Waste silk collecting machine

Abstract

The invention relates to a waste silk collecting machine. The problem that in the prior art, waste wire collecting equipment and a shearing machine are difficult to automatically and synchronously wind and carry out shaping treatment in advance is solved. The device comprises a sliding base, one end of the sliding base is connected with a winding roller structure through symmetrically-arranged machine box bases, one end of the winding roller structure is provided with a rotary pressing assembly used for pressing waste silk, and symmetrically-arranged adjusting type feeding roller mechanisms are arranged on the sliding base and located on one side of the winding roller structure in a sliding mode; a sliding type material blocking assembly is arranged between the adjusting type feeding roller mechanisms. The waste wire winding device has the advantages that the waste wire winding device can be synchronous with a shearing machine, waste wires can be wound at the same time, then the waste wires can be shaped in advance, and the winding quality is improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of mechanical equipment, in particular to a waste silk collecting machine. BACKGROUND

[0002] The base material for manufacturing bridges and wind power is a variety of steel produced by rolling in a steel plant. Most steel plants ensure the width size of the steel plate by shearing the edge of the steel plate during the production of the base material. The waste edge and waste silk are broken and then collected into a hopper through a conveying chain. The waste steel is pulled to the waste steel site by a suction cup hoist, which affects the production efficiency and has a low accident rate. The double-edge shearing of the medium plate finishing and the waste silk collection use a conveying chain to collect the waste edge. Currently, the waste material often gets stuck. Since there is a gap in the conveying chain, the waste edge is easily blocked by the chain. When processing, personnel need to enter the conveying chain, which causes more abnormal operations and makes it difficult to control personnel safety. In addition, the waste silk after shearing is difficult to roll synchronously with the shearing machine. Secondly, the waste silk after shearing is difficult to shape, which makes it difficult for the rolling machine to roll stably.

[0003] In order to solve the problems in the prior art, people have carried out long-term exploration and proposed various solutions. For example, a steel plate shearing waste material collecting and automatic conveying device [CN202311801368.3] is disclosed in Chinese patent documents, which includes a steel wire rope drum driven by a motor and a speed reducer. The steel wire rope drum is installed on a drum seat. A steel wire rope compression roller is horizontally arranged above the steel wire rope drum. A pulley block is arranged on the other side of the drum seat. One end of the steel wire rope is wound around the drum, and the other end is wound around the steel wire rope compression roller through the pulley block. Three material conveying trolleys are connected to the steel wire rope between the steel wire rope compression roller and the pulley block. The material conveying trolley is pulled by the steel wire rope to run along the shearing machine track. The shearing machine is arranged above the material conveying trolley.

[0004] The above-mentioned scheme solves the problem of low efficiency and blocking of the chain after shearing the steel plate to a certain extent, but the scheme still has many deficiencies, for example: the waste silk after shearing is difficult to roll synchronously with the shearing machine. Secondly, the waste silk after shearing is difficult to shape, which makes it difficult for the rolling machine to roll stably. SUMMARY

[0005] The purpose of the present application is to solve the above-mentioned problems, and provide a waste silk collecting machine.

[0006] In order to achieve the above object, the following technical scheme is adopted in the present application: A waste silk collecting machine is arranged on one side of a silk cutting machine and comprises a sliding base, a winding roller structure is connected to one end of the sliding base through symmetrically arranged machine box seats, a rotating pressing assembly for pressing the waste silk is arranged at one end of the winding roller structure, symmetrically arranged adjustable feeding roller mechanisms are slidably arranged on the sliding base and located on one side of the winding roller structure, and a sliding material blocking assembly is arranged between the adjustable feeding roller mechanisms.

[0007] In the waste silk collecting machine, the winding roller structure comprises linkage material guiding seats provided with inner walls of the machine box seats, the cross section of the linkage material guiding seat is trapezoidal, waste silk winding rollers are connected between the linkage material guiding seats, and the linkage material guiding seats are driven by rotating driving motors arranged in the machine box seats.

[0008] In the waste silk collecting machine, linkage insertion rods are arranged at both ends of the waste silk winding rollers, the end portions of the waste silk winding rollers are provided with insertion seats arranged perpendicularly to each other, the end of the linkage material guiding seat away from the machine box seat is provided with circumferential positioning insertion grooves corresponding to the insertion seats and arranged perpendicularly to each other, a connecting insertion groove is arranged at the axis of the linkage material guiding seat, the linkage insertion rods can be inserted into the connecting insertion groove, so that the linkage material guiding seat and the waste silk winding roller are fixedly connected and linked, and a plurality of winding positioning grooves for positioning the bottom layer of the wound waste silk are arranged on the waste silk winding roller.

[0009] In the waste silk collecting machine, the rotating pressing assembly comprises a lifting adjusting mechanism arranged on one of the machine box seats, an auxiliary supporting mechanism is connected to the upper end of the lifting adjusting mechanism through a rotating adjusting shaft, the rotating adjusting shaft extends towards the upper side of the linkage material guiding seat at one end and is connected to a pressing roller through an arc-shaped connecting frame, and the rotating adjusting shaft is driven by an external rotating motor.

[0010] In the waste silk collecting machine, the auxiliary supporting mechanism comprises a rotating connecting frame rotatably connected to one end of the rotating adjusting shaft, a rotating connecting seat is arranged on the machine box seat, a telescopic connecting rod is arranged at the end of the rotating connecting frame away from the rotating adjusting shaft, and the two ends of the telescopic connecting rod are rotatably connected to the rotating connecting seat and the rotating connecting frame through rotating connecting shafts.

[0011] In the waste silk collecting machine, the lifting adjusting mechanism comprises a sliding connecting seat arranged on the outer wall of the machine box seat, symmetrically arranged lifting adjusting rods are slidably arranged on the sliding connecting seat, the lifting adjusting rods are connected through a linkage cross bar, a lifting adjusting cylinder is arranged on the outer wall of the machine box seat, the output end of the lifting adjusting cylinder acts on the linkage cross bar and drives the linkage cross bar to drive the lifting adjusting rods to adjust on the sliding connecting seat, so as to control the height position of the rotating adjusting shaft, and the rotating adjusting shaft is rotatably arranged at the end of the lifting adjusting rod away from the lifting adjusting cylinder.

[0012] In the waste silk collecting machine, the adjustable feeding roller mechanism comprises a sliding support base, an adjusting box body is arranged on the sliding support base, a waste silk advancing roller is connected to the adjusting box body through a connecting angle frame on both sides of the adjusting box body, a lifting adjusting sliding groove is arranged on both sides of the adjusting box body, and the connecting angle frame is slidingly arranged in the lifting adjusting sliding groove; a connecting sliding block is arranged at one end of the connecting angle frame, a advancing roller adjusting seat is connected to the other end of the connecting angle frame through a connecting rotating shaft, and the waste silk advancing roller is rotatably arranged at one end of the advancing roller adjusting seat away from the connecting rotating shaft.

[0013] In the waste silk collecting machine, a sliding assembly seat is arranged at the upper end of the adjusting box body, parallel pressing rollers are arranged on the upper end of the sliding assembly seat, a feeding gap for the waste silk to pass through is formed between the pressing rollers, a rotating mounting seat is arranged at the upper end of the pressing roller, a feeding pressing cylinder is connected to the rotating mounting seat through a rotating linkage frame, the rotating linkage frame is rotatably arranged on the rotating shaft of the rotating mounting seat for angle adjustment, and a rotating adjusting motor for driving the rotating shaft to rotate is arranged on one side of the rotating mounting seat.

[0014] In the waste silk collecting machine, a lower adjusting sliding groove is arranged on the upper end surface of the sliding assembly seat, an upper adjusting sliding groove is arranged on the lower end surface of the rotating mounting seat, a rotating bearing for connecting the pressing roller is arranged in the upper adjusting sliding groove and the lower adjusting sliding groove, position adjusting cylinders are arranged on both sides of the sliding assembly seat, and the output end of the position adjusting cylinder is arranged in the lower adjusting sliding groove and acts on the corresponding rotating bearing.

[0015] In the waste silk collecting machine, the sliding type material blocking assembly comprises a sliding adjusting seat, a material blocking partition plate is slidingly arranged on the sliding adjusting seat, a lifting sliding groove is arranged on one side of the material blocking partition plate, an L-shaped material clamping seat is slidingly arranged in the lifting sliding groove through a sliding connecting block, a material pressing plate is arranged on the material clamping seat in a lifting mode, a waste silk positioning cavity is formed between the material pressing plate and the bottom of the material clamping seat, and a lifting cylinder is arranged on one side of the sliding connecting block and acts on the material pressing plate to change the size of the waste silk positioning cavity.

[0016] Compared with the prior art, the advantages of the present application are that:

[0017] 1. The rotating type pressing assembly is matched with the material pressing roller through the lifting type adjusting mechanism, the height of the material pressing roller is adjusted in real time according to the change of the waste silk winding diameter, the material pressing roller is always closely attached to the waste silk on the winding roller, the shaping and pressing before winding are realized, the waste silk is prevented from being dragged or slipping, and in addition, the auxiliary supporting mechanism can stabilize the rotating track of the material pressing roller and prevent the material from deviating.

[0018] 2. A feeding gap is formed between the lower pressing rollers. The upper feeding pressing roller can adjust the pressing angle and force by rotating the linkage frame. The double pressing ensures that the waste wire remains straight during transportation, avoiding curling and tangling. Secondly, the pressing roller can slide along the slide chute, flexibly adjusting the distance between the two rollers to adapt to waste wires of different thicknesses and ensure that the pressing force is moderate. The lifting adjustment slide chute and the connecting angle frame can adjust the height of the waste wire push roller, ensuring that the waste wire conveying path is aligned with the axis of the take-up roller, avoiding the winding disorder caused by conveying deviation, and completely solving the problem of irregular shape in waste wire transportation.

[0019] 3. The baffle plate can be slidably adjusted to limit the waste wire conveying range from both sides, preventing local deformation and displacement of the waste wire during conveying. The height of the pressure plate can be adjusted by the lifting cylinder so that the pressure plate and the bottom of the clamping seat form a waste wire positioning cavity that is suitable for the thickness of the waste wire, and the waste wire is accurately fixed in the cavity for conveying, avoiding dispersion and twisting during conveying. At the same time, the sliding connecting block can be adjusted in height along the lifting groove of the baffle plate to adapt to waste wires with different conveying heights. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0021] Figure 2 This is a schematic diagram of the winding roller structure in this invention;

[0022] Figure 3 This is a detailed structural diagram of the waste filament take-up roller in this invention;

[0023] Figure 4 This is a schematic diagram of the end face structure of the linkage guide seat in this invention;

[0024] Figure 5 This is a schematic diagram of the auxiliary support mechanism in this invention;

[0025] Figure 6 This is a schematic diagram of the sliding connecting seat structure in this invention;

[0026] Figure 7 This is a schematic diagram of the arc-shaped connecting frame and pressure roller structure in this invention;

[0027] Figure 8 This is a schematic diagram of the adjustable feeding roller mechanism in this invention;

[0028] Figure 9 This is a cross-sectional view of the sliding stop assembly in this invention;

[0029] In the diagram: 1. Sliding base; 2. Chassis base; 3. Take-up roller structure; 31. Linkage guide seat; 311. Circumferential positioning slot; 312. Connecting slot; 32. Waste wire take-up roller; 321. Linkage insertion rod; 322. Insertion seat; 323. Take-up positioning groove; 4. Rotary pressing assembly; 41. Lifting adjustment mechanism; 41. Sliding connecting seat; 412. Lifting adjustment rod; 413. Linkage crossbar; 414. Lifting adjustment cylinder; 42. Rotary adjustment shaft; 43. Auxiliary support mechanism; 431. Rotary connecting frame; 432. Rotary connecting seat; 433. Telescopic connecting rod; 44. Arc-shaped connecting frame; 45. Pressure roller; 56. Adjustable feeding roller mechanism; 57. Sliding support seat; 51. Adjustment box; 52. The components include: lifting and adjusting slide 521, connecting angle bracket 53, connecting slider 531, connecting rotating shaft 532, push roller adjusting seat 533, waste wire push roller 54, sliding assembly seat 55, lower adjusting slide 551, pressing roller 56, feeding gap 561, rotating bearing 562, position adjusting cylinder 563, rotating mounting seat 57, rotating linkage frame 571, feeding pressing cylinder 572, rotating shaft 573, rotating adjusting motor 574, upper adjusting slide 575, sliding stop assembly 6, sliding adjusting seat 61, stop partition 62, lifting slide 63, sliding connecting block 64, clamping seat 65, pressing plate 66, waste wire positioning cavity 67, and lifting cylinder 68. Detailed Implementation

[0030] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0031] like Figures 1-9 As shown, a waste filament take-up machine is provided on one side of the filament shearing machine. It includes a sliding base 1, one end of which is connected to a take-up roller structure 3 via a symmetrically arranged machine base 2. One end of the take-up roller structure 3 is provided with a rotary pressing component 4 for pressing the waste filament. A symmetrically arranged adjustable feeding roller mechanism 5 is slidably arranged on the sliding base 1 and located on one side of the take-up roller structure 3. A sliding material blocking component 6 is arranged between the adjustable feeding roller mechanisms 5.

[0032] The winding roller structure 3 includes a linkage guide seat 31 installed on the inner wall of the housing base 2. The cross section of the linkage guide seat 31 is trapezoidal. Waste filament winding rollers 32 are connected between the linkage guide seats 31. The linkage guide seats 31 are driven by a rotation drive motor installed in the housing base 2.

[0033] Waste wire is pre-wound to the linkage guide seat 31, and then slides onto the waste wire take-up roller 32 via the linkage guide seat 31, thereby guiding the waste wire to gather towards the axis of the waste wire take-up roller 32 and avoiding initial deviation of the waste wire; and the linkage guide seat 31 is directly driven by the rotation drive motor in the machine housing 2, and is linked with the shearing machine power system through the electrical control system, so that the rotation speed of the linkage guide seat 31 matches the waste wire output speed of the shearing machine, realizing synchronous shearing and winding.

[0034] Obviously, the waste silk winding roller 32 is provided with a linkage plug rod 321 at both ends, and the end of the waste silk winding roller 32 is provided with a plug seat 322 arranged perpendicularly to each other, and the end of the linkage guide seat 31 away from the cabinet seat 2 is provided with a circumferential positioning slot 311 corresponding to the plug seat 322 and perpendicular to each other, and the axis of the linkage guide seat 31 is provided with a connecting slot 312 for inserting the linkage plug rod 321, so that the linkage guide seat 31 and the waste silk winding roller 32 are fixedly connected and linked, and the waste silk winding roller 32 is provided with a plurality of winding positioning grooves 323 for positioning the bottom winding waste silk.

[0035] The waste silk winding roller 32 is fixedly linked with the linkage guide seat 31 through a double positioning structure, avoiding slipping and deviation of the winding roller and the driving end, and ensuring that the rotating speed of the waste silk winding roller 32 is completely synchronized with the linkage guide seat 31.

[0036] Obviously, the rotating type pressing assembly 4 includes a lifting type adjusting mechanism 41 arranged on one of the cabinet seats 2, and the upper end of the lifting type adjusting mechanism 41 is connected with an auxiliary supporting mechanism 43 through a rotating adjusting shaft 42, one end of the rotating adjusting shaft 42 extends towards the upper side of the linkage guide seat 31 and is connected with a pressing roller 45 through an arc-shaped connecting frame 44, and the rotating adjusting shaft 42 is driven by an external rotating motor.

[0037] The sliding connection seat 411 provides sliding guide for the lifting adjusting rod 412, when the diameter of the waste silk on the waste silk winding roller 32 gradually increases, the output end of the lifting adjusting cylinder 414 pushes the linkage cross rod 413, drives the symmetrical lifting adjusting rod 412 to slide upwards along the sliding connection seat 411, and then drives the pressing roller 45 to rise synchronously through the rotating adjusting shaft 42, so as to ensure that the pressing roller 45 is always tightly combined with the waste silk on the waste silk winding roller 32.

[0038] Further, the auxiliary supporting mechanism 43 includes a rotating connecting frame 431 rotatably connected with one end of the rotating adjusting shaft 42, and the cabinet seat 2 is provided with a rotating connecting seat 432, and the rotating connecting seat 432 and the end of the rotating connecting frame 431 away from the rotating adjusting shaft 42 are provided with a telescopic connecting rod 433, and the two ends of the telescopic connecting rod 433 are rotatably connected with the rotating connecting seat 432 and the rotating connecting frame 431 through rotating connecting shafts.

[0039] The auxiliary supporting mechanism 43 plays a role in stabilizing the motion track of the pressing roller 45, when the rotating adjusting shaft 42 rises and falls with the lifting adjusting rod 412, the telescopic connecting rod 433 can rotate and stretch synchronously, cooperate with the angle change of the rotating connecting frame 431, limit the swing range of the pressing roller 45, and ensure that it is always pressed in the tangential direction of the waste silk winding roller 32, so as to avoid destroying the synchronism due to deviation of pressing.

[0040] Specifically, the lifting adjusting mechanism 41 comprises a sliding connecting seat 411 arranged on the outer wall of the case seat 2, lifting adjusting rods 412 are arranged on the sliding connecting seat 411 in a symmetrical manner, the lifting adjusting rods 412 are connected through a linkage cross bar 413, the outer wall of the case seat 2 is provided with a lifting adjusting cylinder 414, the output end of the lifting adjusting cylinder 414 acts on the linkage cross bar 413 and drives the linkage cross bar 413 to drive the lifting adjusting rods 412 to adjust on the sliding connecting seat 411, so as to control the height position of the rotating adjusting shaft 42, and the rotating adjusting shaft 42 is rotatably arranged at one end of the lifting adjusting rods 412 away from the lifting adjusting cylinder 414.

[0041] Further, the adjustable feeding roller mechanism 5 comprises a sliding support seat 51, an adjusting box 52 is arranged on the sliding support seat 51, waste silk advancing rollers 54 are connected to the adjusting box 52 through connecting angle supports 53 on both sides of the adjusting box 52, lifting adjusting sliding grooves 521 are arranged on both sides of the adjusting box 52, and the connecting angle supports 53 are slidingly arranged in the lifting adjusting sliding grooves 521; one end of each connecting angle support 53 is provided with a connecting sliding block 531, and the other end of each connecting angle support 53 is connected with an advancing roller adjusting seat 533 through a connecting rotating shaft 532, and the waste silk advancing rollers 54 are rotatably arranged at one end of the advancing roller adjusting seat 533 away from the connecting rotating shaft 532.

[0042] The sliding support seat 51 can slide horizontally along the sliding base 1, drive the entire adjustable feeding roller mechanism 5 to adjust the relative position with the winding roller structure 3, and ensure that the waste silk conveying path is aligned with the axis of the waste silk winding roller 32.

[0043] More specifically, the upper end of the adjusting box 52 is provided with a sliding assembly seat 55, the sliding assembly seat 55 is provided with pressing rollers 56 arranged in parallel on the upper end, a feeding gap 561 for the waste silk to pass through is formed between the pressing rollers 56, a rotating mounting seat 57 is arranged on the upper end of the pressing rollers 56, a feeding pressing cylinder 572 is connected to the rotating mounting seat 57 through a rotating linkage frame 571, the rotating linkage frame 571 is adjusted in rotation angle through a rotating shaft 573 rotatably arranged on the rotating mounting seat 57, and a rotating adjusting motor 574 for driving the rotating shaft 573 to rotate is arranged on one side of the rotating mounting seat 57.

[0044] The lifting adjusting sliding grooves 521 on both sides of the adjusting box 52 provide lifting guidance for the connecting angle supports 53, the lifting position of the connecting angle supports 53 is adjusted according to the height of the waste silk output from the cutting machine, and then the waste silk advancing rollers 54 are driven by the advancing roller adjusting seat 533, so that the waste silk advancing rollers 54 always adhere to the bottom of the waste silk, auxiliary forward conveying, and prevent the waste silk from sagging and curling due to height misalignment.

[0045] In detail, the upper end surface of the sliding assembly seat 55 is provided with a lower adjusting sliding groove 551, and the lower end surface of the rotating mounting seat 57 is provided with an upper adjusting sliding groove 575. The upper adjusting sliding groove 575 and the lower adjusting sliding groove 551 are correspondingly provided with rotating bearings 562 connected with the rotating pressing roller 56. Position adjusting cylinders 563 are arranged on both sides of the sliding assembly seat 55. The output ends of the position adjusting cylinders 563 are arranged in the lower adjusting sliding groove 551 and act on the corresponding rotating bearings 562.

[0046] The waste silk is clamped and conveyed by the pressing roller 56 in the feeding gap 561, and the waste silk is preliminarily straightened. Meanwhile, the position adjusting cylinders 563 on both sides of the sliding assembly seat 55 can push the rotating bearings 562 in the lower adjusting sliding groove 551 to slide, so as to adjust the distance between the two pressing rollers 56, adapt to waste silk of different thicknesses, and ensure that the pressing force is moderate.

[0047] The feeding pressing cylinder 572 is adjusted by the rotating linkage frame 571 through the rotating shaft 573 to press downward or lift upward. When the feeding pressing cylinder 572 is pressed, a double pressing structure of upward and downward clamping is formed with the waste silk pushing roller 54 below, so as to further straighten the waste silk and avoid twisting and winding of the waste silk during conveying.

[0048] Preferably, the sliding material blocking assembly 6 comprises a sliding adjusting seat 61, a material blocking partition plate 62 is slidably arranged on the sliding adjusting seat 61, the material blocking partition plate 62 has a lifting sliding groove 63 on one side, an L-shaped material blocking seat 65 is slidably arranged in the lifting sliding groove 63 through a sliding connecting block 64, a material pressing plate 66 is arranged on the material blocking seat 65 in a lifting manner, a waste silk positioning cavity 67 is formed between the material pressing plate 66 and the bottom of the material blocking seat 65, and a lifting cylinder 68 is arranged on one side of the sliding connecting block 64 and acts on the material pressing plate 66 to change the size of the waste silk positioning cavity 67.

[0049] The sliding adjusting seat 61 can drive the material blocking partition plate 62 to slide in the horizontal direction, the distance between the two material blocking partition plates 62 is adjusted according to the width of the waste silk, a limiting barrier is formed on both sides of the waste silk to prevent the waste silk from deviating during conveying. The lifting sliding groove 63 of the material blocking partition plate 62 can drive the sliding connecting block 64 to lift in the vertical direction to adapt to the conveying height of the waste silk. The material pressing plate 66 on the material blocking seat 65 is pushed by the output end of the lifting cylinder 68 to adjust the distance from the bottom of the material blocking seat 65, so as to form a waste silk positioning cavity 67 with adjustable size. When the waste silk passes through the waste silk positioning cavity 67, the waste silk is positioned by the material pressing plate 66 and the material blocking seat 65 to avoid dispersion and bulging during conveying, and ensure that the waste silk enters the subsequent winding link in a flat shape.

[0050] In summary, the principle of the embodiment is that:

[0051] The winding roller structure 3 is rigidly connected with the waste yarn winding roller 32 through the linkage guide seat 31 and the double positioning of the waste yarn winding roller 32, and the synchronous problem of winding and shearing machine is solved by the rotary pressing assembly 4; the adjustable feeding roller mechanism 5 adjusts the position through the sliding support seat 51, and the multi-layer pressing is realized through the pressing roller 56 and the feeding pressing cylinder 572, and the lifting and position adjusting structure is combined to adapt to the waste yarn, so that the conveying and shaping are completed; the sliding blocking assembly 6 uses the blocking partition plate 62 to limit and fix the waste yarn in the waste yarn positioning cavity 67, so that the conveying form is further regularized, and the purpose of stable conveying, shaping and synchronous winding of the waste yarn is achieved.

[0052] The specific embodiments described herein are merely illustrative of the spirit of the present application. Those skilled in the art of the present application can make various modifications or supplements to the described specific embodiments or use similar ways to replace them, without deviating from the spirit of the present application or exceeding the scope defined by the appended claims.

[0053] Although the terms sliding base 1, case seat 2, winding roller structure 3, linkage guide seat 31, circumferential positioning slot 311, connecting slot 312, waste yarn winding roller 32, linkage plug-in rod 321, plug-in seat 322, winding positioning slot 323, rotary pressing assembly 4, lifting adjusting mechanism 41, sliding connecting seat 411, lifting adjusting rod 412, linkage cross rod 413, lifting adjusting cylinder 414, rotary adjusting shaft 42, auxiliary support mechanism 43, rotary connecting frame 431, rotary connecting seat 432, telescopic connecting rod 433, arc-shaped connecting frame 44, pressing roller 45, adjustable feeding roller mechanism 5, sliding support seat 51, adjusting box 52, lifting adjusting sliding groove 521, connecting corner frame 53, connecting sliding block 531, connecting rotating shaft 532, advancing roller adjusting seat 533, waste yarn advancing roller 54, sliding assembly seat 55, lower adjusting sliding groove 551, pressing roller 56, feeding gap 561, rotary bearing 562, position adjusting cylinder 563, rotary mounting seat 57, rotary linkage frame 571, feeding pressing cylinder 572, rotary shaft 573, rotary adjusting motor 574, upper adjusting sliding groove 575, sliding blocking assembly 6, sliding adjusting seat 61, blocking partition plate 62, lifting sliding groove 63, sliding connecting block 64, blocking seat 65, pressing plate 66, waste yarn positioning cavity 67, lifting cylinder 68 and the like are used more frequently in the present application, but the possibility of using other terms is not excluded. The use of these terms is only for the convenience of describing and explaining the essence of the present application; any kind of additional limitation is contrary to the spirit of the present application.

Claims

1. A waste filament take-up machine, located on one side of a filament shearing machine, includes a sliding base (1), one end of which is connected to a take-up roller structure (3) via a symmetrically arranged chassis base (2), characterized in that, The winding roller structure (3) is provided with a rotating pressing component (4) for pressing the waste filament at one end. The sliding base (1) is provided with an adjustable feeding roller mechanism (5) symmetrically arranged on one side of the winding roller structure (3). A sliding baffle component (6) is provided between the adjustable feeding roller mechanisms (5).

2. The waste filament take-up machine according to claim 1, characterized in that, The winding roller structure (3) includes a linkage guide seat (31) provided on the inner wall of the housing base (2). The cross section of the linkage guide seat (31) is trapezoidal. Waste wire winding rollers (32) are connected between the linkage guide seats (31). The linkage guide seats (31) are driven by a rotation drive motor provided in the housing base (2).

3. A waste filament take-up machine according to claim 2, characterized in that, The waste filament take-up roller (32) is provided with linkage insertion rods (321) at both ends, and the waste filament take-up roller (32) is provided with insertion seats (322) arranged perpendicularly to each other at the end. The linkage guide seat (31) is provided with a circumferential positioning slot (311) that corresponds to and is perpendicular to the insertion seat (322) at one end away from the machine base (2). The linkage guide seat (31) is provided with a connecting slot (312) at the axis for the linkage insertion rod (321) to be inserted, so that the linkage guide seat (31) and the waste filament take-up roller (32) can form a fixed connection and linkage. The waste filament take-up roller (32) is provided with a number of take-up positioning grooves (323) for positioning the bottom layer of waste filament.

4. The waste filament take-up machine according to claim 1, characterized in that, The rotary pressing assembly (4) includes a lifting adjustment mechanism (41) mounted on one of the housing bases (2). The upper end of the lifting adjustment mechanism (41) is connected to an auxiliary support mechanism (43) via a rotary adjustment shaft (42). One end of the rotary adjustment shaft (42) extends toward the upper side of the linkage guide seat (31) and is connected to a pressing roller (45) via an arc-shaped connecting frame (44). The rotary adjustment shaft (42) is driven by an external rotary motor.

5. A waste filament take-up machine according to claim 4, characterized in that, The auxiliary support mechanism (43) includes a rotating connecting frame (431) with one end rotatably connected to the rotating adjustment shaft (42). The chassis base (2) is provided with a rotating connecting seat (432). The rotating connecting seat (432) and the rotating connecting frame (431) are provided with a telescopic connecting rod (433) at the end away from the rotating adjustment shaft (42). The two ends of the telescopic connecting rod (433) are rotatably connected to the rotating connecting seat (432) and the rotating connecting frame (431) respectively through the rotating connecting shaft.

6. A waste filament take-up machine according to claim 5, characterized in that, The lifting adjustment mechanism (41) includes a sliding connecting seat (411) disposed on the outer wall of the chassis base (2). The sliding connecting seat (411) is provided with symmetrically arranged lifting adjustment rods (412). The lifting adjustment rods (412) are connected to each other by a linkage crossbar (413). The outer wall of the chassis base (2) is provided with a lifting adjustment cylinder (414). The output end of the lifting adjustment cylinder (414) acts on the linkage crossbar (413) and drives the linkage crossbar (413) to drive the lifting adjustment rods (412) to adjust on the sliding connecting seat (411) to control the height position of the rotating adjustment shaft (42). The rotating adjustment shaft (42) is rotatably disposed at the end of the lifting adjustment rod (412) away from the lifting adjustment cylinder (414).

7. A waste filament take-up machine according to claim 1, characterized in that, The adjustable feeding roller mechanism (5) includes a sliding support base (51), an adjustment box (52) is provided on the sliding support base (51), waste wire feeding rollers (54) are connected to both sides of the adjustment box (52) through connecting brackets (53), lifting adjustment grooves (521) are provided on both sides of the adjustment box (52), and the connecting brackets (53) are slidably and vertically arranged in the lifting adjustment grooves (521); one end of the connecting brackets (53) has a connecting slider (531), and the other end of the connecting brackets (53) is connected to a feeding roller adjustment seat (533) through a connecting shaft (532), and the waste wire feeding roller (54) is rotatably arranged at the end of the feeding roller adjustment seat (533) away from the connecting shaft (532).

8. A waste filament take-up machine according to claim 7, characterized in that, The upper end of the adjustment box (52) is provided with a sliding mounting seat (55), and the upper end of the sliding mounting seat (55) is provided with pressing rollers (56) arranged parallel to each other, and a feeding gap (561) is formed between the pressing rollers (56) to allow waste wire to pass through. The upper end of the pressing roller (56) is provided with a rotating mounting seat (57), and the rotating mounting seat (57) is connected to the feeding pressing cylinder (572) through a rotating linkage frame (571). The rotating linkage frame (571) is rotated by a rotating shaft (573) rotatably mounted on the rotating mounting seat (57), and a rotating adjustment motor (574) for driving the rotating shaft (573) to rotate is provided on one side of the rotating mounting seat (57).

9. A waste filament take-up machine according to claim 8, characterized in that, The upper end face of the sliding assembly base (55) is provided with a lower adjusting slide groove (551), and the lower end face of the rotating mounting base (57) is provided with an upper adjusting slide groove (575). The upper adjusting slide groove (575) and the lower adjusting slide groove (551) are respectively provided with rotating bearings (562) that rotatably connect to the pressing roller (56). The sliding assembly base (55) is provided with position adjusting cylinders (563) on both sides. The output end of the position adjusting cylinder (563) passes through the lower adjusting slide groove (551) and acts on the corresponding rotating bearing (562).

10. A waste filament take-up machine according to claim 1, characterized in that, The sliding baffle assembly (6) includes a sliding adjustment seat (61), on which a baffle plate (62) is slidably disposed. The baffle plate (62) has a lifting groove (63) on one side. A L-shaped clamping seat (65) is slidably disposed in the lifting groove (63) through a sliding connecting block (64). A pressure plate (66) is lifted and lowered on the clamping seat (65). A waste wire positioning cavity (67) is formed between the pressure plate (66) and the bottom of the clamping seat (65). A lifting cylinder (68) with an output end acting on the pressure plate (66) to change the size of the waste wire positioning cavity (67) is disposed on one side of the sliding connecting block (64).

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