching. By repeating the above operation, the grey cloth can be fully stretched, thereby accelerating its speed of absorbing the dye and reducing its immersion time in the dye, thereby improving the production efficiency of the grey cloth.

[0016] The present application adopts the design of the interference part. When the two first tube bodies move away from each other, the tangent part between the eccentric wheel and the first tube body moves away from the rod body. At this time, the eccentric wheel can fix the blank cloth on the rod body by interference. As the eccentric wheel continues to rotate, the blank cloth can slide on the rod body under the interference of the eccentric wheel. When the first tube bodies move relatively, the tangent part between the eccentric wheel and the first tube body is close to the rod body. At this time, the eccentric wheel is separated from the rod body, the blank cloth is separated from the rod body, and returns to the state before stretching.

[0017] The present application adopts the design of an actuator, and the rotating roller can drive the two second tubes to rotate asynchronously through a transmission mechanism. At this time, the first tube can drive the eccentric wheel to slide back and forth on the rotating roller under the cooperation of the guide block and the reciprocating thread. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a three-dimensional structural diagram of this application; Figure 2 It is a partial structural cross-sectional view of the three-dimensional structure of the present application from another angle; Figure 3 is a structural cross-sectional view of the rotating roller of the present application; Figure 4 This application Figure 3 A magnified image of point A; Figure 5 This application Figure 3 The enlarged view of point B; Figure 6 It is a schematic diagram of the connection structure of the rotating roller of the present application; Figure 7 This application Figure 6 Enlarged view of point C; Figure 8 It is a flow chart of a method for using an Oxford fabric processing device of the present application; Reference numerals: 1, dyeing box; 2, inlet; 3, outlet; 4, transport assembly; 401, conveying roller; 402, pulley assembly; 403, motor; 5, extrusion mechanism; 501, extrusion roller; 502, gear assembly; 6, rotating roller; 7, rod body; 8, conflicting part; 801, first tube body; 802, eccentric wheel; 8021, arc surface; 8022, flexible block; 8023, arc surface; 9, actuator; 9 01, second tube body; 902, reciprocating thread; 903, guide block; 904, transmission mechanism; 9041, movable rod; 9042, first sprocket; 9043, second sprocket; 9044, chain; 9045, first spur gear; 9046, second spur gear; 9047, large gear; 9048, small gear; 10, annular block; 11, compression spring; 12, sleeve; 13, annular stopper; 14, sealing ring. DETAILED DESCRIPTION

[0019] In order to make the purpose, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application.

[0020] like Figure 1-Figure 7 As shown, an Oxford fabric processing device proposed in one embodiment of the present application is used to process an Oxford fabric. The fabric is formed by putting polyester yarn into a shuttle loom for warp and weft weaving. The polyester fiber not only has high structural strength, but also has good shape retention and light resistance. The characteristics of the polyester fiber are used to ensure the overall wear resistance and light resistance of the fabric and extend the service life of the fabric. The processing equipment includes: A dyeing box 1 is filled with dye, and has an inlet 2 and an outlet 3 on both sides, respectively, for taking in and out grey cloth; The transport assembly 4 is installed on the dyeing box 1. The transport assembly is used to transport the grey cloth. The transport assembly 4 is a prior art, which includes a plurality of transport rollers 401 rotatably installed in the dyeing box 1. The grey cloth is wound around the plurality of transport rollers 401. The plurality of transport rollers 401 are connected by a pulley assembly 402. A motor 403 is installed on one of the transport rollers 401. When the motor 403 is working, the plurality of transport rollers 401 rotate in the same direction, thereby transporting the grey cloth. Two squeezing mechanisms 5 are respectively arranged at opposite sides of the inlet 2 and the outlet 3. The squeezing mechanism 5 includes two squeezing rollers 501 rotatably installed in the dyeing box 1. The grey cloth passes through the two squeezing rollers 501. The two squeezing rollers 501 can form a resistance fixation on the grey cloth. The ends of the two squeezing rollers 501 are connected by a gear assembly 502 so that the two can rotate relatively, and they are all linked with the transport assembly 4. One of the squeezing rollers 501 is connected by a pulley assembly 402 to one of the conveying rollers 401. Its power comes from the transport assembly 4 and can rotate together with the conveying roller 401. A rotating roller 6 is rotatably installed in the dyeing box 1, and is located between the two extrusion mechanisms 5, close to the bottom of the dyeing box 1, and is linked with the transport component 4. The rotating roller 6 is connected to one of the conveying rollers 401 through a pulley component 402, and its power comes from the transport component 4. It can rotate with the conveying roller 401. A rod body 7 is provided in the dyeing box 1, which is arranged parallel to the bottom side of the rotating roller 6. There is a gap between the rod body 7 and the bottom of the rotating roller 6. The grey cloth passes through the gap between the rod body 7 and the rotating roller 6 and contacts the bottom of the rotating roller 6. Both ends of the rotating roller 6 are provided with a resistance part 8, which movably resists with the peripheral side of the rod body 7. When the rotating roller 6 rotates, the resistance part 8 can resist on the peripheral side of the rod body 7. At this time, the grey cloth is stretched under the action of the resistance part 8 and clamped by the resistance part 8 and the rod body 7; The actuator 9 is installed on the rotating roller 6 and is used to drive the two abutting parts 8 to move back and forth synchronously. When the two abutting parts 8 move relative to each other under the action of the actuator 9, the two abutting parts 8 are not in contact with the rod body 7. When the two abutting parts 8 move in opposite directions, the two abutting parts 8 abut against the rod body 7 and clamp the grey cloth, thereby stretching the grey cloth in the length direction. Since the liquid dye has a certain lubricating effect, as the abutting parts 8 move, the grey cloth can slide on the peripheral side of the rod body 7 under the abutment of the abutting parts 8, thereby stretching the grey cloth in the width direction. When the motor 403 drives multiple conveying rollers 401 to rotate in the same direction, the grey cloth can be conveyed from the entrance 2 to the dyeing box 1. At the same time, the conveying roller 401 can drive the rotating roller 6 to rotate. During the rotation of the rotating roller 6, the abutment portion 8 can abut on the peripheral side of the rod body 7. At this time, the grey cloth between the two squeezing mechanisms 5 can be stretched in the length direction under the action of the abutment portion 8, and the grey cloth can be clamped by the mutual cooperation between the abutment portion 8 and the rod body 7. Subsequently, when the two abutment portions 8 are driven to move in opposite directions by the actuator 9, the grey cloth can slide on the peripheral side of the rod body 7 as the abutment portion 8 moves under the lubrication of the dye, so as to stretch the grey cloth in the width direction. At this time, the dye can The dye is fully infiltrated and attached to the grey cloth to complete the dyeing of the grey cloth. Then, when the two abutting parts 8 move relative to each other under the action of the actuator 9, the abutting parts 8 separate from the rod body 7, and the grey cloth is separated from the rod body 7 and returns to the state before stretching. By repeating the above operation, the grey cloth can be effectively stretched so that the surface texture can be fully stretched to increase the contact area between the grey cloth and the dye, thereby accelerating the speed at which the grey cloth absorbs the dye, reducing its immersion time in the dye, and improving the production efficiency of the grey cloth. Then, the excess water and dye on the grey cloth can be squeezed out through the extrusion mechanism 5 connected to the conveying roller 401, and after dehydration, the grey cloth is discharged from the dyeing box 1 from the outlet 3; The present application adopts the design of the actuator 9. When the rotating roller 6 rotates, the interference part 8 can interfere with the rod body 7. The cooperation between the interference part 8 and the rod body 7 can clamp the grey cloth. Then, when the two interference parts 8 are driven by the actuator 9 to move in opposite directions, the grey cloth can slide on the rod body 7 as the interference parts 8 move, so that the grey cloth can be stretched in the length and width directions at the same time. When the two interference parts 8 move relative to each other, the interference part 8 separates from the rod body 7, the grey cloth detaches from the rod body 7, and returns to the state before stretching. By repeating the above operation, the grey cloth can be fully stretched, thereby accelerating its speed of absorbing the dye and reducing its immersion time in the dye, thereby improving the production efficiency of the grey cloth.

[0021] like Figure 1-Figure 3As shown, in some embodiments, the number of rotating rollers 6 and rod bodies 7 are both two, and they are symmetrically arranged in the dyeing box 1 and symmetrically arranged between the two extrusion mechanisms 5. By increasing the number of rotating rollers 6 and rod bodies 7, the stretching amplitude of the contact part 8 on the grey cloth can be increased, so that the surface texture can be fully stretched, which is convenient for the penetration of the dye.

[0022] like Figure 2 and Figure 3 As shown, in some embodiments, the resistance part 8 includes a first tube body 801 provided on the rotating roller 6, and the first tube body 801 can rotate with the rotating roller 6, and an eccentric wheel 802 is constructed on its circumferential side, and the eccentric wheel 802 is tangent to the cylindrical surface of the first tube body 801. When the two first tube bodies 801 move in opposite directions, the tangent part between the eccentric wheel 802 and the first tube body 801 is away from the rod body 7. At this time, the eccentric wheel 802 can fix the blank cloth on the rod body 7 by resistance, and as the eccentric wheel 802 continues to rotate, the blank cloth can slide on the rod body 7 under the resistance of the eccentric wheel 802, and when the first tube body 801 moves relatively, the tangent part between the eccentric wheel 802 and the first tube body 801 is close to the rod body 7, and at this time, the eccentric wheel 802 is separated from the rod body 7, and the blank cloth is separated from the rod body 7 and returns to the state before stretching.

[0023] like Figure 1 , Figure 2 , Figure 4 , Figure 5 and Figure 6 As shown, in some embodiments, the actuator 9 includes a second tube body 901 rotatably mounted at both ends of the rotating roller 6, the two second tube bodies 901 are respectively located at the opposite ends of the two first tube bodies 801, the two first tube bodies 801 are respectively slidably matched with the two second tube bodies 901, and when the second tube body 901 rotates, it can drive the first tube body 801 to rotate synchronously, and the rotating roller 6 is symmetrically structured with reciprocating threads 902, and the two reciprocating threads 902 extend from the opposite sides of the two second tube bodies 901 toward the middle of the rotating roller 6, and the inner sides of the two first tube bodies 801 are both rotatably mounted with guide blocks 903, and the two guide blocks 903 are respectively rotatably mounted with the two reciprocating threads 902. The thread 902 is threadedly matched, and the structure here is similar to a reciprocating screw rod. The guide block 903 can slide along the thread direction in the reciprocating thread 902. When the rotating roller 6 and the second tube body 901 rotate asynchronously, the first tube body 801 can drive the eccentric wheel 802 to slide back and forth on the rotating roller 6 under the cooperation of the guide block 903 and the reciprocating thread 902. A transmission mechanism 904 is installed on the dyeing box 1. The two second tube bodies 901 are linked with the rotating roller 6 through the transmission mechanism 904. The rotating roller 6 can drive the two second tube bodies 901 to rotate through the transmission mechanism 904, but the rotation of the second tube body 901 and the rotating roller 6 is asynchronous.

[0024] like Figure 1 , Figure 2 , Figure 4 , Figure 5 and Figure 6 As shown, in some embodiments, the transmission mechanism 904 includes a movable rod 9041 rotatably installed on the top of the dyeing box 1, and first sprockets 9042 are installed at both ends of the movable rod 9041, and the two first sprockets 9042 rotate in the same direction. The two second tubes 901 respectively penetrate the opposite sides of the dyeing box 1, and the outer sides are connected to the second sprockets 9043. The first sprocket 9042 and the second sprocket 9043 are connected by a chain 9044. The second sprocket 9043 rotates in the same direction as the first sprocket 9042. The two second tubes 901 rotate synchronously, and a first spur gear 9045 is connected to the outer side of one of the second tubes 901. The first spur gear 9045 is coaxial with the second sprocket 9043 and is located on the side of the second sprocket 9043 away from the dyeing box 1. The end of the rotating roller 6 is connected to a second spur gear 9046, and the number of teeth of the first spur gear 9045 is less than that of the second sprocket 9046. A large gear 9047 is rotatably installed on the outer side of the dyeing box 1, which meshes with the first spur gear 9045, and the number of teeth of the first spur gear 9045 is smaller than that of the large gear 9047. A small gear 9048 is coaxially connected to the outer side of the large gear 9047, which meshes with the second spur gear 9046, and the number of teeth of the second spur gear 9046 is larger than that of the small gear 9048. When the rotating roller 6 rotates, the small gear 9048 can be driven by the second spur gear 9046 to increase the speed of rotation, and the large gear 9047 can be driven by the first spur gear 9045 to increase the speed of rotation, so that the rotation of the second tube 901 and the rotating roller 6 is not synchronized, so that when the rotating roller 6 rotates slowly, the second tube 901 and the eccentric wheel 802 can slide back and forth on the reciprocating thread 902 under the action of the guide block 903, so that the grey cloth transported at a low speed can be effectively stretched, thereby improving its dyeing efficiency.

[0025] like Figure 2 , Figure 3 , Figure 6 and Figure 7As shown, in some embodiments, an annular block 10 is constructed at both ends of the rod body 7, and compression springs 11 are connected to the opposite sides of the two. The compression springs 11 are sleeved on the circumference of the rod body 7. Two sleeves 12 are movably sleeved on the rod body 7, and the opposite ends of the two are respectively in conflict with the two compression springs 11. An annular stopper 13 is connected to the middle of the rod body 7. The annular stopper 13 is made of rubber material and can buffer collisions. The opposite sides of the two sleeves 12 are movably overlapped with the annular stopper 13 respectively, and the two sleeves 12 are separated by the annular stopper 13. The compression spring 11 is used to provide a force to force the sleeve 12 to contact with The thrust on the annular stopper 13, when the grey cloth is pressed against the sleeve 12 by the eccentric wheel 802 and the second tube body 901 drives the eccentric wheel 802 to move, the sleeve 12 can slide on the rod body 7 along with the second tube body 901 under the pressure of the eccentric wheel 802, and compress the compression spring 11 at the same time. By adopting the design of the sleeve 12, the sliding wear between the rod body 7 and the grey cloth when the grey cloth is stretched can be effectively reduced. When the eccentric wheel 802 is separated from the sleeve 12, the sleeve 12 can be pressed against the annular stopper 13 under the push of the compression spring 11 to perform reset.

[0026] like Figure 1 and Figure 2 As shown, in some embodiments, the rod body 7 is rotatably matched with the dyeing box 1, and the two sleeves 12 are slidably matched with the rod body 7. During the process of the eccentric wheel 802 contacting and rotating with the sleeve 12, the rod body 7 can rotate together with the sleeve 12 along with the eccentric wheel 802, so that when the grey cloth is conveyed and stretched, it is not easy to generate a large friction resistance between it and the sleeve 12. Such a design can protect the compression spring 11, so that it is not easy to be twisted and damaged during the movement of the sleeve 12.

[0027] like Figure 2 and Figure 3As shown, in some embodiments, an arc surface 8021 is constructed on one side of the eccentric wheel 802, and the arc surface 8021 is far away from the first tube body 801. The arc surface 8021 is far away from the tangent portion of the eccentric wheel 802 and the first tube body 801, and its arc diameter is greater than the maximum outer diameter of the eccentric wheel 802, and the center of the arc surface 8021 is located between the axis of the first tube body 801 and the tangent portion between it and the eccentric wheel 802, and a flexible block 8022 is installed thereon, and the flexible block 8022 is a rubber block that can be deformed, and an arc surface 8023 is constructed on the flexible block 8022, and the arc surface 8023 is constructed on the outside of the flexible block 8022, and the arc The arc diameter of the shaped surface 8023 is equal to the outer diameter of the eccentric wheel 802, and the flexible block 8022 and the longitudinal section of the eccentric wheel 802 are combined into a circle. It should be specifically explained here that the maximum distance between the flexible block 8022 and the axis of the first tube body 801 is greater than the minimum distance between the sleeve 12 and the axis of the first tube body 801, so that when the eccentric wheel 802 contacts the sleeve 12 and continues to rotate, the eccentric wheel 802 can be deformed until it passes through the rod body 7. Such a design can expand the contact angle between the eccentric wheel 802 and the rod body 7, so that the eccentric wheel 802 and the sleeve 12 can cooperate to stretch the blank cloth.

[0028] like Figure 3 and Figure 4 As shown, in some embodiments, sealing rings 14 are installed at both ends of the first tube 801, and the sealing rings 14 are rubber rings. The second tube 901 and the rotating roller 6 respectively pass through the inner sides of the two sealing rings 14. Such a design can improve the sealing performance of the first tube 801, thereby effectively reducing the dye and impurities that enter the reciprocating thread 902, so that the reciprocating thread 902 is not easily blocked.

[0029] like Figure 8 As shown, the method for using the above-mentioned Oxford fabric processing equipment comprises the following steps: S1: Winding: The grey cloth is wound on the transport assembly 4 and the first tube 801, and the two ends of the grey cloth pass through the inlet 2 and the outlet 3 respectively through the extrusion mechanism 5; S2: Length stretching: When the transport assembly 4 transports the grey cloth, the rotating roller 6 rotates synchronously, and drives the small gear 9048 and the large gear 9047 to rotate through the second spur gear 9046, and drives the second tube 901 to drive the first tube 801 to rotate through the large gear 9047. Through the cooperation between the guide block 903 and the reciprocating thread 902, the two first tubes 801 can drive the two eccentric wheels 802 to slide back and forth on the rotating roller 6. When the two guide blocks 903 are located at the opposite ends of the two reciprocating threads 902, the two eccentric wheels 802 are in conflict with the rod body 7 and clamp the grey cloth. At this time, the grey cloth is stretched in the dye along its length direction under the conflict of the eccentric wheels 802; S3: Width stretching: When the two guide blocks 903 move toward the opposite ends of the two reciprocating threads 902, the two first tubes 801 slide toward the two second tubes 901 respectively. At this time, the two eccentric wheels 802 contact the rod 7 and clamp the grey cloth. The grey cloth can slide along the length direction of the rod 7 under the contact of the eccentric wheels 802, so that it can stretch along its width direction in the dye. S4: Reset: When the two guide blocks 903 move toward the opposite ends of the two reciprocating threads 902, the two first tubes 801 move away from the two second tubes 901 respectively, the abutment portion 8 separates from the rod 7, the grey cloth is separated from the rod 7, and returns to the state before stretching; S5: Dyeing: By repeating the processes of S2-S4, the grey cloth can be effectively stretched so that the surface texture can be fully stretched, which is convenient for the dye to penetrate and dye; S6: Dehydration: Excess water on the dyed grey cloth can be squeezed out through the squeezing mechanism 5 to complete the dehydration, and then the grey cloth can be discharged from the dyeing box 1 through the outlet 3.

[0030] The above description of the disclosed embodiments enables those skilled in the art to implement or use the present application. Various modifications to these embodiments will be apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present application. Therefore, the present application will not be limited to the embodiments shown herein, but will conform to the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. An Oxford fabric processing equipment, characterized in that: include: A dyeing box (1) is provided with an inlet (2) and an outlet (3) on both sides; A transport component (4) is installed on the dyeing box (1), and the transport component (4) is used to transport the grey cloth; Two extrusion mechanisms (5) are respectively arranged on opposite sides of the inlet (2) and the outlet (3), and both extrusion mechanisms (5) are linked with the transport component (4); A rotating roller (6) is rotatably mounted in the dyeing box (1) and is linked with the transport component (4). A rod body (7) is provided in the dyeing box (1). The rod body (7) is arranged parallel to the bottom side of the rotating roller (6). Both ends of the rotating roller (6) are provided with a contact portion (8). The contact portion (8) is movably contacted with the peripheral side of the rod body (7). An actuator (9) is mounted on the rotating roller (6), and the actuator (9) is used to drive the two abutting parts (8) to move back and forth synchronously.

2. The Oxford fabric processing equipment according to claim 1, characterized in that: The number of the rotating rollers (6) and the number of the rod bodies (7) are both two, and they are symmetrically arranged in the dyeing box (1).

3. The Oxford fabric processing equipment according to claim 2, characterized in that: The abutment portion (8) comprises a first tube body (801) arranged on a rotating roller (6), an eccentric wheel (802) being configured on the circumference of the first tube body, and the eccentric wheel (802) is tangent to the cylindrical surface of the first tube body (801).

4. The Oxford fabric processing equipment according to claim 3, characterized in that: The actuator (9) comprises a second tube body (901) rotatably mounted on both ends of a rotating roller (6); the two first tube bodies (801) are respectively slidably matched with the two second tube bodies (901); the rotating roller (6) is symmetrically structured with reciprocating threads (902); guide blocks (903) are rotatably mounted on the inner sides of the two first tube bodies (801); the two guide blocks (903) are respectively threadably matched with the two reciprocating threads (902); a transmission mechanism (904) is mounted on the dyeing box (1); and the two second tube bodies (901) are linked and matched with the rotating roller (6) via the transmission mechanism (904).

5. The Oxford fabric processing equipment according to claim 4, characterized in that: The transmission mechanism (904) comprises a movable rod (9041) rotatably mounted on the top of the dyeing box (1), with first sprockets (9042) mounted on both ends of the movable rod, two second tubes (901) respectively passing through opposite sides of the dyeing box (1), and the outer sides of the two second tubes are connected to second sprockets (9043), the first sprocket (9042) and the second sprocket (9043) are connected to each other by a chain (9044), the outer side of one of the second tubes (901) is connected to a first spur gear (9045), the end of the rotating roller (6) is connected to a second spur gear (9046), a large gear (9047) is rotatably mounted on the outer side of the dyeing box (1), the large gear (9047) is meshed with the first spur gear (9045), and a small gear (9048) is coaxially connected to the outer side of the large gear (9047), and the small gear (9048) is meshed with the second spur gear (9046).

6. The Oxford fabric processing equipment according to claim 3, characterized in that: Both ends of the rod body (7) are constructed with annular blocks (10), and the opposite sides of the two are connected to compression springs (11). Two sleeves (12) are movably sleeved on the rod body (7), and the opposite ends of the two sleeves are respectively in contact with the two compression springs (11). The middle part of the rod body (7) is connected to an annular stopper (13), and the opposite sides of the two sleeves (12) are movably overlapped with the annular stopper (13).

7. The Oxford fabric processing equipment according to claim 6, characterized in that: The rod body (7) is rotationally matched with the dyeing box (1), and the two sleeves (12) are slidingly matched with the rod body (7).

8. The Oxford fabric processing equipment according to claim 7, characterized in that: The eccentric wheel (802) has a curved surface (8021) on one side, the curved surface (8021) is away from the first tube body (801), and a flexible block (8022) is mounted on the curved surface. The flexible block (8022) has a curved surface (8023) on it, and the arc diameter of the curved surface (8023) is equal to the outer diameter of the eccentric wheel (802).

9. The Oxford fabric processing equipment according to claim 4, characterized in that: Sealing rings (14) are installed at both ends of the first tube body (801), and the second tube body (901) and the rotating roller (6) respectively penetrate the inner sides of the two sealing rings (14).

10. A method for using an Oxford fabric processing device, using the Oxford fabric processing device according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1: Winding: The grey cloth is wound on the transport component (4) and the first tube (801), and the two ends of the grey cloth pass through the inlet (2) and the outlet (3) respectively through the extrusion mechanism (5); S2: Length stretching: When the transport component (4) transports the grey cloth, the rotating roller (6) rotates synchronously, and drives the small gear (9048) and the large gear (9047) to rotate through the second spur gear (9046), and drives the second tube (901) to drive the first tube (801) to rotate through the large gear (9047). Through the cooperation between the guide block (903) and the reciprocating thread (902), the two first tubes (801) can drive the two eccentric wheels (802) to slide back and forth on the rotating roller (6). When the two guide blocks (903) are located at the opposite ends of the two reciprocating threads (902), the two eccentric wheels (802) and the rod body (7) are in conflict with each other and clamp the grey cloth. At this time, the grey cloth is stretched in the dye along its length direction under the conflict of the eccentric wheels (802); S3: Width stretching: When the two guide blocks (903) move toward the opposite ends of the two reciprocating threads (902), the two first tubes (801) slide toward the two second tubes (901) respectively. At this time, the two eccentric wheels (802) contact the rod body (7) and clamp the grey cloth. Under the contact of the eccentric wheels (802), the grey cloth can slide along the length direction of the rod body (7), so that it can stretch in the dye along its width direction. S4: Reset: When the two guide blocks (903) move toward the opposite ends of the two reciprocating threads (902), the two first tubes (801) move away from the two second tubes (901) respectively, the abutment portion (8) separates from the rod body (7), the grey cloth is separated from the rod body (7), and returns to the state before stretching; S5: Dyeing: By repeating the processes of S2-S4, the grey cloth can be effectively stretched so that the surface texture can be fully stretched, which is convenient for the dye to penetrate and dye; S6: Dehydration: Excess water on the dyed grey cloth can be squeezed out by the squeezing mechanism (5) to complete the dehydration, and then the grey cloth can be discharged from the dyeing box (1) through the outlet (3).

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