Fully automatic metal hexagonal mesh weaving machine winding mechanism

Abstract

The present invention discloses a winding mechanism of a fully automatic metal hexagonal mesh weaving machine, and relates to the technical field of metal hexagonal mesh winding, comprising a frame, wherein the frame is also provided with a guiding mechanism, a winding mechanism, a traction and pressing mechanism, and an auxiliary pressing mechanism. The winding mechanism is used for winding the metal hexagonal mesh passing through the guiding mechanism, and two traction and pressing mechanisms are provided, and are respectively used for clamping the two sides of the end of the metal hexagonal mesh to pull it onto the winding mechanism for pressing. The present invention clamps the two sides of the end of the metal hexagonal mesh onto the winding mechanism for pressing by two traction and pressing mechanisms, and presses the metal hexagonal mesh by the auxiliary pressing mechanism when the metal hexagonal mesh is wound to the second circle on the winding mechanism, so that the traction and pressing mechanism releases the restriction on the metal hexagonal mesh and stays away from the metal hexagonal mesh, thereby avoiding the traction and pressing mechanism from interfering with the winding process of the metal hexagonal mesh, avoiding damage to the end of the metal hexagonal mesh, and ensuring the stability of the end of the metal hexagonal mesh when it is fixed.

Description

Technical Field

[0001] The invention relates to the technical field of metal hexagonal mesh rolling, and in particular to a rolling mechanism of a full-automatic metal hexagonal mesh weaving machine. Background Art

[0002] Hexagonal Metal Mesh is a hexagonal metal mesh made by twisting high-quality steel wires by machines. Hexagonal Metal Mesh is mainly used for animal breeding garden fencing, protection of mechanical equipment, etc. After the weaving is completed by the weaving mechanism on the weaving machine, it needs to be reeled up by the reeling mechanism at the bottom of the weaving machine.

[0003] With current technology, when rolling up the metal hexagonal mesh, there is no effective fixation for the end of the metal hexagonal mesh initially rolled up on the rolling mechanism, and it needs to be fixed by other means such as manual pressing, etc., so as to facilitate the subsequent rolling up of the metal hexagonal mesh. This operation not only affects the efficiency but also easily scratches the workers. The existing utility model patent with authorization announcement number CN217191723U discloses a rolling mechanism of a fully automatic metal hexagonal mesh weaving machine, which adds grooves, convex teeth and retaining edges. When the metal hexagonal mesh needs to be rolled up, the end of the metal hexagonal mesh can be placed in the groove, and the end of the metal hexagonal mesh is blocked by the convex teeth. When the motor is started to roll up, the rolling work can be completed without pressing the end of the metal hexagonal mesh by hand, thereby avoiding scratches on the hands of the staff during operation.

[0004] However, the prior art also has the following defects: it inserts a plurality of convex teeth into the mesh holes of the metal hexagonal mesh to hang the end of the metal hexagonal mesh in the groove, but the metal hexagonal mesh will be cut after being rolled up to a certain length. At this time, the end of the metal hexagonal mesh is hooked and fixed by the convex teeth, which will cause the end of the metal hexagonal mesh to be easily loosened. In addition, the diameter of the steel wire of the metal hexagonal mesh is small. If the length of the convex teeth is short, the end of the metal hexagonal mesh cannot be effectively hung. If the length of the convex teeth is long, the steel wire of other adjacent layers of the metal hexagonal mesh after being rolled up for multiple turns will be pressed, affecting the rolling of the metal hexagonal mesh. Summary of the invention

[0005] The purpose of the present invention is to provide a fully automatic metal hexagonal mesh weaving machine winding mechanism, which solves the problems raised in the above background technology.

[0006] In order to solve the above technical problems, the present invention specifically provides the following technical solutions:

[0007] The winding mechanism of the fully automatic metal hexagonal mesh weaving machine includes a frame, and the frame is also provided with a guiding mechanism, a winding mechanism, a traction and clamping mechanism and an auxiliary clamping mechanism. The winding mechanism is used to wind up the metal hexagonal mesh passing through the guiding mechanism. Two traction and clamping mechanisms are provided, and are respectively used to clamp the two sides of the end of the metal hexagonal mesh to pull it onto the winding mechanism for clamping, and when the metal hexagonal mesh is wound for the second circle to contact with the end of the metal hexagonal mesh, the auxiliary clamping mechanism presses the metal hexagonal mesh and the traction and clamping mechanism is out of contact with the metal hexagonal mesh.

[0008] As a preferred solution of the present invention, the winding mechanism includes two rotating shafts symmetrically connected to the frame and parallel to the horizontal plane, and one of the rotating shafts is connected to a first rotating device, and both rotating shafts are provided with locking components, and the two rotating shafts are jointly detachably mounted with a winding shaft through two locking components, and the winding shaft rotates coaxially with the rotating shaft, and the winding shaft is provided with a receiving groove for placing the end of the metal hexagonal mesh.

[0009] As a preferred scheme of the present invention, the traction and clamping mechanism includes a base plate fixed on the frame and coaxially sleeved on the outside of the rotating shaft and a bracket arranged on the frame, the bracket is provided with a rotating part coaxial with the rotating shaft, a second rotating device connected to the base plate is provided on one side of the rotating part, and the second rotating device is used to drive the rotating part to rotate coaxially with the rotating shaft, a third rotating device whose rotation center line is perpendicular to the axis on the rotating shaft is provided on the other side of the rotating part, a connecting seat connected to the rotating part is connected to the third rotating device, and the third rotating device is used to drive the connecting seat to rotate to be parallel to or perpendicular to the axis of the winding shaft, a telescopic device that moves radially along the winding shaft is provided on one side of the connecting seat, a clamping assembly for clamping the metal hexagonal mesh is provided on the other side of the connecting seat, and the clamping assembly is connected to the end of the telescopic device, and the telescopic device is used to transport the end of the metal hexagonal mesh fixed on the clamping assembly into the accommodating groove.

[0010] As a preferred solution of the present invention, the rotating member includes a support ring fixed on the bracket, and the support ring is coaxial with the winding shaft and is sleeved on the outside of the rotating shaft, the inner wall of the support ring is rotatably connected with a rotating ring, and the side of the rotating ring facing the base plate is connected to the second rotating device, the side of the rotating ring facing away from the base plate is provided with an annular fixing plate, and the third rotating device and the connecting seat are both provided on the other side of the annular fixing plate.

[0011] As a preferred solution of the present invention, the second rotating device includes an annular external gear rotatably connected to the base plate, and the annular external gear is coaxially sleeved on the outside of the rotating shaft, the annular external gear is meshed with a transmission gear rotatably connected to the frame, the transmission gear is connected to a driving device connected to the frame via a transmission shaft, and the rotating ring is fixedly connected to the outer wall of the annular external gear.

[0012] As a preferred solution of the present invention, the clamping assembly includes a connecting plate arranged at the end of the telescopic device, a mounting plate is vertically arranged on the side of the connecting plate facing the winding shaft, and the mounting plate is arranged on the edge of the connecting plate close to the rotating part, and a bidirectional motion structure is arranged on the mounting plate for radial movement along the winding shaft, and two clamps are arranged on the bidirectional motion structure for slidingly connecting to the mounting plate, and the two clamps move in opposite directions at the same speed and are used to clamp the metal hexagonal mesh into the accommodating groove.

[0013] As a preferred solution of the present invention, a limiting plate is provided on one side of the annular fixing plate, and when the connecting seat is perpendicular to the annular fixing plate, the limiting plate is abutted against the side of the annular fixing plate facing the winding shaft, and a detection element is provided on the connecting seat, and the detection element is used to detect the relative position between the clamping assembly and the accommodating groove, and send a signal when the positions of the clamping assembly and the accommodating groove are relative.

[0014] As a preferred solution of the present invention, the auxiliary clamping mechanism includes a support plate arranged on a frame, a lifting device moving in a vertical direction is arranged on the support plate, an arc-shaped base is arranged on the top of the lifting device, and a plurality of pressure rollers are rotatably connected to the inner arc surface of the arc-shaped base, and the plurality of pressure rollers are evenly arranged on the inner arc surface of the arc-shaped base and can be fitted on the outer surface of the winding shaft, and the length of the arc-shaped base along the axial direction of the winding shaft is less than the spacing between the two clamping components.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] The present invention clamps two sides of the end of the metal hexagonal mesh onto the winding mechanism for clamping by two traction and clamping mechanisms respectively, and clamps the metal hexagonal mesh by the auxiliary clamping mechanism when the metal hexagonal mesh is rolled up to the second circle on the winding mechanism, so that the traction and clamping mechanism releases the restriction on the metal hexagonal mesh and stays away from the metal hexagonal mesh, thereby avoiding interference of the traction and clamping mechanism with the winding process of the metal hexagonal mesh and avoiding damage to the end of the metal hexagonal mesh, thereby ensuring the stability of the end of the metal hexagonal mesh when fixed. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the implementation methods of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for the implementation methods or the description of the prior art. Obviously, the drawings in the following description are only exemplary, and for ordinary technicians in this field, other implementation drawings can be derived from the provided drawings without creative work.

[0018] Figure 1 It is a structural schematic diagram of the present invention under a first viewing angle;

[0019] Figure 2 It is a structural schematic diagram of the present invention under a second viewing angle;

[0020] Figure 3 It is a cross-sectional structural schematic diagram of the present invention;

[0021] Figure 4 It is a partial structural schematic diagram of the present invention;

[0022] Figure 5 for Figure 1 A schematic diagram of the structure enlargement of part A shown in FIG.

[0023] Figure 6 for Figure 2 An enlarged schematic diagram of the structure of part B is shown in FIG.

[0024] The numbers in the figure represent the following:

[0025] 1. Frame; 2. Guide mechanism; 3. Winding mechanism; 4. Traction and clamping mechanism; 5. Auxiliary clamping mechanism;

[0026] 301, rotating shaft; 302, first rotating device; 303, locking assembly; 304, reeling shaft; 305, accommodating groove; 401, bottom plate; 402, bracket; 403, rotating member; 404, second rotating device; 405, third rotating device; 406, connecting seat; 407, telescopic device; 408, clamping assembly; 409, supporting ring; 410, rotating ring; 411, annular outer gear; 412, transmission gear; 413, connecting plate; 414, mounting plate; 415, two-way motion structure; 416, clamping plate; 417, annular fixing plate; 418, limiting plate; 501, supporting plate; 502, lifting device; 503, arc base; 504, pressure roller. DETAILED DESCRIPTION

[0027] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0028] like Figures 1 to 6 As shown, the present invention provides a winding mechanism for a fully automatic metal hexagonal mesh weaving machine, including a frame 1, on which a guide mechanism 2, a winding mechanism 3, a traction and clamping mechanism 4 and an auxiliary clamping mechanism 5 are also provided. The winding mechanism 3 is used to wind up the metal hexagonal mesh passing through the guide mechanism 2, and two traction and clamping mechanisms 4 are provided, which are respectively used to clamp the two sides of the end of the metal hexagonal mesh to pull it onto the winding mechanism 3 for clamping, and when the metal hexagonal mesh is rolled up for the second circle to contact with the end of the metal hexagonal mesh, the auxiliary clamping mechanism 5 presses the metal hexagonal mesh and the traction and clamping mechanism 4 is out of contact with the metal hexagonal mesh.

[0029] When the present invention is actually used, after the metal hexagonal mesh woven on the weaving machine is guided by the guide mechanism 2, the two traction and clamping mechanisms 4 clamp the two sides of the end of the metal hexagonal mesh, and pull the end of the metal hexagonal mesh to the winding mechanism 3 for clamping. When the metal hexagonal mesh is rolled up to the second circle and contacts its own end again, the auxiliary clamping mechanism 5 presses the metal hexagonal mesh on the outside of the metal hexagonal mesh, so that the metal hexagonal mesh is compressed while the traction and clamping mechanism 4 can be separated from the metal hexagonal mesh to avoid interference with the subsequent winding action of the metal hexagonal mesh, and the auxiliary clamping mechanism 5 is also separated from the metal hexagonal mesh after compressing the metal hexagonal mesh and winding it for a certain length. At this time, the metal hexagonal mesh can be rolled normally.

[0030] By using the traction clamping mechanism 4 and the auxiliary clamping mechanism 5 in combination, the stability of the metal hexagonal mesh when the end is fixed is ensured, so that the metal hexagonal mesh can be normally rolled up by the rolling mechanism 3, and the clamping and clamping method is used to prevent the end of the metal hexagonal mesh from loosening when it is rolled up again after shearing and splitting.

[0031] In this embodiment, the guide mechanism 2 is used to guide the metal hexagonal mesh to be rolled up, and may be, for example, a guide roller rotatably arranged on the frame 1 .

[0032] The winding mechanism 3 includes two rotating shafts 301 which are symmetrically connected to the frame 1 and parallel to the horizontal plane, and one of the rotating shafts 301 is connected to a first rotating device 302, and both rotating shafts 301 are provided with locking components 303. The two rotating shafts 301 are jointly detachably mounted with a winding shaft 304 through the two locking components 303, and the winding shaft 304 rotates coaxially with the rotating shaft 301, and the winding shaft 304 is provided with a receiving groove 305 for placing the end of the metal hexagonal mesh.

[0033] The end of the metal hexagonal mesh is clamped by the traction and clamping mechanism 4 and pulled into the receiving groove 305 for clamping. Then the first rotating device 302 drives one of the rotating shafts 301 to drive the winding shaft 304 to rotate to wind up the metal hexagonal mesh.

[0034] When the metal hexagonal mesh is rolled up to the second circle and contacts itself, the auxiliary clamping mechanism 5 presses the outside of the metal hexagonal mesh so that the end of the metal hexagonal mesh is clamped, and then the clamping mechanism 4 is pulled away from the metal hexagonal mesh to avoid interference with the subsequent rolling action of the metal hexagonal mesh. The auxiliary clamping mechanism 5 also detaches from the metal hexagonal mesh after the metal hexagonal mesh is rolled up for a certain length.

[0035] The two ends of the reel 304 are respectively installed on the two rotating shafts 301 through two locking components 303, so that the reel 304 can be disassembled, so that the metal hexagonal mesh rolled up on the reel 304 can be collected after the length reaches a preset value, the reel 304 is disassembled to store the rolled metal hexagonal mesh, and a new reel 304 is installed on the two rotating shafts 301.

[0036] In this embodiment, the locking assembly 303 can fix the reeling shaft 304 to the rotating shaft 301, for example, two semicircular plates, one of which is fixed to the end of the rotating shaft 301, and the other semicircular plate is fixed to the semicircular plate on the rotating shaft 301 by bolts, and the end of the reeling shaft 304 is fixed between the two semicircular plates, or other technical solutions are also possible. This is the prior art and its technical principles will not be elaborated in detail.

[0037] The traction and pressing mechanism 4 includes a bottom plate 401 fixed on the frame 1 and coaxially sleeved on the outside of the rotating shaft 301, and a bracket 402 arranged on the frame 1, a rotating member 403 coaxial with the rotating shaft 301 is arranged on the bracket 402, a second rotating device 404 connected to the bottom plate 401 is arranged on one side of the rotating member 403, and the second rotating device 404 is used to drive the rotating member 403 to rotate coaxially with the rotating shaft 301, and a third rotating device 405 whose rotation center line is perpendicular to the axis on the rotating shaft 301 is arranged on the other side of the rotating member 403, and the third rotating device 405 is connected to the rotating shaft 301. A connecting seat 406 connected to the rotating member 403 is provided, and the third rotating device 405 is used to drive the connecting seat 406 to rotate to be parallel to or perpendicular to the axis of the winding shaft 304. A telescopic device 407 that moves radially along the winding shaft 304 is provided on one side of the connecting seat 406, and a clamping assembly 408 for clamping the metal hexagonal mesh is provided on the other side of the connecting seat 406, and the clamping assembly 408 is connected to the end of the telescopic device 407, and the telescopic device 407 is used to transport the end of the metal hexagonal mesh fixed on the clamping assembly 408 to the accommodating groove 305.

[0038] The base plate 401 and the bracket 402 are both used to provide support.

[0039] For the metal hexagonal mesh passing through the guide mechanism 2, the second rotating device 404 drives the rotating member 403 to rotate until the position of the clamping assembly 408 corresponds to the end of the metal hexagonal mesh, and then the two clamping assemblies 408 respectively clamp the two sides of the end of the metal hexagonal mesh, and then the second rotating device 404 drives the clamping assembly 408 to rotate to be opposite to the receiving groove 305, and then the telescopic device 407 drives the clamping assembly 408 to drive the end of the metal hexagonal mesh to enter the receiving groove 305 along the radial direction of the winding shaft 304, and the metal hexagonal mesh is fixed inside the receiving groove 305 by the telescopic device 407. Finally, the first rotating device 302 drives the winding shaft 304 to wind up the metal hexagonal mesh.

[0040] When the metal hexagonal mesh is rolled up to the second circle and contacts its own end, the auxiliary clamping mechanism 5 presses the outer wall of the metal hexagonal mesh, thereby fixing the end of the metal hexagonal mesh on the winding shaft 304. At this time, the clamping assembly 408 releases the clamping of the metal hexagonal mesh, and the telescopic device 407 drives the clamping assembly 408 to reset. Then the third rotating device 405 drives the connecting seat 406 to rotate, and the cross section swept by its rotation center line coincides with the cross section of one of the axis lines on the winding shaft 304, so that the telescopic device 407 and the clamping assembly 408 are away from the winding shaft. 304, until the connecting seat 406 is perpendicular to the axis of the reeling shaft 304, at this time, the distance between the end of the connecting seat 406 and the reeling shaft 304 is the largest, avoiding interference with the reeling action of the metal hexagonal mesh and providing the reeling shaft 304 with more reeling space, and before the third rotating device 405 drives the connecting seat 406 to rotate to be perpendicular to the axis of the reeling shaft 304, the connecting seat 406 is parallel to the axis of the reeling shaft 304, so that the telescopic device 407 and the clamping assembly 408 can easily clamp the end of the metal hexagonal mesh.

[0041] Since the clamping assembly 408 has a certain volume, it will occupy more space outside the reel 304. Therefore, the end of the metal hexagonal mesh is transported to the accommodating groove 305 through the telescopic device 407, which can avoid interference with the reeling action of the metal hexagonal mesh when the end of the metal hexagonal mesh is outside the reel 304.

[0042] The rotating member 403 includes a support ring 409 fixed on the bracket 402, and the support ring 409 is coaxial with the winding shaft 304 and is sleeved on the outside of the rotating shaft 301. The inner wall of the support ring 409 is rotatably connected with a rotating ring 410, and the side of the rotating ring 410 facing the base plate 401 is connected to the second rotating device 404, and the side of the rotating ring 410 facing away from the base plate 401 is provided with an annular fixing plate 417, and the third rotating device 405 and the connecting seat 406 are both arranged on the other side of the annular fixing plate 417.

[0043] The support ring 409 is used to provide support for the rotating ring 410 so that the rotating ring 410 can rotate around the axis of the rotating shaft 301 through the drive of the second rotating device 404, thereby enabling the clamping assembly 408 to rotate around the axis of the winding shaft 304 to a position corresponding to the accommodating groove 305.

[0044] The annular fixing plate 417 is used to provide an installation position and installation space for the third rotating device 405 and the connecting seat 406 .

[0045] The second rotating device 404 includes an annular external gear 411 rotatably connected to the base plate 401, and the annular external gear 411 is coaxially sleeved on the outside of the rotating shaft 301, and the annular external gear 411 is meshed with a transmission gear 412 rotatably connected to the frame 1, and the transmission gear 412 is connected to a driving device connected to the frame 1 through a transmission shaft, and the rotating ring 410 is fixedly connected to the outer wall of the annular external gear 411.

[0046] The second rotating device 404 drives the transmission gear 412 to rotate by driving a driving device such as a motor, thereby driving the annular outer gear 411 to rotate around the axis of the rotating shaft 301 on the base plate 401, and then drives the rotating ring 410 to rotate, so that the position of the clamping assembly 408 rotates to correspond to the accommodating groove 305.

[0047] In this embodiment, other technical solutions can also be used as long as they can drive the rotating member 403 to rotate around the rotating shaft 301. For example, two bevel gears are meshed with each other, one of which is coaxially arranged with the base plate 401 and rotatably connected to the base plate 401, and the other bevel gear is driven to rotate by a motor, etc.

[0048] The clamping assembly 408 includes a connecting plate 413 arranged at the end of the telescopic device 407, a mounting plate 414 is vertically arranged on the side of the connecting plate 413 facing the winding shaft 304, and the mounting plate 414 is arranged on the edge of the connecting plate 413 close to the rotating member 403, and a bidirectional motion structure 415 is arranged on the mounting plate 414 for radial movement along the winding shaft 304, and two clamps 416 slidably connected to the mounting plate 414 are arranged on the bidirectional motion structure 415, and the two clamps 416 move in opposite directions at the same speed and are used to clamp the metal hexagonal mesh into the accommodating groove 305.

[0049] When clamping the end of the metal hexagonal mesh, the metal hexagonal mesh is placed between the two clamping plates 416, and then the two-way motion structure 415 drives the two clamping plates 416 to move toward each other until the metal hexagonal mesh is clamped.

[0050] The bidirectional motion structure 415 moves along the radial direction of the reeling shaft 304 so that the end of the clamped and fixed metal hexagonal mesh can enter the inner bottom of the receiving groove 305 to effectively accommodate the metal hexagonal mesh and improve the utilization effect of the receiving groove 305.

[0051] A limiting plate 418 is provided on one side of the annular fixing plate 417, and the limiting plate 418 abuts against the side of the annular fixing plate 417 facing the winding shaft 304 when the connecting seat 406 is perpendicular to the annular fixing plate 417. A detection element is provided on the connecting seat 406, and the detection element is used to detect the relative position between the clamping assembly 408 and the receiving groove 305, and send a signal when the positions of the clamping assembly 408 and the receiving groove 305 are relative.

[0052] The connection seat 406 is positioned by setting a limit plate 418, so that when the connection seat 406 is driven to rotate to the vertical annular fixing plate 417 by the third rotating device 405, it abuts against the limit plate 418, thereby preventing the clamping assembly 408 from being too close to the winding shaft 304, and ensuring that the telescopic direction of the telescopic device 407 is along the radial direction of the winding shaft 304, thereby preventing the metal hexagonal mesh from being squeezed and deformed and damaged when it is transported to the accommodating groove 305 through the telescopic device 407.

[0053] By setting a detection element to locate the relative position of the clamping assembly 408 and the receiving groove 305, it is ensured that the clamping assembly 408 can accurately transport the end of the metal hexagonal mesh into the receiving groove 305, and transmit the detected information to the corresponding part to control the winding mechanism 3, the traction and clamping mechanism 4 and the auxiliary clamping mechanism 5 to perform corresponding actions. In this embodiment, the detection element can be a camera, etc.

[0054] The auxiliary clamping mechanism 5 includes a support plate 501 arranged on the frame 1, and a lifting device 502 that moves in a vertical direction is arranged on the support plate 501. An arc-shaped base 503 is arranged on the top of the lifting device 502. The inner arc surface of the arc-shaped base 503 is rotatably connected to a plurality of pressure rollers 504, and the plurality of pressure rollers 504 are evenly arranged on the inner arc surface of the arc-shaped base 503 and can be fitted on the outer surface of the winding shaft 304. The length of the arc-shaped base 503 along the axial direction of the winding shaft 304 is less than the spacing between the two clamping assemblies 408.

[0055] When the metal hexagonal mesh is rolled up to the second circle on the winding shaft 304 and contacts the end of the metal hexagonal mesh, the lifting device 502 drives the arc base 503 to drive multiple pressure rollers 504 to rise at the same time, until the multiple pressure rollers 504 are attached to the outside of the metal hexagonal mesh and squeeze the metal hexagonal mesh to fit on the winding shaft 304, so that the end of the metal hexagonal mesh is squeezed and fixed by the pressure rollers 504, and then the clamping assembly 408 releases the clamping of the metal hexagonal mesh and is driven away from the accommodating groove 305 by the telescopic device 407 to avoid interference with the winding of the metal hexagonal mesh. After the metal hexagonal mesh is rolled up for a certain length through the winding shaft 304, the lifting device 502 drives the pressure rollers 504 to move downward and reset to avoid interference with the winding of the metal hexagonal mesh.

[0056] The contact between the pressure roller 504 and the metal hexagonal mesh is rolling contact, which reduces friction and ensures that the metal hexagonal mesh can be normally rolled up on the winding shaft 304. The length of the pressure roller 504 can avoid interference with the two clamping components 408, avoiding interference between the clamping components 408 and the arc base 503 during the process of detaching from the metal hexagonal mesh to a distant place.

[0057] In this embodiment, the first rotating device 302 and the third rotating device 405 are both existing technologies, such as motors and other driving devices. The telescopic device 407 and the lifting device 502 are also existing technologies, such as hydraulic push rods or electric push rods, etc. The bidirectional motion structure 415 is existing technology, such as a screw with two symmetrical threads driven by a motor, etc. The above are all existing technologies, and the technical principles will not be elaborated on here.

[0058] The above embodiments are only exemplary embodiments of the present application and are not intended to limit the present application. The protection scope of the present application is defined by the claims. Those skilled in the art may make various modifications or equivalent substitutions to the present application within the essence and protection scope of the present application, and such modifications or equivalent substitutions shall also be deemed to fall within the protection scope of the present application.

Claims

1. A fully automatic metal hexagonal mesh weaving machine winding mechanism, comprising a frame (1), characterized in that: The frame (1) is also provided with a guide mechanism (2), a winding mechanism (3), a traction and clamping mechanism (4) and an auxiliary clamping mechanism (5); the winding mechanism (3) is used to wind up the metal hexagonal mesh that has passed through the guide mechanism (2); two traction and clamping mechanisms (4) are provided, and are respectively used to clamp the two sides of the end of the metal hexagonal mesh to pull it onto the winding mechanism (3) for clamping; and when the metal hexagonal mesh is wound up for a second turn until it contacts the end of the metal hexagonal mesh, the auxiliary clamping mechanism (5) clamps the metal hexagonal mesh and the traction and clamping mechanism (4) is out of contact with the metal hexagonal mesh; The reeling mechanism (3) comprises two rotating shafts (301) symmetrically connected to the frame (1) and parallel to the horizontal plane, one of the rotating shafts (301) being connected to a first rotating device (302), both rotating shafts (301) being provided with a locking assembly (303), the two rotating shafts (301) being jointly and detachably mounted with a reeling shaft (304) via the two locking assemblies (303), the reeling shaft (304) being coaxially rotated with the rotating shaft (301), and the reeling shaft (304) being provided with a receiving groove (305) for accommodating the end of the metal hexagonal mesh; The traction and clamping mechanism (4) comprises a base plate (401) fixed on the frame (1) and coaxially sleeved on the outside of the rotating shaft (301), and a bracket (402) arranged on the frame (1); a rotating member (403) coaxial with the rotating shaft (301) is arranged on the bracket (402); a second rotating device (404) connected to the base plate (401) is arranged on one side of the rotating member (403); the second rotating device (404) is used to drive the rotating member (403) to rotate coaxially with the rotating shaft (301); a third rotating device (405) whose rotation center line is perpendicular to the axis of the rotating shaft (301) is arranged on the other side of the rotating member (403); the third rotating device (405) 5) is connected to a connecting seat (406) connected to the rotating member (403), and the third rotating device (405) is used to drive the connecting seat (406) to rotate to be parallel to the axis of the winding shaft (304) or perpendicular to the axis of the winding shaft (304), one side of the connecting seat (406) is provided with a telescopic device (407) that moves radially along the winding shaft (304), and the other side of the connecting seat (406) is provided with a clamping assembly (408) for clamping the metal hexagonal mesh, and the clamping assembly (408) is connected to the end of the telescopic device (407), and the telescopic device (407) is used to transport the end of the metal hexagonal mesh fixed on the clamping assembly (408) to the receiving groove (305).

2. The winding mechanism of the fully automatic metal hexagonal mesh weaving machine according to claim 1 is characterized in that: The rotating member (403) comprises a support ring (409) fixed on the bracket (402), and the support ring (409) is coaxial with the reeling shaft (304) and sleeved on the outside of the rotating shaft (301); the inner wall of the support ring (409) is rotatably connected to a rotating ring (410), and the side of the rotating ring (410) facing the bottom plate (401) is connected to the second rotating device (404); the side of the rotating ring (410) facing away from the bottom plate (401) is provided with an annular fixing plate (417), and the third rotating device (405) and the connecting seat (406) are both provided on the other side of the annular fixing plate (417).

3. The winding mechanism of the fully automatic metal hexagonal mesh weaving machine according to claim 2 is characterized in that: The second rotating device (404) comprises an annular external gear (411) rotatably connected to the base plate (401), and the annular external gear (411) is coaxially sleeved on the outside of the rotating shaft (301), the annular external gear (411) is meshed with a transmission gear (412) rotatably connected to the frame (1), the transmission gear (412) is connected to a driving device connected to the frame (1) via a transmission shaft, and the rotating ring (410) is fixedly connected to the outer wall of the annular external gear (411).

4. The winding mechanism of the fully automatic metal hexagonal mesh weaving machine according to claim 1 is characterized in that: The clamping assembly (408) comprises a connecting plate (413) arranged at the end of the telescopic device (407), a mounting plate (414) being vertically arranged on the side of the connecting plate (413) facing the reeling shaft (304), and the mounting plate (414) being arranged on the edge of the connecting plate (413) close to the rotating member (403), a bidirectional motion structure (415) being arranged on the mounting plate (414) for radial motion along the reeling shaft (304), and two clamping plates (416) being slidably connected to the mounting plate (414) being arranged on the bidirectional motion structure (415), and the two clamping plates (416) moving in opposite directions at the same speed, and being used to clamp the metal hexagonal mesh into the receiving groove (305).

5. The winding mechanism of the fully automatic metal hexagonal mesh weaving machine according to claim 2 is characterized in that: A limiting plate (418) is provided on one side of the annular fixing plate (417), and when the connecting seat (406) is perpendicular to the annular fixing plate (417), the limiting plate (418) abuts against a side of the annular fixing plate (417) that faces the reeling shaft (304). A detection element is provided on the connecting seat (406), and the detection element is used to detect the relative position between the clamping assembly (408) and the accommodating groove (305), and send a signal when the positions of the clamping assembly (408) and the accommodating groove (305) are relative.

6. The winding mechanism of the fully automatic metal hexagonal mesh weaving machine according to claim 1 is characterized in that: The auxiliary clamping mechanism (5) comprises a support plate (501) arranged on the frame (1), a lifting device (502) moving in a vertical direction is arranged on the support plate (501), an arc-shaped base (503) is arranged on the top of the lifting device (502), the inner arc surface of the arc-shaped base (503) is rotatably connected to a plurality of pressure rollers (504), and the plurality of pressure rollers (504) are evenly arranged on the inner arc surface of the arc-shaped base (503) and can be fitted on the outer surface of the reeling shaft (304), and the length of the arc-shaped base (503) along the axial direction of the reeling shaft (304) is less than the distance between the two clamping assemblies (408).

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