Production and storage equipment for lace braid

Abstract

The invention relates to the technical field of textile machinery, in particular to production and storage equipment for lace braids, aims to solve the technical problem of overcoming the defects of winding operation in the prior art, and is mainly realized through the following technical scheme that the production and storage equipment for the lace braids comprises a rack and a feeding frame, a weaving structure is arranged on the machine frame, a plurality of woven belts are produced by the weaving structure, the weaving machine further comprises an arranging device, a processing device and a winding device, the arranging device comprises a guiding piece and a carding piece, the processing device comprises a cleaning device and a hot drying device, and the winding device comprises a first winding piece, a plurality of second winding pieces and a third winding piece. The winding device is further connected with a corresponding driving device, the woven belt is wound after being subjected to surface grinding, dust removal, hot drying and flattening, surface wrinkles are effectively reduced, the winding quality is improved, the winding device achieves multi-section type multi-specification winding operation, and the winding machining efficiency is effectively improved.

Description

Technical Field

[0001] The invention relates to the technical field of textile machinery, and in particular to a production and storage device for lace ribbons. Background Art

[0002] The ribbon loom is a machine that can weave ribbons of various widths. It is suitable for weaving various round or flat inelastic and elastic cords. It mainly weaves various cords, shoelaces, elastic bands, decorative bands, high-tensile bands, curtain bands, fibers and other high-quality products. The production of laces such as bed skirts and tablecloths is also inseparable from the ribbon loom.

[0003] After weaving is completed, the existing webbing machines directly export the webbing machines and transport them uniformly. Therefore, multiple webbings will be mixed together for transportation. This method increases the workload of subsequent operators, and the webbings need to be separated and wound up in sequence; or multiple winding drums are directly set at the end for direct winding. However, since the woven webbing is generally rough and uneven in surface, wrinkles are prone to appear when it is directly wound up. At the same time, the webbing width is small, and it is easy to cause winding dislocation during winding, resulting in poor quality of the final webbing roll. In addition, since the webbing machine weaves multiple webbings at one time, it is not conducive to replacing the winding drum individually when winding them uniformly with a winding drum, and the winding drum cannot be adjusted individually, resulting in cumbersome replacement of the overall winding drum, which can easily affect the processing efficiency. Summary of the invention

[0004] Therefore, the technical problem to be solved by the present invention is to overcome the defects of production quality and winding operation in the prior art, thereby providing a production and storage device for lace ribbons.

[0005] The above technical objectives of the present invention are achieved through the following technical solutions:

[0006] A production and storage device for lace webbings, comprising a frame and a feeding frame, wherein a weaving structure is arranged on the frame, wherein the weaving structure produces a plurality of even-numbered weaving belts and the number of weaving belts is not less than six, wherein the plurality of weaving belts are arranged in an array along the width direction of the frame and are conveyed along the length direction of the frame, wherein a plurality of conveying rollers are further arranged at the end of the weaving structure, wherein the conveying rollers convey the weaving belts, wherein the feeding frame is arranged on a side of the frame close to the feed, wherein the feeding frame comprises a frame body, a plurality of feeding rods and a plurality of layering rods, wherein the feeding rods and the layering rods are both arranged on the frame body and the axes are arranged in parallel, and further comprising:

[0007] A finishing device, the finishing device comprising a guide member and a combing member, the guide member being arranged at the discharge end of the weaving structure, the guide member comprising a plurality of guide rollers and a limiter, the guide roller being arranged below the limiter, a plurality of pairs of guide rollers corresponding to the weaving belts being arranged, and the axes of the guide rollers being perpendicular to the upper surface of the weaving belts, at least one guide roller being arranged on both sides of each weaving belt, a guide groove being arranged on the guide rollers, a combing member being arranged below the guide rollers, the combing member comprising a combing plate and a combing drive, and the combing drive controlling the rotation of the combing plate;

[0008] A processing device, the processing device is arranged below the finishing device, the processing device includes a cleaning device and a hot drying device, a cleaning device is installed below the discharge end of the combing member, the cleaning device is arranged in the frame and includes a grinding member and a dust removal member, the grinding member includes a grinding roller arranged oppositely and a grinding drive driving the grinding roller to rotate, the dust removal member is arranged at the discharge end of the grinding member, the braided belt passes through the gap between the two grinding rollers and passes through the dust removal member before entering the hot drying device, the hot drying device is arranged on the frame and includes two hot drying rollers and a pressure member, and the pressure member is arranged beside the hot drying roller;

[0009] A winding device, wherein the winding device is arranged at the discharge end of the processing device and is symmetrically arranged about the frame, the winding device includes a first winding member, a plurality of second winding members and a third winding member which are arranged in sequence, and the winding device is also connected to a corresponding driving device, wherein the driving device includes a first driving member, a second driving member and a third driving member, the first driving member controls the movement of the first winding member, the second driving member controls the movement of the second winding member, and the third driving member controls the movement of the third winding member, the first winding member winds up the two outermost braided belts, the third winding member winds up the two braided belts close to the center line of the frame in the width direction, and the second winding member winds up the remaining braided belts.

[0010] By adopting the above technical scheme, a sorting device and a processing device are arranged at the discharge end of the weaving structure, and the woven belt produced by weaving is first limited and guided to avoid dislocation and overlap during the transmission process. The surface of the woven belt is initially smoothed when it is transmitted through the combing plate. The combed woven belt enters the processing device for surface treatment to reduce the problem of wrinkles and burrs. It is first polished and extruded by a polishing piece, and then the surface lint and polishing dust are adsorbed by a dust removal piece. After that, it enters the hot drying device for surface smoothing. Two hot drying rollers are provided, which can perform double-sided hot drying and smoothing operations on the upper and lower surfaces of the woven belt, and a pressure piece is provided to ensure that the woven belt can be close to the hot drying roller, thereby effectively ensuring the hot drying and flattening effect of the woven belt, achieving the reduction The purpose of reducing surface wrinkles; after the braided belt is processed by the processing device, it enters the winding device for winding. The winding device is divided into a first winding piece, a second winding piece and a third winding piece. Multiple braided belts are classified and wound in sections. The outermost first winding piece realizes reciprocating winding, the innermost third winding piece realizes cutting and locking edge strip winding, the second winding piece directly winds, and the outermost first winding piece reciprocates and moves horizontally when winding to reduce the impact on the inner side. The second winding piece in the middle section directly winds up as a conventional winding operation, and the innermost third winding piece is cut into strips before winding, realizing multi-section and multi-specification winding operations, avoiding entanglement of the webbing winding and meeting the one-time production of multiple product specifications, effectively improving the winding processing efficiency.

[0011] After the weaving structure produces the woven belt, it is directly guided through the finishing device and enters the processing device for processing before completing the winding. After the woven belt is produced, it is first limited in the vertical direction at the limit plate to prevent the woven belt from jumping caused by the front-end production. Then the guide roller limits the longitudinal position to prevent the woven belt from sliding left and right. Then it enters the combing plate for preliminary flattening and dispersion, and the grinding parts and hot drying devices complete the surface treatment to facilitate the subsequent winding operation.

[0012] The above process of weaving and classification winding is realized in one device, which is convenient and hassle-free. The finished rolls are provided with three types (reciprocating winding, direct winding and cutting into strips) to meet the needs of multiple products. The various winding structures are staggered and do not affect each other, avoiding structural interference, affecting the winding and conveying, and ensuring the winding quality.

[0013] Furthermore, the limit member is located above the outside of the discharge end of the weaving structure and its lower surface contacts the upper surface of the woven belt. The limit member includes a limit frame and a limit plate. The limit plate is vertically slidably arranged in the limit frame. The limit frame is provided with a sliding groove corresponding to the limit plate. A buffer spring is also arranged in the sliding groove. One end of the buffer spring is fixed to the top of the limit plate, and the other end is fixed to the inner wall of the sliding groove. A plurality of limit wheels are installed at the bottom of the limit plate corresponding to the woven belt. The limit wheels are arranged in an array along the length direction of the limit plate and the axis is parallel to the length direction of the limit plate. The limit wheel is positioned and rotatably installed at the bottom of the limit plate.

[0014] By adopting the above technical scheme, the woven belt produced by the weaving structure has a large vertical jump at the front end because it is still in the weaving operation process. A limit plate sliding in the limit frame is provided to slow down the vertical jump, and a buffer spring slows down the vibration of the woven belt conveying. The limit wheel is provided corresponding to the woven belt, and the rolling transmission initially rubs against the surface of the woven belt to achieve initial flatness after weaving is completed, which is also convenient for subsequent grinding operations.

[0015] Furthermore, the combing plate includes a guide plate and a supporting plate, the guide plate is slidably arranged above the supporting plate, a supporting groove corresponding to the woven belt is opened in the supporting plate, a guide groove corresponding to the woven belt is also opened in the guide plate, the supporting groove and the guide groove are arranged opposite to each other, a plurality of arc-shaped guide plates are arranged in an array along the conveying direction of the woven belt in the guide groove, a guide spring is also arranged above the guide plate, one end of the guide spring is fixed to the top of the guide plate, and the other end is fixed inside the guide groove; the combing drive is arranged in the frame and is a telescopic cylinder, and the output end of the combing drive is hinged to the bottom of the supporting plate.

[0016] By adopting the above technical scheme, the woven belt passing through the guide member enters the combing member for combing and striping operations, the guide groove and the bearing groove between the guide plate and the bearing plate constitute a channel for the woven belt to pass through, the arc-shaped guide plate squeezes and limits the upper surface of the woven belt, and the bearing groove and the guide groove limit the woven belt to the left and right to prevent the woven belt from shifting sideways during transportation; the combing drive controls the bearing plate to rotate relative to the frame, so that the inclination angle of the bearing plate can be adjusted according to the conveying speed of the woven belt to avoid excessive pulling of the woven belt.

[0017] Furthermore, a grinding cover is provided outside the grinding roller, a discharge port is opened at the bottom of the grinding cover, the grinding drive is arranged at one end of the grinding roller, the grinding drive includes a grinding motor and two grinding gears meshing with each other, the grinding motor drives one of the grinding gears to rotate, the grinding gear is arranged outside the grinding cover, and the dust removal parts are symmetrically arranged on both sides of the bottom of the discharge port.

[0018] By adopting the above technical scheme, the grinding hood reduces the emission of flying dust during grinding, ensuring the environmental hygiene on site; the grinding motor drives a grinding gear to rotate and drives two grinding rollers to rotate relative to each other, thereby realizing the extrusion grinding operation and grinding of both sides of the woven belt; the dust removal part is an exhaust device and is arranged at the discharge port of the grinding hood, so as to realize the surface cleaning operation of the woven belt after grinding and improve the cleanliness of the surface of the woven belt.

[0019] Furthermore, the hot drying roller comprises a rotating drum and an electric heating tube, the circumferential array of the electric heating tube is arranged on the inner side of the rotating drum, the hot drying device also comprises a first insulation box and a second insulation box arranged outside the hot drying roller, the pressure-applying member comprises an upper push member and a lower push member, the upper push member is arranged in the first insulation box, and the lower push member is arranged outside the second insulation box, the upper push member comprises a plurality of pushing cams, a plurality of pushing connecting rods, a plurality of pushing frames, a pushing shaft, a first pushing block and a second pushing block, both ends of the pushing shaft are positioned and rotatably installed in the first insulation box, the pushing frame is U-shaped and rotatably installed on the pushing shaft, the end of the pushing frame away from the pushing shaft is equipped with a first pushing block and a second pushing block, the pushing connecting rod is also rotatably installed on the pushing shaft and is symmetrically arranged relative to the pushing frame, the pushing connecting rod is vertically extended with a toggle rod on the side of the pushing connecting rod away from the pushing frame, the pushing cam is arranged corresponding to the pushing connecting rod and contacts the toggle rod and drives the pushing connecting rod to rotate, the lower pressing member comprises a blowing member and a lower pressing plate, the lower pressing plate is slidingly arranged relative to the second insulation box, and the blowing member is arranged above the lower pressing plate.

[0020] By adopting the above technical scheme, the electric heating tube is arranged in the rotating cylinder to realize heating of the outer cylinder and avoid directly using the electric heating tube to burn the surface of the braided belt. The first insulation box and the second insulation box are arranged to realize insulation of the hot drying roller and avoid the hot drying roller being exposed to the outside and becoming a hidden danger in the working environment, causing safety situations such as burns to the staff; the pressure piece applies pressure to the surface of the braided belt, so that the braided belt fits the hot drying roller more closely, ensuring the hot drying effect.

[0021] The pushing frame and the pushing connecting rod are both mounted on the rotating shaft. When the pushing cam rotates, it contacts the toggle rod on the pushing connecting rod. Due to the surface shape characteristics of the pushing cam, the pushing cam drives the pushing connecting rod to form a reciprocating swing at a certain angle on the pushing shaft when the pushing cam moves. The pushing frame and the pushing connecting rod are arranged to move synchronously, so the pushing frame also forms a swing at both ends (the two sides of the U-shaped pushing frame are hinged at the end), so that the first pushing block and the second pushing block intermittently push up the lower surface of the braided belt, so that the braided belt is close to the hot drying roller, thereby ensuring the hot drying effect of the upper surface of the braided belt.

[0022] The push-down piece uses a blowing piece to blow the lower pressure plate to apply pressure to the upper surface of the braided belt, so that the braided belt is closer to the hot drying roller again to ensure the hot drying effect of the lower surface of the braided belt. The lower pressure plate is also provided with air holes corresponding to the position of the braided belt, which can blow air to cool the surface of the braided belt and blow away surface impurities to avoid excessively high temperatures in continuous hot drying. The push-down piece is arranged outside the second insulation box and does not affect the secondary hot drying operation.

[0023] Furthermore, the first winding member includes a first winding frame, a first winding seat and a first winding roller, the first winding seat is slidably arranged on the first winding frame, the first winding roller is positioned and rotatably installed on the first winding seat, and a sliding base that cooperates with the first driving member extends from the bottom of the first winding seat; the first driving member is arranged on the first winding frame, the first driving member includes a movable rod, a sliding rod, a first driving wheel, a second driving wheel and a transmission belt, the movable rod is coaxially arranged with the first winding roller and the movable rod is sleeved with the first driving wheel, the sliding rod is provided with a reciprocating thread and is threadedly connected to the sliding base, the sliding rod is sleeved with the second driving wheel, and the first driving wheel and the second driving wheel are connected by a transmission belt.

[0024] By adopting the above technical solution, the first driving member moves, and the first driving wheel and the second driving wheel rotate synchronously driven by the transmission belt, and the sliding rod coaxial with the second driving shaft also rotates. The sliding base sleeved on the sliding rod is threadedly connected to the sliding rod, so the sliding base slides back and forth along the sliding rod. The sliding base is fixedly arranged under the first winding seat, thereby driving the first winding seat to slide back and forth on the sliding rod. When the first winding seat slides, the first winding roller is also driven to rotate by the movable rod, so that the first winding member completes the reciprocating winding operation.

[0025] Furthermore, the second winding member includes a second winding frame, a second winding seat and a second winding roller, the second winding seat is fixedly arranged above the second winding frame, the second winding roller is positioned and rotatably installed on the second winding seat, and a limiting rod is also arranged above the second winding seat, the limiting rod is arranged along the axial direction of the second winding roller and vertically slidably arranged in the second winding seat, and the second driving member is arranged on one side of the second winding seat and drives the second winding roller to rotate.

[0026] By adopting the above technical solution, the second driving member controls the rotation of the second winding roller, so that the braided belt is directly wound on the second winding roller. The limiting rod fits the upper surface of the wound braided belt and gradually moves upward when the winding diameter becomes larger but still presses on the surface of the braided belt. The limiting rod applies gravity pressure to the winding process to avoid loose winding.

[0027] Furthermore, the third winding member includes a third winding frame, a tensioning roller and multiple third winding rollers, both ends of the tensioning roller and the third winding roller are positioned and rotatably installed on the third winding frame, the tensioning roller is also vertically slidably arranged in the third winding frame, and a accommodating groove is arranged in the third winding frame, and the third driving member controls the vertical sliding of the tensioning roller.

[0028] By adopting the above technical solution, a third winding member is set to temporarily store the woven belt in the receiving groove. The tensioning roller is used to prevent the woven belt in the receiving groove from loose accumulation. The third driving member controls the position of the tensioning roller to ensure the stability of the surface tension of the woven belt, which is also convenient for subsequent slitting and sewing.

[0029] Furthermore, a slitting structure is also provided at the end of the third winding member, and the slitting structure includes a pressing member and a cutting member, the pressing member is arranged close to the third winding member, and the cutting member is arranged on the side of the pressing member away from the third winding member; a sewing structure is also provided on the side of the slitting structure away from the third winding member, and the sewing structure includes a sewing machine head and a clamping member, the clamping member includes a sliding seat and a clamping head, the clamping head is rotatably arranged on the sliding seat, and the sliding seat is arranged to slide back and forth along the conveying direction of the woven belt.

[0030] By adopting the above technical solution, the end of the braided belt delivered to the third winding member is clamped by the clamping member, and the clamping member clamps the end of the braided belt and first rotates and wraps it around the clamping head, and then slides along the sliding seat to the bottom of the sewing machine head to sew one end. After the sewing operation is completed, the cutting member cuts the braided belt.

[0031] Furthermore, a storage structure is provided between the slitting structure and the sewing structure, and the storage structure includes a clamping member and a storage frame. The clamping member is arranged between the slitting structure and the sewing machine head and is arranged perpendicular to the side of the slitting structure. The storage frame is arranged below the slitting structure and the sewing structure. The clamping member includes a clamping frame, a clamping drive and a clamping head. The clamping frame is a lifting structure. The clamping drive controls the clamping head to slide perpendicular to the conveying direction of the braided belt. The storage frame is provided with a plurality of vertical escape grooves on the side close to the clamping member.

[0032] By adopting the above technical solution, the strip woven belt after sewing and cutting is clamped by the clamping head, and then the clamping head moves to the top of the storage frame and then vertically descends, and the clamping head and the strip woven belt both enter the storage frame. After moving to the bottom, the clamping head relaxes and retreats to escape from the escape groove, and the woven belt is accumulated in the storage frame.

[0033] In summary, the technical solution of the present invention has the following advantages:

[0034] 1. The production and storage equipment for lace webbings provided by the present invention first performs position-limiting guidance on the weaving webbings to avoid misalignment and overlap during the transmission process. The weaving webbings are rolled up after being surface-polished and dust-removed and heat-dried and flattened, which effectively reduces surface wrinkles, ensures the heat-dried and flattened effect of the weaving webbing, and improves the rolling quality. The winding device realizes multi-stage and multi-specification winding operations, effectively improving the winding processing efficiency.

[0035] 2. The lace webbing production and storage equipment provided by the present invention is provided with a sorting device for guiding, and enters the processing device for processing before completing the winding. After the woven belt is produced, it is first limited in the vertical direction at the limit plate to prevent the woven belt from jumping caused by the front-end production. Then, the guide roller limits the longitudinal position to prevent the woven belt from sliding left and right. After that, it enters the combing plate for preliminary flattening and dispersion, and the grinding part and the hot drying device complete the surface treatment to facilitate the subsequent winding operation.

[0036] 3. The lace webbing production and storage equipment provided by the present invention is equipped with different types of winding devices, which is convenient and saves trouble. The finished rolls formed are arranged in three types (reciprocating transverse winding, direct winding and cutting into strips) to meet the needs of multiple products. The various winding structures are staggered and do not affect each other, avoiding structural interference, affecting the winding and conveying, and ensuring the winding quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] In order to more clearly illustrate the specific implementation methods of the present invention or the technical solutions in the prior art, the drawings required for use in the specific implementation methods or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0038] Figure 1 It is a schematic diagram of the overall structure of a lace ribbon production and storage device provided in one embodiment of the present invention;

[0039] Figure 2 A schematic diagram of the internal structure of a lace ribbon production and storage device provided in one embodiment of the present invention;

[0040] Figure 3 A schematic diagram of the partial structure of a finishing device and a processing device provided in one embodiment of the present invention;

[0041] Figure 4 A schematic diagram of a partial structure of a heat drying device provided in one embodiment of the present invention;

[0042] Figure 5 A schematic diagram of a partial structure of a first winding member provided in one embodiment of the present invention;

[0043] Figure 6 A schematic diagram of a partial structure of a second winding member provided in one embodiment of the present invention;

[0044] Figure 7 A schematic structural diagram of a third winding member provided in one embodiment of the present invention;

[0045] Figure 8It is a partial structural schematic diagram of a slitting structure, a sewing structure and a storage structure provided in one embodiment of the present invention.

[0046] Description of reference numerals:

[0047] 1. Frame; 1-1. Weaving structure; 1-2. Conveying roller; 2. Feeding rack; 21. Frame; 22. Feeding rod; 23. Layering rod; 3. Arrangement device; 4. Guide member; 41. Guide roller; 411. Guide groove; 42. Limiting member; 421. Limiting rack; 4211. Sliding groove; 4212. Buffer spring; 422. Limiting plate; 4221. Limiting wheel; 5. Combing member; 51. Combing plate; 511. Guide plate; 5111. Guide groove; 5112. Guide plate; 5113. Guide spring; 512. Loading plate; 5121. Loading groove; 52. Combing drive; 6 , processing device; 7, cleaning device; 71, grinding piece; 711, grinding roller; 7111, grinding cover; 7112, discharge port; 712, grinding drive; 7121, grinding motor; 7122, grinding gear; 72, dust removal piece; 8, hot drying device; 81, hot drying roller; 811, rotating cylinder; 812, electric heating tube; 82, pressure piece; 821, push piece; 8211, push cam; 8212, push connecting rod; 82121, toggle rod; 8213, push frame; 8214, push shaft; 8215, first push block; 8216, second push block; 822, lower Pressing piece; 8221, blowing piece; 8222, lower pressing plate; 83, first heat preservation box; 84, second heat preservation box; 9, winding device; 91, first winding piece; 911, first winding frame; 912, first winding seat; 9121, sliding base; 913, first winding roller; 92, second winding piece; 921, second winding frame; 922, second winding seat; 9221, limiting rod; 923, second winding roller; 93, third winding piece; 931, third winding frame; 9311, containing groove; 932, tensioning roller; 933, third winding roller; 09, driving device; 091, first A driving member; 0911, a movable rod; 0912, a sliding rod; 0913, a first driving wheel; 0914, a second driving wheel; 0915, a transmission belt; 092, a second driving member; 093, a third driving member; 10, a slitting structure; 101, a pressing member; 102, a cutting member; 11, a sewing structure; 111, a sewing machine head; 112, a clamping member; 1121, a sliding seat; 1122, a clamping head; 12, a storage structure; 121, a clamping member; 1211, a clamping frame; 1212, a clamping drive; 1213, a clamping head; 122, a storage frame; 1221, a disengagement groove. DETAILED DESCRIPTION

[0048] The present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0049] A production and storage device for lace ribbons, such as Figure 1 As shown, it includes a frame 1 and a feed frame 2. A weaving structure 1-1 is arranged on the frame 1. The weaving structure 1-1 produces a number of even-numbered braided belts and the number of braided belts is not less than six (only six belts are drawn as a schematic in this application). The braided belts are arranged in an array along the width direction of the frame 1 and are transported along the length direction of the frame 1. A plurality of conveying rollers 1-2 are also arranged at the end of the weaving structure 1-1. The conveying rollers 1-2 convey the braided belts, and the conveying rollers 1-2 carry out the entire conveying and winding process. The feed frame 2 is arranged on the side of the frame 1 close to the feed. The feed frame 2 includes a frame 21, a plurality of feeding rods 22 and a plurality of layering rods 23. The feeding rods 22 and the layering rods 23 are both arranged on the frame 21 and the axes are arranged in parallel.

[0050] A production and storage device for lace webbings also includes a finishing device 3, a processing device 6 and a winding device 9, the finishing device 3 includes a guide member 4 and a combing member 5, the processing device 6 includes a cleaning device 7 and a drying device 8, the winding device 9 includes a first winding member 91, multiple second winding members 92 and a third winding member 93, the winding device 9 is also connected to a corresponding driving device 09, a slitting structure 10 is also provided at the end of the third winding member 93, the slitting structure 10 includes a pressing member 101 and a cutting member 102, a sewing structure 11 is also provided on the side of the slitting structure 10 away from the third winding member 93, the sewing structure 11 includes a sewing machine head 111 and a clamping member 112, and a storage structure 12 is also provided between the slitting structure 10 and the sewing machine head 111.

[0051] like Figure 1 and Figure 2As shown, the finishing device 3 includes a guide member 4 and a combing member 5, the guide member 4 is arranged at the discharge end of the weaving structure 1-1, the guide member 4 includes a plurality of guide rollers 41 and a limit member 42, the limit member 42 is arranged above the guide roller 41, the limit member 42 is located above the discharge end of the weaving structure 1-1 and the lower surface is in contact with the upper surface of the woven belt, the limit member 42 includes a limit frame 421 and a limit plate 422, the limit plate 422 is vertically slidably arranged in the limit frame 421, and the limit frame 421 corresponds to the limit plate 422 A sliding groove 4211 is provided, and a buffer spring 4212 is also provided in the sliding groove 4211. One end of the buffer spring 4212 is fixed to the top of the limiting frame 421, and the other end is fixed to the inner wall of the sliding groove 4211. A plurality of limiting wheels 4221 are installed at the bottom of the limiting plate 422 corresponding to the woven belt. The limiting wheels 4221 are arranged in an array along the length direction of the limiting plate 422. The axis of the limiting wheels 4221 is also parallel to the length direction of the limiting plate 422. The limiting wheels 4221 are also positioned and rotated and installed at the bottom of the limiting plate 422. The woven belt produced by the weaving structure 1-1 has a large vertical jump at this place because the front end is still in the weaving operation process. The limiting plate 422 sliding in the limiting frame 421 is set to slow down the vertical jump. The buffer spring 4212 slows down the vibration of the woven belt conveying. The limiting wheels 4221 are set corresponding to the woven belt. The rolling transmission initially rubs against the surface of the woven belt to achieve the initial flatness after the weaving is completed, which is also convenient for the subsequent grinding operation.

[0052] A plurality of pairs of guide rollers 41 are provided corresponding to the braided belts, and the axes of the guide rollers 41 are perpendicular to the upper surfaces of the braided belts. At least one guide roller 41 is provided on both sides of each braided belt, and a guide groove 411 is provided on the guide rollers 41.

[0053] like Figure 1 and Figure 2As shown, the combing member 5 includes a combing plate 51 and a combing drive 52. The combing plate 51 is hingedly arranged in the frame 1, and the combing drive 52 controls the rotation of the combing plate 51. The combing plate 51 includes a guide plate 511 and a bearing plate 512. The guide plate 511 is slidably arranged above the bearing plate 512, and the guide plate 511 can be removed for cleaning. A bearing groove 5121 corresponding to the braided belt is provided in the bearing plate 512, and a guide groove 5111 is also provided in the guide plate 511 corresponding to the braided belt. The bearing groove 5121 is arranged opposite to the guide groove 5111. The guide groove 5111 and the bearing groove 5121 between the guide plate 511 and the bearing plate 512 constitute a channel for the braided belt to pass through and limit the braided belt to the left and right. A plurality of arc-shaped guide plates 5112 are arranged in an array along the conveying direction of the braided belt in the guide groove 5111, and a guide spring 5113 is also arranged above the guide plate 5112. One end of the guide spring 5113 is fixed to the top of the guide plate 5112, and the other end is fixed inside the guide groove 5111. The arc-shaped guide plate 5112 squeezes and limits the upper surface of the braided belt. The combing drive 52 is arranged inside the frame 1 and is a telescopic cylinder. The output end of the combing drive 52 is hinged to the bottom of the carrier plate 512. The combing drive 52 controls the carrier plate 512 to rotate relative to the frame 1, so that the inclination angle of the carrier plate 512 can be adjusted according to the conveying speed of the braided belt to avoid excessive pulling of the braided belt.

[0054] like Figure 1 , Figure 2 and Figure 3 As shown, a cleaning device 7 is installed below the discharge end of the combing member 5. The cleaning device 7 is arranged on the frame 1 and includes a grinding member 71 and a dust removal member 72. The grinding member 71 includes a grinding roller 711 arranged opposite to each other and a grinding drive 712 for driving the grinding roller 711 to rotate. The dust removal member 72 is arranged at the end of the grinding member 71.

[0055] A grinding cover 7111 is also provided outside the grinding roller 711. The grinding cover 7111 reduces the dust from flying catkins during grinding and ensures the environmental hygiene on site. A discharge port 7112 is provided at the bottom of the grinding cover 7111. A grinding drive 712 is provided at the front end of the grinding roller 711 as shown in the figure. The grinding drive 712 includes a grinding motor 7121 and two mutually meshing grinding gears 7122. The grinding motor 7121 drives a grinding gear 7122 to rotate. The grinding gear 7122 is provided outside the grinding cover 7111. The dust removal member 72 is symmetrically provided at the left and right ends below the discharge port 7112.

[0056] like Figure 2 and Figure 3As shown, the heat drying device 8 is arranged on the frame 1 and includes two heat drying rollers 81 and a pressure member 82, and the pressure member 82 is arranged on the left side of the heat drying roller 81. The heat drying roller 81 includes a rotating cylinder 811 and an electric heating tube 812. The electric heating tube 812 is arranged in a circumferential array inside the rotating cylinder 811. The electric heating tube 812 is arranged inside the rotating cylinder 811 to achieve heating of the outer cylinder and avoid directly using the electric heating tube 812 to burn the surface of the woven belt. The heat drying device 8 also includes a first heat preservation box 83 and a second heat preservation box 84 arranged outside the heat drying roller 81. The first heat preservation box 83 and the second heat preservation box 84 are arranged to achieve heat preservation of the heat drying roller 81 and avoid the heat drying roller 81 being exposed to the outside and becoming a hidden danger in the working environment, causing safety situations such as burns to the staff.

[0057] like Figure 3 and Figure 4 As shown, the pressure member 82 includes an upper push member 821 and a lower push member 822. The upper push member 821 is arranged in the first insulation box 83, and the lower push member 822 is arranged outside the second insulation box 84. The pressure member 82 applies pressure to the surface of the woven belt, so that the woven belt fits more closely to the hot drying roller 81 to ensure the hot drying effect.

[0058] The upper push member 821 includes a pushing cam 8211, a pushing connecting rod 8212, a pushing frame 8213, a pushing shaft 8214, a first pushing block 8215 and a second pushing block 8216. Both ends of the pushing shaft 8214 are positioned and rotatably installed in the first heat preservation box 83. The pushing frame 8213 is U-shaped and is rotatably installed on the pushing shaft 8214. A plurality of pushing frames 8213 and a plurality of pairs of pushing connecting rods 8212 are arranged in an array on the pushing shaft 8214. The first pushing block 8215 and the second pushing block 8216 are installed at the end of the pushing frame 8213 away from the pushing shaft 8214. The pushing connecting rod 8212 is also rotatably installed on the pushing shaft 8214 and is symmetrically arranged relative to the pushing frame 8213. A toggle rod 82121 is vertically extended from the side of the pushing connecting rod 8212 away from the pushing frame 8213. The pushing cam 8211 is arranged corresponding to the pushing connecting rod 8212 and contacts with the toggle rod 82121 and drives the pushing connecting rod 8212 to rotate. The pushing frame 8213 and the pushing connecting rod 8212 are both mounted on the rotating shaft. When the pushing cam 8211 rotates, it contacts the toggle rod 82121 on the pushing connecting rod 8212. Due to the surface shape characteristics of the pushing cam 8211, the pushing cam 8211 drives the pushing connecting rod 8212 to form a reciprocating swing at a certain angle on the pushing shaft 8214 when it moves. The pushing frame 8213 and the pushing connecting rod 8212 are arranged to move synchronously, so the pushing frame 8213 also forms a swing at both ends (the two side edges of the U-shaped pushing frame 8213 are hingedly arranged at the end), so that the first pushing block 8215 and the second pushing block 8216 intermittently push up the lower surface of the braided belt, so that the braided belt is close to the hot drying roller 81, thereby ensuring the hot drying effect of the upper surface of the braided belt.

[0059] The lower pressing member 822 includes a blowing member 8221 and a lower pressing plate 8222. The lower pressing plate 8222 is slidably arranged relative to the second heat preservation box 84, and the blowing member 8221 is arranged above the lower pressing plate 8222. The lower pushing member uses the blowing member 8221 to blow the lower pressing plate 8222 to apply pressure to the upper surface of the braided belt, so that the braided belt is again close to the hot drying roller 81 to ensure the hot drying effect of the lower surface of the braided belt. The lower pressing plate 8222 is also provided with air holes corresponding to the position of the braided belt, which can blow air to cool the surface of the braided belt and blow away surface impurities to avoid excessively high continuous hot drying temperatures. The lower pushing member is arranged outside the second heat preservation box 84 and does not affect the secondary hot drying operation.

[0060] like Figure 1 , Figure 2 , Figure 3 and Figure 5 As shown, the winding device 9 is arranged on the right side of the processing device 6, and the winding device 9 includes a first winding member 91, multiple second winding members 92 and a third winding member 93 which are arranged in sequence. The winding device 9 is also connected to a corresponding driving device 09, and the driving device 09 includes a first driving member 091, a second driving member 092 and a third driving member 093. The first driving member 091 controls the movement of the first winding member 91, the second driving member 092 controls the movement of the second winding member 92, and the third driving member 093 controls the movement of the third winding member 93. The first winding member 91 winds up the two outermost braids, the third winding member 93 winds up the two braids close to the center line of the width direction of the frame 1, and the second winding member 92 winds up the remaining braids. The settings of different winding members can be adjusted according to product requirements. For example, the winding of a bed skirt requires a long whole lace ribbon and in order to facilitate on-site production, the final rolled volume cannot be too large, so the first winding member 91 can be used for reciprocating transverse winding; for tablecloth production, a relatively flat lace ribbon is required and the surface wrinkles of the ribbon need to be reduced, so the direct winding and rolling of the second winding member 92 can be used; for lace of small parts of uniform specifications such as chair covers, the ribbon cut into strips after production can be directly selected, without the need for subsequent manual cutting to cause errors.

[0061] like Figure 2 and Figure 5As shown, the first winding member 91 includes a first winding frame 911, a first winding seat 912 and a first winding roller 913. The first winding seat 912 is slidably arranged on the first winding frame 911, and the first winding roller 913 is positioned and rotatably installed on the first winding seat 912. A sliding base 9121 that cooperates with the first driving member 091 extends from the bottom of the first winding seat 912; the first driving member 091 is arranged on the first winding frame 911, and the first driving member 091 includes an active rod 0911, a sliding base 9121 that cooperates with the first driving member 091. The movable rod 0912, the first driving wheel 0913, the second driving wheel 0914 and the transmission belt 0915, the movable rod 0911 is coaxially arranged with the first winding roller 913 and the movable rod 0911 is sleeved with the first driving wheel 0913, the sliding rod 0912 is provided with a reciprocating thread and is threadedly connected with the sliding base 9121, the sliding rod 0912 is sleeved with the second driving wheel 0914, and the first driving wheel 0913 and the second driving wheel 0914 are connected by the transmission belt 0915. The first driving member 091 moves, causing the first driving wheel 0913 and the second driving wheel 0914 to rotate synchronously driven by the transmission belt 0915, and the sliding rod 0912 coaxial with the second driving shaft also rotates. The sliding base 9121 sleeved on the sliding rod 0912 is threadedly connected to the sliding rod 0912, so the sliding base 9121 slides back and forth along the sliding rod 0912, and the sliding base 9121 is fixedly arranged at the bottom of the first winding seat 912, driving the first winding seat 912 to slide back and forth. While the first winding seat 912 slides, the first winding roller 913 on the first winding seat 912 is driven to rotate by the movable rod 0911, so that the first winding member 91 completes the winding operation of reciprocating transverse winding.

[0062] like Figure 2 and Figure 6 As shown, the second winding member 92 includes a second winding frame 921, a second winding seat 922, and a second winding roller 923. The second winding seat 922 is fixedly arranged above the second winding frame 921. The second winding roller 923 is positioned and rotatably installed on the second winding seat 922. A limiting rod 9221 is also arranged above the second winding seat 922. The limiting rod 9221 is arranged along the axial direction of the second winding roller 923 and is vertically slidably arranged in the second winding seat 922. The second driving member 092 is arranged on one side of the second winding seat 922 and drives the second winding roller 923 to rotate. The second driving member 092 controls the rotation of the second winding roller 923, so that the braided belt is directly wound on the second winding roller 923. The limiting rod 9221 is in contact with the winding surface of the braided belt and gradually moves upward when the winding diameter becomes larger, but it is still pressed on the surface of the braided belt. The limiting rod 9221 applies gravity pressure to the winding process to avoid loose winding.

[0063] like Figure 2 and Figure 7As shown, the third winding member 93 includes a third winding frame 931, a tensioning roller 932 and a plurality of third winding rollers 933. The third winding roller 933 is arranged on the left and right sides of the tensioning roller 932. Both ends of the tensioning roller 932 and the third winding roller 933 are positioned and rotatably mounted on the third winding frame 931. The tensioning roller 932 is also arranged vertically to slide in the third winding frame 931. The third winding frame 931 is provided with a receiving groove 9311. The third driving member 093 controls the vertical sliding of the tensioning roller 932. The third winding member 93 is arranged to temporarily store the braided belt in the receiving groove 9311. The tensioning roller 932 is used to prevent the braided belt in the receiving groove 9311 from being loosely piled up. The third driving member 093 controls the position of the tensioning roller 932 to ensure the stability of the surface tension of the braided belt, which is also convenient for the influence of subsequent slitting and sewing.

[0064] like Figure 1 , Figure 2 and Figure 7 As shown, a slitting structure 10 is also provided at the end of the third winding member 93, and the slitting structure 10 includes a pressing member 101 and a cutting member 102 arranged in parallel, the pressing member 101 is arranged close to the side of the third winding member 93, and the cutting member 102 is arranged on the side of the pressing member 101 away from the third winding member 93; a sewing structure 11 is also provided on the side of the slitting structure 10 away from the third winding member 93, the sewing structure 11 includes a sewing machine head 111 and a clamping member 112, the clamping member 112 includes a sliding seat 1121 and a clamping head 1122, the clamping head 1122 is rotatably arranged on the sliding seat 1121, and the sliding seat 1121 is arranged to slide back and forth along the conveying direction of the braided belt. A storage structure 12 is also provided between the slitting structure 10 and the sewing structure 11, and the storage structure 12 includes a clamping member 121 and a storage frame 122. The clamping member 121 is provided between the slitting structure 10 and the sewing structure 11 and is perpendicular to the side of the slitting structure 10. The storage frame 122 is provided below the slitting structure 10 and the sewing structure 11. The clamping member 121 includes a clamping frame 1211, a clamping drive 1212 and a clamping head 1213. The clamping frame 1211 is a lifting structure. The clamping drive 1212 controls the clamping head 1213 to move perpendicular to the side of the slitting structure 10. A plurality of vertical escape grooves 1221 are provided on the side of the storage frame 122 close to the clamping member 121.

[0065] The braided belt conveyed to the third winding member 93 is clamped at the end by the clamping member 101, and the clamping member 112 clamps the braided belt end and first rotates and wraps it around the clamping head 1122, and then slides along the sliding seat 1121 to the bottom of the sewing machine head 111 to sew one end. After the sewing operation is completed, the cutting member 102 performs the braided belt cutting operation. After the sewing and cutting strip braided belt is clamped by the clamping head 1213, the whole braided belt is first separated from the clamping head 1122, and then the clamping head 1213 moves to the top of the storage frame 122 and then vertically descends. The clamping head 1213 and the strip braided belt both enter the storage frame 122. After moving to the bottom, the clamping head 1213 relaxes and retreats to escape from the escape groove 1221, and the braided belt is accumulated in the storage frame 122.

[0066] The working principle and usage of the lace ribbon production and storage equipment:

[0067] Production guidance: After the weaving structure 1-1 produces the braided belt, it is directly guided by the finishing device 3, and enters the processing device 6 for processing before winding. After the braided belt is produced, it is first limited in the vertical direction at the limiting plate 422 to prevent the braided belt from jumping caused by the front-end production. Then, the guide roller 41 is used to limit the longitudinal position to prevent the braided belt from sliding left and right, and then enters the combing plate 51 for preliminary flattening and dispersion;

[0068] Surface treatment: After the grinding piece 71 and the heat drying device 8 complete the surface treatment, the grinding gear 7122 rotates to drive the two grinding rollers 711 to rotate relative to each other, thereby realizing the extrusion and grinding operation of the braided belt. The dust removal piece 72 is an exhaust device and is arranged at the discharge port 7112 of the grinding cover 7111, and performs a surface exhaust and cleaning operation on the braided belt after the grinding. The braided belt passes through the two heat drying rollers 81 in sequence, and the upper and lower surfaces are heat dried respectively. When the upper surface is heat dried, the first push block 8215 and the second push block 8216 intermittently push up the lower surface of the braided belt. After the first heat drying is completed, the lower push piece uses the blowing piece 8221 to blow the lower pressure plate 8222 to apply pressure to the upper surface of the braided belt, and the surface heat of the braided belt is dissipated.

[0069] Winding operation: The first winding member 91 is controlled by the first driving member 091 to complete the reciprocating winding operation; the second winding member 92 is controlled by the second driving member 092 to complete the direct winding operation; the braided belt conveyed to the third winding member 93 is pressed by the pressing member 101 at the end, and the clamping member 112 clamps the braided belt end and first rotates and winds it around the clamping head 1122, and then slides along the sliding seat 1121 to the bottom of the sewing machine head 111 to sew one end, and the sewing operation is completed. The rear cutting piece 102 performs the cutting operation of the braided belt. After the strip braided belt after sewing and cutting is clamped by the clamping head 1213, the whole braided belt is first separated from the clamping head 1122, and then the clamping head 1213 moves to the top of the storage frame 122 and then vertically descends. The clamping head 1213 and the strip braided belt both enter the storage frame 122. After moving to the bottom, the clamping head 1213 relaxes and retreats to escape from the escape groove 1221, and the braided belt is accumulated in the storage frame 122.

[0070] The above description shows and describes the preferred embodiments of the present invention. As mentioned above, it should be understood that the present invention is not limited to the form disclosed herein, and should not be regarded as excluding other embodiments, but can be used in various other combinations, modifications and environments, and can be modified within the scope of the invention concept described herein through the above teachings or the technology or knowledge of the relevant field. The changes and modifications made by those skilled in the art do not depart from the spirit and scope of the present invention, and should be within the scope of protection of the claims attached to the present invention.

Claims

1. A production and storage device for lace webbings, comprising a frame (1) and a feeding frame (2), wherein a weaving structure (1-1) is arranged on the frame (1), wherein the weaving structure (1-1) produces a plurality of even-numbered weaving bands and the number of weaving bands is not less than six, wherein the plurality of weaving bands are arranged in an array along the width direction of the frame (1) and are transported along the length direction of the frame (1), wherein a plurality of transport rollers (1-2) are further arranged at the end of the weaving structure (1-1), wherein the transport rollers (1-2) transport the weaving bands, wherein the feeding frame (2) is arranged on a side of the frame (1) close to the feed, wherein the feeding frame (2) comprises a frame body (21), a plurality of feed rods (22) and a plurality of layering rods (23), wherein the feed rods (22) and the layering rods (23) are both arranged on the frame body (21) and their axes are arranged in parallel, wherein: Also includes: A finishing device (3), the finishing device (3) comprising a guide member (4) and a combing member (5), the guide member (4) being arranged at the discharge end of the weaving structure (1-1), the guide member (4) comprising a plurality of guide rollers (41) and a limit member (42), the guide rollers (41) being arranged below the limit member (42), a plurality of pairs of guide rollers (41) being arranged corresponding to the weaving belts, and the axes of the guide rollers (41) being perpendicular to the upper surface of the weaving belts, at least one guide roller (41) being arranged on both sides of each weaving belt, a guide groove (411) being provided on the guide rollers (41), a combing member (5) being arranged below the guide rollers (41), the combing member (5) being arranged in the frame (1) and comprising a combing plate (51) and a combing drive (52), the combing drive (52) controlling the rotation of the combing plate (51); A processing device (6), the processing device (6) is arranged below the finishing device (3), the processing device (6) comprises a cleaning device (7) and a hot drying device (8), the cleaning device (7) is installed below the discharge end of the combing member (5), the cleaning device (7) is arranged on the frame (1) and comprises a grinding member (71) and a dust removal member (72), the grinding member (71) comprises grinding rollers (711) arranged opposite to each other and a grinding drive (712) for driving the grinding rollers (711) to rotate, the dust removal member (72) is arranged at the discharge end of the grinding member (71), the braided belt passes through the gap between the two grinding rollers (711) and passes through the dust removal member (72) before entering the hot drying device (8), the hot drying device (8) is arranged on the frame (1) and comprises two hot drying rollers (81) and a pressure member (82), the pressure member (82) is arranged beside the hot drying roller (81); A winding device (9), wherein the winding device (9) is arranged at the discharge end of the processing device (6), and the winding device (9) comprises a first winding member (91), a plurality of second winding members (92) and a third winding member (93) which are arranged in sequence. The winding device (9) is also connected to a corresponding driving device (09), and the driving device (09) comprises a first driving member (091), a second driving member (092) and a third driving member (093). The first driving member (091) controls the movement of the first winding member (91), the second driving member (092) controls the movement of the second winding member (92), and the third driving member (093) controls the movement of the third winding member (93). The first winding member (91) winds up the two outermost braided belts, the third winding member (93) winds up the two braided belts close to the center line of the width direction of the frame (1), and the second winding member (92) winds up the remaining braided belts.

2. The lace ribbon production and storage device according to claim 1, characterized in that: The limiting member (42) is located above the discharge end of the weaving structure (1-1) and its lower surface is in contact with the upper surface of the woven belt. The limiting member (42) comprises a limiting frame (421) and a limiting plate (422). The limiting plate (422) is vertically slidably arranged in the limiting frame (421). The limiting frame (421) is provided with a sliding groove (4211) corresponding to the limiting plate (422). A buffer spring (4212) is also arranged in the sliding groove (4211). ), one end of the buffer spring (4212) is fixed to the top of the limiting plate (422), and the other end is fixed to the top wall of the sliding groove (4211); a plurality of limiting wheels (4221) are installed at the bottom of the limiting plate (422) corresponding to the woven belt; the limiting wheels (4221) are arranged in an array along the length direction of the limiting plate (422) and the axis is parallel to the length direction of the limiting plate (422); the limiting wheels (4221) are positioned and rotatably installed at the bottom of the limiting plate (422).

3. The lace ribbon production and storage device according to claim 2, characterized in that: The combing plate (51) comprises a guide plate (511) and a bearing plate (512); the guide plate (511) is slidably arranged above the bearing plate (512); a bearing groove (5121) corresponding to the braided belt is provided in the bearing plate (512); a guide groove (5111) corresponding to the braided belt is also provided in the guide plate (511); the bearing groove (5121) and the guide groove (5111) are arranged opposite to each other; a plurality of arc-shaped guide plates (5112) are arranged in an array along the conveying direction of the braided belt in the guide groove (5111); a guide spring (5113) is further arranged above the guide plate (5112); one end of the guide spring (5113) is fixed to the top of the guide plate (5112), and the other end is fixed inside the guide groove (5111); the combing drive (52) is arranged in the frame (1) and is a telescopic cylinder; the output end of the combing drive (52) is hingedly arranged to the bottom of the bearing plate (512).

4. The lace ribbon production and storage device according to claim 1, characterized in that: A grinding cover (7111) is also provided outside the grinding roller (711), and a discharge port (7112) is provided at the bottom of the grinding cover (7111). The grinding drive (712) is arranged at one end of the grinding roller (711), and the grinding drive (712) comprises a grinding motor (7121) and two grinding gears (7122) meshing with each other. The grinding motor (7121) drives one of the grinding gears (7122) to rotate, and the grinding gear (7122) is arranged outside the grinding cover (7111). The dust removal part (72) is symmetrically arranged on both sides of the bottom of the discharge port (7112).

5. The lace ribbon production and storage device according to claim 1, characterized in that: The hot drying roller (81) comprises a rotating cylinder (811) and an electric heating tube (812), wherein the electric heating tube (812) is arranged in a circular array on the inner side of the rotating cylinder (811), and the hot drying device (8) further comprises a first heat preservation box (83) and a second heat preservation box (84) arranged outside the hot drying roller (81), and the pressure member (82) comprises an upper push member (821) and a lower push member (822), wherein the upper push member (821) is arranged inside the first heat preservation box (83), and the lower push member (822) is arranged outside the second heat preservation box (84), and the upper push member (821) comprises a plurality of pushing cams (8211), a plurality of pushing connecting rods (8212), a pushing frame (8213), a pushing shaft (8214), a first pushing block (8215) and a second pushing block (8216), wherein both ends of the pushing shaft (8214) are positioned and rotatably installed inside the first heat preservation box (83), and the pushing frame (8216) is provided with a plurality of pushing cams (8211), a plurality of pushing connecting rods (8212), a pushing frame (8213), a pushing shaft (8214), a first pushing block (8215) and a second pushing block (8216). The push frame (8213) is U-shaped and rotatably mounted on the rotating shaft. The end of the push frame (8213) away from the push shaft (8214) is equipped with a first push block (8215) and a second push block (8216). The push connecting rod (8212) is also rotatably mounted on the push shaft (8214) and symmetrically arranged relative to the push frame (8213). The push connecting rod (8212) is vertically extended from the side of the push frame (8213) away from the push frame (8213). The movable rod (82121), the pushing cam (8211) is arranged corresponding to the pushing connecting rod (8212) and contacts with the toggle rod (82121) and drives the pushing connecting rod (8212) to rotate, the lower pressure member (822) includes a blowing member (8221) and a lower pressure plate (8222), the lower pressure plate (8222) is slidingly arranged relative to the second insulation box (84), and the blowing member (8221) is arranged above the lower pressure plate (8222).

6. The lace ribbon production and storage device according to claim 5, characterized in that: The first winding member (91) comprises a first winding frame (911), a first winding seat (912) and a first winding roller (913); the first winding seat (912) is slidably arranged on the first winding frame (911); the first winding roller (913) is fixedly and rotatably installed on the first winding seat (912); a sliding base (9121) that cooperates with the first driving member (091) extends from the bottom of the first winding seat (912); the first driving member (091) is arranged on the first winding frame (911); the first driving member (091) comprises a movable rod (0911), A sliding rod (0912), a first driving wheel (0913), a second driving wheel (0914) and a transmission belt (0915); the movable rod (0911) is coaxially arranged with the first winding roller (913) and the movable rod (0911) is sleeved with the first driving wheel (0913); the sliding rod (0912) is provided with a reciprocating thread and is threadedly connected to the sliding base (9121); the sliding rod (0912) is sleeved with the second driving wheel (0914); the first driving wheel (0913) and the second driving wheel (0914) are connected by a transmission belt (0915).

7. The lace ribbon production and storage device according to claim 1, characterized in that: The second winding member (92) includes a second winding frame (921), a second winding seat (922) and a second winding roller (923); the second winding seat (922) is fixedly arranged above the second winding frame (921); the second winding roller (923) is positioned and rotatably installed on the second winding seat (922); a limiting rod (9221) is also arranged above the second winding seat (922); the limiting rod (9221) is arranged along the axial direction of the second winding roller (923) and is vertically slidably arranged in the second winding seat (922); the second driving member (092) is arranged on one side of the second winding seat (922) and drives the second winding roller (923) to rotate.

8. The lace ribbon production and storage device according to claim 1, characterized in that: The third winding member (93) comprises a third winding frame (931), a tensioning roller (932) and a plurality of third winding rollers (933); both ends of the tensioning roller (932) and the third winding roller (933) are positioned and rotatably mounted on the third winding frame (931); the tensioning roller (932) is also vertically slidably arranged in the third winding frame (931); a receiving groove (9311) is arranged in the third winding frame (931); and the third driving member (093) controls the vertical sliding of the tensioning roller (932).

9. The lace ribbon production and storage device according to claim 8, characterized in that: A slitting structure (10) is also provided at the end of the third winding member (93), and the slitting structure (10) comprises a pressing member (101) and a cutting member (102), wherein the pressing member (101) is arranged close to the third winding member (93), and the cutting member (102) is arranged on a side of the pressing member (101) away from the third winding member (93); a sewing structure (11) is also provided on a side of the slitting structure (10) away from the third winding member (93), and the sewing structure (11) comprises a sewing machine head (111) and a clamping member (112), and the clamping member (112) comprises a sliding seat (1121) and a clamping head (1122), and the clamping head (1122) is rotatably arranged on the sliding seat (1121), and the sliding seat (1121) is arranged to slide back and forth along the conveying direction of the braided belt.

10. The lace ribbon production and storage device according to claim 9, characterized in that: A storage structure (12) is also provided between the slitting structure (10) and the sewing structure (11), and the storage structure (12) comprises a clamping member (121) and a storage frame (122). The clamping member (121) is provided between the slitting structure (10) and the sewing structure (11) and is arranged perpendicularly to the side of the slitting structure (10). The storage frame (122) is provided below the slitting structure (10) and the sewing machine head (111). The clamping member (121) comprises a clamping frame (1211), a clamping drive (1212) and a clamping head (1213). The clamping frame (1211) is a lifting structure. The clamping drive (1212) controls the clamping head (1213) to slide perpendicularly to the conveying direction of the braided belt. A plurality of vertical escape grooves (1221) are provided on the side of the storage frame (122) close to the clamping member (121).

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