Regenerated cellulose fiber fabric processing device

Abstract

The invention relates to the technical field of fabric processing, and discloses a regenerated cellulose fiber fabric processing device which comprises a device body, a feeding assembly is arranged on the left side of the top of the device body, supporting legs are arranged at the corners of the bottom of the device body, a transmission assembly is arranged at the top of the device body, and the transmission assembly is in transmission connection through an external belt pulley. An electric telescopic top plate is fixedly mounted at the top edge of the device body, a cutting assembly is fixedly mounted at the top center of the inner wall of the electric telescopic top plate, and a circular groove blade is rotationally mounted in the cutting assembly. The circular groove blade effectively cuts materials with different thicknesses through the electric telescopic top plate, and material damage caused by insufficient cutting depth is prevented; ironing and stretching are conducted through the heating assembly, and it is guaranteed that the materials are flat and have tension; the heating assembly pushes floating yarns to be attached to the surfaces of the materials, and the floating yarns are prevented from being attached to the outer wall faces of the circular groove blades.

Description

Technical Field

[0001] The invention relates to the technical field of fabric processing, in particular to a regenerated cellulose fiber fabric processing device. Background Art

[0002] Environmentally friendly regenerated cellulose fiber is made from natural cellulose. It does not change its chemical structure, but only changes the physical structure of natural cellulose to produce a regenerated cellulose fiber with better performance. Its moisture absorption and breathability are better than cotton fiber, and it is often known as "breathing fabric."

[0003] The patent announcement number CN115522346A discloses a regenerated cellulose fiber fabric processing device, including a processing table, a first slide groove is symmetrically provided on the upper end of the processing table, a supporting leg is symmetrically fixedly installed on the lower end of the processing table, a connecting strip is symmetrically fixedly installed on the upper end of the processing table, a placing table is fixedly installed on the upper end of the two connecting strips, a cutting groove is provided at the center of the upper end of the placing table, a second slide groove is symmetrically provided on the side wall of the placing table, and a third slide groove is symmetrically provided on the upper end of the placing table, an adjustment mechanism is provided inside the two first slide grooves, the adjustment mechanism includes a U-shaped frame, the U-shaped frame is movably arranged in the two first slide grooves, a cross groove is provided on the upper end of the U-shaped frame, a first slider is slidably installed inside the cross groove, and a pull block is fixedly installed on the upper end of the first slider, so that the pressure strip can effectively fix the fiber fabric, so that the device can effectively fix the fiber fabric when in use, and the fixing effect is better.

[0004] However, this device still has some shortcomings: the device can stretch the raw materials, effectively preventing the materials from wrinkling during the processing, but it is difficult to simultaneously remove the floating yarn dirt attached to the surface of the raw materials during the stretching process. During the raw material cutting process, it is easy to adhere to the surface of the cutting machine tooth wall, resulting in an uneven cutting surface of the raw materials and reducing the processing quality. Summary of the Invention

[0005] In view of the shortcomings of the prior art, the present invention provides a regenerated cellulose fiber fabric processing device, which solves the problems raised in the above background technology.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: a regenerated cellulose fiber fabric processing device, including a device body, a feeding assembly is arranged on the left side of the top of the device body, a supporting leg is arranged at the corner of the bottom of the device body, a transmission assembly is arranged on the top of the device body, and the transmission assembly is connected through an external pulley, an electric telescopic top plate is fixedly installed at the top edge of the device body, a cutting assembly is fixedly installed at the top center of the inner wall of the electric telescopic top plate, a circular groove blade is rotatably installed inside the cutting assembly, two U-shaped frames are hinged on the top of the electric telescopic top plate, and a heating assembly is hinged at the bottom of the U-shaped frame. The heating component is provided with a thread picking device for removing raised thread ends of the material on one side near the center of the device body. The material is transferred to the surface of the transmission component through the feeding component, and the transmission component is driven to operate by an external pulley. The transmission component transports the material to the bottom of the electric telescopic top plate, and the electric telescopic top plate is started. The telescopic end of the electric telescopic top plate drives the cutting component to move up and down, and the circular groove blade is driven by the cutting component to rotate and cut the material; the telescopic end of the electric telescopic top plate drives the U-shaped frame to move up and down, and the U-shaped frame drives the heating component to move synchronously. When the heating component contacts the surface of the material, a resistance force is generated, thereby moving away from the center of the transmission component and resetting.

[0007] According to the above technical solution, the two U-shaped frames are symmetrically distributed around the axis of the electric retractable top plate, and the U-shaped frames are located at the periphery of the cutting assembly. A slide groove is provided on the side of the heating assembly away from the center of the device body, and the bottom of the heating assembly is flat.

[0008] According to the above technical solution, two transmission rods are hinged inside the slide groove of the heating component, and the transmission rods are symmetrically distributed around the axis of the heating component. A push plate is hinged at one end of the transmission rod away from the heating component, and a reset plate is fixedly installed at the inclined surface of the push plate. A knocking column is fixedly installed on the arc surface of the outer wall of the reset plate, and the vertical surface of the heating component away from the device body is in contact with the knocking column. The heating component drives the transmission rod to move synchronously, and the transmission rod drives the push plate to slide along the surface of the material, and the friction resistance causes the push plate to drive the transmission rod to deviate and push away from the center of the heating component; when the push plate deviates, it drives the reset plate to deform synchronously, and when the friction resistance between the push plate and the material is reduced, the reset plate is reset by its own elasticity; when the reset plate is deformed, it drives the knocking column away from the surface of the heating component, and when the reset plate is reset, it drives the knocking column to knock back and forth on the outer wall of the heating component to generate vibration.

[0009] According to the above technical solution, the thread picking device includes two rotating wheels, an arc groove rod and several picking plates. The inner walls of the two rotating wheels are rotatably installed on the left and right sides of the heating component respectively. The left and right sides of the arc groove rod are fixedly installed on the inner wall of the rotating wheel, and the arc groove of the arc groove rod is opened at the edge of the outer wall. Torsion springs are arranged inside the several picking plates, and the side of the picking plates close to the heating component is hinged to the outer wall surface of the arc groove rod through a torsion spring. An anti-difference device is arranged above the arc groove rod to avoid different results when cutting materials of different hardness. The heating component drives the rotating wheel to move synchronously. When the rotating wheel rotates, it drives the arc groove rod to rotate. When the arc groove rod rotates, it drives the picking plate to rotate. When the picking plate rotates, it picks up or contacts the raised thread heads on the surface of the material.

[0010] According to the above technical solution, the thread picking device also includes several arc plates, rubber blocks, stirring rods, sliding rings and oblique rods. The backs of several arc plates are fixedly installed on the concave surface of the stirring plate, the backs of the rubber blocks are fixedly installed on the front of the arc plate, and the concave surface of the rubber block is in contact with the outer surface of the arc groove rod. The stirring rod is fixedly installed on the outer surface of the arc groove rod through the bottom of the limiting plate. The inner wall of the sliding ring is sleeved and slidably installed on the outer wall surface of the stirring rod. The left and right sides of the oblique rod are respectively hinged between the right side of the sliding ring and the left side of the rubber block. When the stirring plate hook pulls the raised line segment, a pulling force is generated. At this time, the stirring plate moves toward the direction close to the material surface, the stirring plate pulls the arc plate to move synchronously, and the arc plate pulls the rubber block to move synchronously; when the rubber block slides and resets, it drives the oblique rod to move back and forth, and the oblique rod drives the sliding ring to slide synchronously along the outer wall of the stirring rod. The stirring rod generates a rotational force through the restriction of the spiral groove on the outer wall and starts to rotate.

[0011] The cam is secured to the base by the L-shaped guide rails, and the cam is secured to the base by the L-shaped guide rails.

[0012] According to the above technical solution, the anti-difference device also includes a double-rod light-transmitting plate and a friction column. The double-rod light-transmitting plate is fixedly installed on the inner wall of the swing plate at one end away from the circular groove blade, and the friction column is slidably installed on the vertical surface of the double-rod light-transmitting plate at one end away from the circular groove blade through a spring, and the outer wall of the circular groove blade is located on the movement trajectory of the friction column. The swing plate drives the double-rod light-transmitting plate to swing synchronously; the double-rod light-transmitting plate drives the friction column to move synchronously. When the friction column contacts the outer wall of the circular groove blade, it is polished by the centrifugal force of the rotation of the circular groove blade to ensure sharpness.

[0013] According to the above technical solution, the anti-difference device also includes a guide iron plate and T-shaped cotton. The bottom of the guide iron plate is hinged on the outer wall surface of the friction column, and the bottom of the T-shaped cotton is hinged on the top of the arc surface of the guide iron plate, and the T-shaped cotton is slidably connected to the inner wall of the double-rod light-transmitting plate. The friction column drives the guide iron plate to move synchronously. When the guide iron plate contacts the inner wall of the circular groove blade, a resistance force is generated and it is offset toward the friction column. When the circular groove blade resists the friction column and shrinks toward the inside of the double-rod light-transmitting plate, the resistance force between the guide iron plate and the circular groove blade is reduced; when the guide iron plate is offset and reset, it drives the T-shaped cotton to rub up and down along the vertical surface of the double-rod light-transmitting plate.

[0014] The present invention provides a regenerated cellulose fiber fabric processing device, which has the following beneficial effects: (1) The present invention sets an anti-wrinkle device, and cooperates with an electric telescopic top plate, a cutting assembly and a circular groove blade. The circular groove blade can effectively cut materials of different thicknesses through the electric telescopic top plate to prevent the material from being damaged due to insufficient cutting depth; the U-shaped frame and the heating assembly are coordinated to enable the heating assembly to iron and stretch the material to ensure that the material is flat and has tension, which facilitates the circular groove blade to cut the material to prevent uneven cut surfaces; at the same time, the heating assembly pushes the floating yarn attached to the surface of the material to prevent the floating yarn from adhering to the outer wall of the circular groove blade; the transmission rod, the push plate, the reset plate and the knocking column cooperate to cause the push plate to push the floating yarn or other dirt attached to the surface of the material to a farther range through friction resistance, thereby preventing the dirt from being lifted up and attached again; at the same time, the reset plate causes the push plate to increase the number of scraping times within the same time to ensure the cleanliness of the material surface; and the knocking column causes the heating assembly and the push plate to improve the removal effect of the sticky attachments on the material surface through slight vibration.

[0015] (2) The present invention sets up a thread picking device, and cooperates with a heating component, a rotating wheel, an arc groove rod and a stirring plate. The stirring plate cuts off the thread ends through a sharp edge and a rotating centrifugal force, thereby reducing the exposed part of the thread ends, avoiding the pulling and twitching of the thread ends by the circular groove blade during cutting, and preventing the overall tightness of the material from being reduced; the arc plate and the rubber block cooperate, and the rubber block reduces the offset amplitude of the stirring plate, thereby preventing the stirring plate from being difficult to reset, and at the same time provides a limiting friction resistance when the stirring plate cuts the thread ends, thereby accelerating the cutting and removing speed of the stirring plate for the thread ends; the stirring rod, the sliding ring and the inclined rod cooperate, and the stirring rod drives away the picked thread ends, thereby preventing the thread ends from falling to the hinge of the stirring plate, thereby avoiding the obstruction of the offset cutting movement of the stirring plate, and preventing the thread ends from being damaged by repeated pulling.

[0016] (3) The present invention sets up an anti-difference device, and cooperates with an L-shaped rod, a limit rod, a swing plate and an ultraviolet lamp. When the swing plate swings, the fine flocs raised by cutting are blocked to avoid blocking the workers' sight and affecting the cutting accuracy; at the same time, the ultraviolet lamp irradiates and disinfects the parts to prevent the materials from being corroded by the sweat of the workers in many processes and carrying infectious pathogens, and to avoid spreading infectious pathogens to different batches of materials and increasing the subsequent maintenance work; through the cooperation of the double-rod light-transmitting plate, the friction column, the guide iron plate and the T-shaped cotton, the double-rod light-transmitting plate can centrally irradiate the circular groove blade. , improving the precision of sterilization; at the same time, it avoids the contamination of dye on the surface of the circular groove blade, avoids the continuous fermentation of chemical components in the dye, and mixes with pathogens to enhance infectiousness; it also makes the friction column polish the circular groove blade to ensure sharpness, prevent dyeing from causing changes in the hardness or softness of the edge of the fabric, and avoid breakage or fuzzing of the edge of the material during cutting; and the guiding iron plate dynamically guides the inner wall of the circular groove blade to avoid the attachment of fine velvet floating yarn to the inner wall affecting the smoothness of cutting; and the T-shaped cotton prevents the floating yarn from blocking the irradiation light of the ultraviolet lamp, thereby avoiding the reduction of the concentrated irradiation intensity of the circular groove blade. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 A schematic diagram of the present invention as a whole; Figure 2 This is a schematic diagram of a partial structure from the bottom perspective of the present invention; Figure 3 This is a schematic diagram of the anti-wrinkle device of the present invention; Figure 4 This is an enlarged schematic diagram of the structure at point A in the anti-wrinkle device of the present invention; Figure 5 This is a schematic diagram of the thread taking-up device of the present invention; Figure 6 This is an enlarged schematic diagram of the structure at point B in the thread take-up device of the present invention; Figure 7 Schematic diagram of the anti-difference device of the present invention; Figure 8This is a schematic diagram of an enlarged structure at point C in the anti-discrepancy device of the present invention.

[0018] In the figure: 1. Device body; 2. Support legs; 3. Transmission assembly; 4. Thread picking device; 41. Rotating wheel; 42. Arc groove rod; 43. Picking plate; 44. Arc plate; 45. Rubber block; 46. Stirring rod; 47. Sliding ring; 48. Diagonal rod; 5. Anti-difference device; 51. L-shaped rod; 52. Limit rod; 53. Swing plate; 54. UV lamp; 55. Double-rod light-transmitting plate; 56. Friction column; 57. Guide iron plate; 58. T-shaped cotton; 6. Electric telescopic top plate; 7. Cutting assembly; 8. Circular groove blade; 9. U-shaped frame; 10. Heating assembly; 11. Transmission rod; 12. Push plate; 13. Reset plate; 14. Knocking column. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0020] See also Figures 1-8 One embodiment of the present invention is: a regenerated cellulose fiber fabric processing device, including a device body 1, a feeding assembly is set on the left side of the top of the device body 1, a support leg 2 is set at the bottom corner of the device body 1, a transmission assembly 3 is set on the top of the device body 1, and the transmission assembly 3 is connected through an external pulley, an electric telescopic top plate 6 is fixedly installed on the top edge of the device body 1, a cutting assembly 7 is fixedly installed at the top center of the inner wall of the electric telescopic top plate 6, a circular groove blade 8 is rotatably installed inside the cutting assembly 7, two U-shaped frames 9 are hinged on the top of the electric telescopic top plate 6, and the bottom of the U-shaped frame 9 is hinged. There is a heating component 10, and a thread picking device 4 for removing the protruding thread ends of the material is provided on the side of the heating component 10 near the center of the device body 1. The circular groove blade 8 can effectively cut materials of different thicknesses through the electric telescopic top plate 6 to prevent the material from being damaged due to insufficient cutting depth; the bottom plane of the heating component 10 irons and stretches the surface of the material to ensure that the material is flat and has tension, which facilitates the circular groove blade 8 to cut the material to avoid uneven cut surfaces; at the same time, the heating component 10 pushes the floating yarn attached to the surface of the material away from the center of the material to prevent the floating yarn from adhering to the outer wall of the circular groove blade 8.

[0021] The two U-shaped frames 9 are symmetrically distributed around the axis of the electric telescopic top plate 6, and the U-shaped frames 9 are located at the periphery of the cutting component 7. A sliding groove is provided on the side of the heating component 10 away from the center of the device body 1, and the bottom of the heating component 10 is flat.

[0022] Two transmission rods 11 are hinged inside the slide groove of the heating component 10, and the transmission rods 11 are symmetrically distributed around the axis of the heating component 10. A push plate 12 is hinged at one end of the transmission rod 11 away from the heating component 10, and a reset plate 13 is fixedly installed at the inclined surface of the push plate 12. A knocking column 14 is fixedly installed on the arc surface of the outer wall of the reset plate 13, and the vertical surface of the heating component 10 away from the device body 1 is in contact with the knocking column 14. The push plate 12 drives the transmission rod 11 to deviate and push away from the center of the heating component 10, and the pushing range for floating yarn or other dirt attached to the surface of the material is farther, avoiding the secondary attachment of dirt; the reset plate 13 prompts the push plate 12 to increase the number of scraping times within the same length of time to ensure the cleanliness of the material surface; the knocking column 14 reciprocates and knocks the heating component 10 to generate vibration, and through the conduction of vibration force, the heating component 10 and the push plate 12 are prompted to improve the removal effect of the sticky attachments on the surface of the material through slight vibration.

[0023] When in use, when the material is being processed, the material is transferred to the surface of the transmission component 3 through the feeding component, and the transmission component 3 is driven to operate by the external pulley. The transmission component 3 conveys the material to the bottom of the electric telescopic top plate 6, and the electric telescopic top plate 6 is started. The telescopic end of the electric telescopic top plate 6 drives the cutting component 7 to move up and down, and the circular groove blade 8 is driven by the cutting component 7 to rotate and cut the material. At this time, the circular groove blade 8 can effectively cut materials of different thicknesses through the electric telescopic top plate 6 to prevent the material from being damaged due to insufficient cutting depth; the telescopic end of the electric telescopic top plate 6 drives the U-shaped frame 9 to move up and down, and the U-shaped The frame 9 drives the heating component 10 to move synchronously. When the heating component 10 contacts the surface of the material, a resistance force is generated, thereby moving away from the center of the transmission component 3 and resetting. The bottom plane of the heating component 10 irons and stretches the surface of the material to ensure that the material is flat and has tension, which facilitates the circular groove blade 8 to cut the material to prevent uneven cut surfaces; at the same time, the heating component 10 pushes the floating yarn attached to the surface of the material away from the center of the material to prevent the floating yarn from adhering to the outer wall of the circular groove blade 8; the heating component 10 drives the transmission rod 11 to move synchronously, and the transmission rod 11 drives the push plate 12 to slide along the surface of the material. The friction resistance causes the push plate 12 to drive the transmission rod 11 to deviate and push away from the center of the heating component 10, and the pushing range of floating yarn or other dirt attached to the surface of the material is further, avoiding the dirt from being lifted up and attached again; when the push plate 12 deviates, it drives the reset plate 13 to deform synchronously. When the push plate 12 pushes the attachments on the surface of the material, the friction resistance between the push plate 12 and the material is reduced. At this time, the reset plate 13 is reset by its own elasticity. The reset plate 13 drives the push plate 12 to swing back and forth and scrape the surface of the material, prompting the push plate 12 to increase the number of scraping times within the same time length to ensure the cleanliness of the material surface; when the reset plate 13 is deformed, it drives the knocking column 14 away from the surface of the heating component 10. When the reset plate 13 is reset, it drives the knocking column 14 to knock back and forth on the outer wall of the heating component 10 to generate vibration. Through the conduction of vibration force, the heating component 10 and the push plate 12 are prompted to improve the removal effect of the sticky attachments on the surface of the material through slight vibration.

[0024] See also Figures 1-8 , based on the above embodiment, another embodiment of the present invention further includes a thread taking-up device 4; The thread picking device 4 includes two rotating wheels 41, an arc groove rod 42 and several picking plates 43. The inner walls of the two rotating wheels 41 are rotatably installed on the left and right sides of the heating component 10 respectively. The left and right sides of the arc groove rod 42 are fixedly installed on the inner wall of the rotating wheel 41, and the arc groove of the arc groove rod 42 is opened at the edge of the outer wall. Torsion springs are arranged inside the several picking plates 43, and the side of the picking plates 43 close to the heating component 10 is hinged to the outer wall surface of the arc groove rod 42 through a torsion spring. An anti-difference device 5 is arranged above the arc groove rod 42 to avoid different results when cutting materials of different hardness; the thread end is cut off by the sharp edge of the picking plate 43 and the rotating centrifugal force, reducing the exposed part of the thread end, avoiding the pulling and twitching of the thread end by the circular groove blade 8 during cutting, preventing the overall tightness of the material from being reduced, and ensuring the quality of the finished material.

[0025] The thread picking device 4 also includes a plurality of arc plates 44, rubber blocks 45, stirring rods 46, sliding rings 47 and inclined rods 48. The backs of the arc plates 44 are fixedly mounted on the concave surface of the stirring plate 43. The backs of the rubber blocks 45 are fixedly mounted on the front of the arc plates 44, and the concave surfaces of the rubber blocks 45 are in contact with the outer surface of the arc groove rod 42. The stirring rod 46 is fixedly mounted on the outer surface of the arc groove rod 42 through the bottom of the limit plate. The inner wall of the sliding ring 47 is sleeved and slidably mounted on the outer wall surface of the stirring rod 46. The left and right sides of the inclined rod 48 are respectively hinged on the sliding ring 4 Between the right side of 7 and the left side of the rubber block 45, the rubber block 45 reduces the offset of the stirring plate 43 to prevent the stirring plate 43 from being difficult to reset, and provides limiting friction resistance when the stirring plate 43 cuts the thread ends, thereby accelerating the cutting and removing speed of the thread ends by the stirring plate 43; the stirring rod 46 expels the thread ends picked up by the stirring plate 43 to prevent the thread ends from falling to the hinge of the stirring plate 43, thereby avoiding obstruction of the offset cutting movement of the stirring plate 43, and preventing damage to the thread ends caused by repeated pulling, thereby reducing the processing accuracy of the finished material.

[0026] When in use, the heating component 10 drives the rotating wheel 41 to move synchronously, and the rotating wheel 41 starts to rotate due to the friction resistance with the surface of the material; when the rotating wheel 41 rotates, it drives the arc groove rod 42 to rotate, and when the arc groove rod 42 rotates, it drives the stirring plate 43 to rotate, and when the stirring plate 43 rotates, it stirs up or contacts the raised thread ends on the surface of the material, and cuts off the thread ends through the sharp edge of the stirring plate 43 and the centrifugal force of rotation, reducing the exposed part of the thread ends, avoiding the pulling and twitching of the thread ends by the circular groove blade 8 when cutting, preventing the overall tightness of the material from being reduced, and ensuring the quality of the finished material; when the stirring plate 43 hooks and pulls the raised line segment, it generates tension, and at this time the stirring plate 43 moves toward the surface of the material, and the stirring plate 43 drives the arc plate 44 to move synchronously, and the arc plate 44 drives the rubber block 45 to move synchronously. 45 contacts the outer wall of the arc groove rod 42 to generate friction resistance, which reduces the offset amplitude of the stirring plate 43, avoids the difficulty of resetting the stirring plate 43, and provides limiting friction resistance when the stirring plate 43 cuts the thread end, thereby accelerating the cutting and removing speed of the thread end by the stirring plate 43; when the rubber block 45 slides and resets, it drives the inclined rod 48 to move back and forth, and the inclined rod 48 drives the sliding ring 47 to slide synchronously along the outer wall of the stirring rod 46, and the stirring rod 46 generates a rotational force restricted by the spiral groove on the outer wall and starts to rotate. When the stirring rod 46 rotates, the centrifugal force is used to expel the thread end picked up by the stirring plate 43 to prevent the thread end from falling to the hinge of the stirring plate 43, thereby avoiding obstruction of the offset cutting movement of the stirring plate 43 and preventing damage to the thread end caused by multiple pulling, thereby reducing the processing accuracy of the finished material.

[0027] See also Figures 1-8 , based on the above embodiment, another embodiment of the present invention further includes an anti-difference device 5; The anti-difference device 5 includes two L-shaped rods 51, a limit rod 52, a swing plate 53 and an ultraviolet lamp 54. The front bottom surfaces of the two L-shaped rods 51 are slidably mounted inside the arc groove of the arc groove rod 42, and the electric telescopic top plate 6 of the L-shaped rod 51 is symmetrically distributed along the axis. The front top surface of the limit rod 52 is hinged to the back of the heating component 10, and the bottom of the limit rod 52 is fixedly mounted on the bottom of the inner wall of the L-shaped rod 51. The top of the swing plate 53 is hinged at the bottom edge of the cutting component 7, and the bottom of the swing plate 53 is slidably mounted on the top of the L-shaped rod 51. The ultraviolet lamp 54 is fixedly mounted on the vertical surface of the swing plate 53 away from the center of the cutting component 7. When the swing plate 53 swings, it blocks the fine cotton raised by cutting to avoid blocking the staff's line of sight and affecting the cutting accuracy; the ultraviolet lamp 54 irradiates and disinfects the components on the top of the inner wall of the electric telescopic top plate 6 to prevent the materials from being eroded by the sweat of the staff in many processes and carrying infectious bacteria, and to prevent the cutting component 7 and other components in contact with the materials from being contaminated, so as to avoid spreading infectious bacteria to different batches of materials and increasing the later maintenance work.

[0028] The anti-difference device 5 also includes a double-rod light-transmitting plate 55 and a friction column 56. The end of the double-rod light-transmitting plate 55 away from the circular groove blade 8 is fixedly installed on the inner wall of the swing plate 53, and the end of the friction column 56 away from the circular groove blade 8 is slidably installed on the vertical surface of the double-rod light-transmitting plate 55 through a spring, and the outer wall of the circular groove blade 8 is located on the movement trajectory of the friction column 56. The double-rod light-transmitting plate 55 concentrates the irradiation on the circular groove blade 8 to improve the sterilization and refinement; at the same time, it prevents the chemical components in the dye from continuing to ferment and mixing with pathogens to enhance the infectivity; the friction column 56 polishes the circular groove blade 8 to ensure sharpness, prevents dyeing from causing changes in the hardness or softness of the edge of the cloth, and avoids breakage or fuzzing of the edge of the material during cutting.

[0029] The anti-difference device 5 also includes a guide iron plate 57 and a T-shaped cotton 58. The bottom of the guide iron plate 57 is hinged to the outer wall surface of the friction column 56, and the bottom of the T-shaped cotton 58 is hinged to the top of the arc surface of the guide iron plate 57. The T-shaped cotton 58 is slidably connected to the inner wall of the double-rod light-transmitting plate 55. The guide iron plate 57 dynamically guides the inner wall of the circular groove blade 8 to prevent fine floating yarn from adhering to the inner wall and affecting the cutting smoothness; the T-shaped cotton 58 prevents the floating yarn from adhering to block the irradiation light of the ultraviolet lamp 54, thereby avoiding a reduction in the concentrated irradiation intensity of the circular groove blade 8.

[0030] When in use, when the arc groove rod 42 rotates, the arc groove restricts the L-shaped rod 51, prompting the L-shaped rod 51 to slide back and forth inside the arc groove. The L-shaped rod 51 is limited by the limiting effect of the limiting rod 52, prompting the heating component 10 to move with the L-shaped rod 51 to move synchronously. When the L-shaped rod 51 slides back and forth at the bottom of the swing plate 53, it prompts the swing plate 53 to swing toward the center of the cutting component 7 and reset. When the swing plate 53 swings, it blocks the fine cotton raised by cutting to avoid blocking the staff's sight and affecting the cutting accuracy; the swing plate 53 drives the purple The outer light 54 moves synchronously, and the ultraviolet lamp 54 irradiates and disinfects the top parts of the inner wall of the electric telescopic top plate 6 to prevent the materials from being eroded by the sweat of the workers in many processes and carrying infectious bacteria, and prevents the cutting components 7 and other parts in contact with the materials from being contaminated, and avoids spreading infectious bacteria to different batches of materials and increasing the later maintenance work; the swing plate 53 drives the double-rod light-transmitting plate 55 to swing synchronously, and the double-rod light-transmitting plate 55 irradiates the circular groove blade 8 in a concentrated manner to improve the sterilization and refinement; at the same time, it prevents the circular groove blade 8 from cutting and drying. When the material is contaminated with dye for a long time, the chemical components in the dye continue to ferment and mix with the pathogens to enhance the infectiousness; the double-rod light-transmitting plate 55 drives the friction column 56 to move synchronously. When the friction column 56 contacts the outer wall of the circular groove blade 8, the circular groove blade 8 is rotated by the centrifugal force to grind it to ensure sharpness, preventing the hardness or softness of the edge of the fabric from changing due to dyeing, resulting in breakage or fuzzing of the edge of the material during cutting; the friction column 56 drives the guide iron plate 57 to move synchronously, and when the guide iron plate 57 contacts the inner wall of the circular groove blade 8, a resistance force is generated. It shifts toward the direction close to the friction column 56. When the circular groove blade 8 resists the friction column 56 and shrinks toward the inside of the double-rod light-transmitting plate 55, the resistance between the guide iron plate 57 and the circular groove blade 8 is reduced. At this time, the guide iron plate 57 dynamically guides the inner wall of the circular groove blade 8 to prevent fine floating yarn from adhering to the inner wall and affecting the cutting smoothness; when the guide iron plate 57 shifts and resets, it drives the T-shaped cotton 58 to rub up and down along the vertical surface of the double-rod light-transmitting plate 55 to prevent floating yarn from adhering to and blocking the irradiation light of the ultraviolet lamp 54, thereby avoiding a reduction in the concentrated irradiation intensity of the circular groove blade 8.

[0031] The above description is only a preferred specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any technician familiar with the technical field, within the technical scope disclosed by the present invention, who makes equivalent replacements or changes based on the technical solution and inventive concept of the present invention, should be covered by the scope of protection of the present invention.

Claims

1. A regenerated cellulose fiber fabric processing device, comprising a device body (1), a feed assembly being provided on the left side of the top of the device body (1), supporting legs (2) being provided at the corners of the bottom of the device body (1), a transmission assembly (3) being provided on the top of the device body (1), and the transmission assembly (3) being connected via an external pulley, characterized in that: An electric telescopic top plate (6) is fixedly installed at the top edge of the device body (1), a cutting assembly (7) is fixedly installed at the top center of the inner wall of the electric telescopic top plate (6), a circular groove blade (8) is rotatably installed inside the cutting assembly (7), two U-shaped frames (9) are hinged on the top of the electric telescopic top plate (6), a heating assembly (10) is hinged on the bottom of the U-shaped frame (9), and a thread picking device (4) for removing protruding thread ends of the material is provided on the side of the heating assembly (10) close to the center of the device body (1).

2. The regenerated cellulose fiber fabric processing device according to claim 1, characterized in that: The two U-shaped frames (9) are symmetrically distributed about the axis of the electric telescopic top plate (6), and the U-shaped frames (9) are located at the periphery of the cutting assembly (7). The heating assembly (10) is provided with a slide groove on the side away from the center of the device body (1), and the bottom of the heating assembly (10) is flat.

3. The regenerated cellulose fiber fabric processing device according to claim 2, characterized in that: Two transmission rods (11) are hinged inside the sliding groove of the heating component (10), and the transmission rods (11) are symmetrically distributed with respect to the axis of the heating component (10). A push plate (12) is hinged at one end of the transmission rod (11) away from the heating component (10), a reset plate (13) is fixedly installed at the inclined surface of the push plate (12), a knocking column (14) is fixedly installed on the arc surface of the outer wall of the reset plate (13), and the vertical surface of the side of the heating component (10) away from the device body (1) contacts the knocking column (14).

4. The regenerated cellulose fiber fabric processing device according to claim 3, characterized in that: The thread picking device (4) includes two rotating wheels (41), an arc groove rod (42) and a plurality of stirring plates (43). The inner walls of the two rotating wheels (41) are rotatably mounted on the left and right sides of the heating component (10), respectively. The left and right sides of the arc groove rod (42) are fixedly mounted on the inner wall of the rotating wheel (41), and the arc groove of the arc groove rod (42) is opened at the edge of the outer wall. A torsion spring is provided inside the plurality of stirring plates (43), and the side of the stirring plates (43) close to the heating component (10) is hinged to the outer wall surface of the arc groove rod (42) through the torsion spring. An anti-difference device (5) is provided above the arc groove rod (42) for preventing different results from being produced when cutting materials of different hardness.

5. The regenerated cellulose fiber fabric processing device according to claim 4, characterized in that: The thread picking device (4) further comprises a plurality of arc plates (44), a rubber block (45), a stirring rod (46), a sliding ring (47) and an inclined rod (48). The backs of the plurality of arc plates (44) are fixedly mounted on the concave surface of the stirring plate (43). The backs of the rubber block (45) are fixedly mounted on the front of the arc plate (44), and the concave surface of the rubber block (45) contacts the outer surface of the arc groove rod (42). The stirring rod (46) is fixedly mounted on the outer surface of the arc groove rod (42) through the bottom of the limiting plate. The inner wall of the sliding ring (47) is sleeved and slidably mounted on the outer wall surface of the stirring rod (46). The left and right sides of the inclined rod (48) are respectively hinged between the right side of the sliding ring (47) and the left side of the rubber block (45).

6. The regenerated cellulose fiber fabric processing device according to claim 5, characterized in that: The anti-difference device (5) includes two L-shaped rods (51), a limiting rod (52), a swing plate (53) and an ultraviolet lamp (54). The bottom fronts of the two L-shaped rods (51) are both slidably mounted inside the arc groove of the arc groove rod (42), and the electric telescopic top plate (6) of the L-shaped rod (51) is symmetrically distributed about the axis. The top front of the limiting rod (52) is hinged to the back of the heating component (10), and the bottom of the limiting rod (52) is fixedly mounted on the bottom of the inner wall of the L-shaped rod (51). The top of the swing plate (53) is hinged to the bottom edge of the cutting component (7), and the bottom of the swing plate (53) is slidably mounted on the top of the L-shaped rod (51). The ultraviolet lamp (54) is fixedly mounted on the vertical surface of the swing plate (53) away from the center of the cutting component (7).

7. The regenerated cellulose fiber fabric processing device according to claim 6, characterized in that: The anti-difference device (5) further comprises a double-rod light-transmitting plate (55) and a friction column (56), wherein one end of the double-rod light-transmitting plate (55) away from the circular groove blade (8) is fixedly mounted on the inner wall of the swing plate (53), and one end of the friction column (56) away from the circular groove blade (8) is slidably mounted inside the vertical surface of the double-rod light-transmitting plate (55) via a spring, and the outer wall of the circular groove blade (8) is located on the motion trajectory of the friction column (56).

8. The regenerated cellulose fiber fabric processing device according to claim 7, characterized in that: The anti-difference device (5) further comprises a guide iron plate (57) and a T-shaped cotton (58), wherein the bottom of the guide iron plate (57) is hinged to the outer wall surface of the friction column (56), the bottom of the T-shaped cotton (58) is hinged to the top of the arc surface of the guide iron plate (57), and the T-shaped cotton (58) is slidably connected to the inner wall of the double-rod light-transmitting plate (55).

Images