A new type of high-speed gabion mesh weaving machine

Abstract

This utility model discloses a novel high-speed gabion mesh weaving machine, comprising a frame, a weaving assembly, a traction roller assembly, a push-pull arm, a push-pull drive assembly, a working rack, and a rotation drive assembly. It also includes a second drive unit, a main shaft, and a bearing housing. The rotation drive assembly includes a drive rack and a rack guide frame. Two drive gears are coaxially mounted at both ends of the main shaft. The output shaft of the second drive unit is directly keyed to the central shaft hole of the top drive gear. The bearing housing supports the middle of the main shaft. Two rack guide frames are respectively mounted on the top and bottom plates at the ends of the frame. The drive rack and drive gear are both mounted within the rack guide frames, with the drive gear centrally located and meshing with the two drive racks on either side. A working rack is fixedly connected to the end of the drive rack facing the weaving assembly. This novel high-speed gabion mesh weaving machine significantly improves the synchronization performance of the upper and lower rotation drive assemblies and is suitable for lightweight gabion mesh weaving machines.

Description

Technical Field

[0001] This utility model relates to the technical field of gabion mesh weaving machines, and in particular to a new type of high-speed gabion mesh weaving machine. Background Technology

[0002] Gabion mesh weaving machines, also known as hexagonal mesh weaving machines or gabion mesh weaving machines, work by using a series of coordinated mechanical movements to weave metal wires, such as galvanized steel wire or PVC-coated wire, into a hexagonal mesh structure. During the weaving process, both the warp and weft wires exert tension on the machine's moving components. This tension causes a rotational difference between the upper and lower cooperating weaving components as the machine rotates and winds. This rotational difference affects the weaving quality of the gabion mesh and also causes significant wear and tear on the equipment.

[0003] Utility model patent CN220347089U discloses a gabion mesh weaving device, in which a rack driving the half-gears of the weaving components is driven by a rotating assembly. However, in this patent's technical solution, the core part of the rotating assembly, the third connecting shaft, uses two half-shafts coaxially assembled together. That is, there is a gap between the first shaft segment and the second shaft segment, and a second slip assembly is assembled there. Theoretically, the second slip assembly can adjust the rotational difference between the upper and lower weaving components. In reality, this half-shaft transmission, and the influence of the fit clearances between various parts, will inevitably increase the rotational deviation between the upper and lower weaving components. Moreover, the screw set screw structure of the second slip assembly is prone to damage after repeated impacts, leading to an increased failure rate.

[0004] Meanwhile, existing rotary drive components all use four pinions connected in a four-way drive rack for reciprocating linear motion. While this increases the number of drive points and ensures driving force strength, lightweight gabion weaving machines do not require significant driving force. This complex gear structure actually creates new transmission clearances, increases rotational deviation, and is also prone to malfunctions.

[0005] Therefore, it is necessary to develop a new type of high-speed gabion weaving machine to address the above-mentioned shortcomings, which has become an urgent problem for those skilled in the art. Utility Model Content

[0006] The purpose of this invention is to provide a new type of high-speed gabion mesh weaving machine, which uses a single long main shaft to synchronously drive the upper and lower rotation drive components. At the same time, the rotation drive components use a direct meshing drive of the active gear and the drive rack, which significantly improves the synchronization performance of the upper and lower rotation drive components and is suitable for lightweight gabion mesh weaving machines.

[0007] To solve the above-mentioned technical problems, the present invention adopts the following technical solution:

[0008] This utility model discloses a novel high-speed gabion mesh weaving machine, comprising a frame, a weaving assembly, a traction roller assembly, a push-pull arm, a push-pull drive assembly, a working rack, and a rotation drive assembly. It also includes a second drive unit, a main shaft, and a bearing housing. The rotation drive assembly includes a drive rack and a rack guide frame. Two drive gears are coaxially mounted at both ends of the main shaft. The output shaft of the second drive unit is directly keyed to the central shaft hole of the top drive gear. The bearing housing supports the middle of the main shaft. Two rack guide frames are respectively mounted on the top and bottom plates at the ends of the frame. The drive rack and drive gear are both mounted within the rack guide frames, with the drive gear centrally engaged with the two drive racks on either side. The end of the drive rack facing the weaving assembly is fixedly connected to the working rack.

[0009] Furthermore, it also includes guide plates, two of which are disposed face-to-face on the inner side wall of the rack guide frame, and the inner side wall of the guide plates slides in contact with the back side wall of the drive rack.

[0010] Furthermore, it also includes an end baffle and a pushing member. The end baffle is fixedly connected to both ends of the side wall of the rack guide frame by screws. The end baffle guides and limits the end face of the guide plate. The guide plate can be guided along the end baffle to approach and move away from the back side wall of the drive rack. The pushing member pushes the back of the guide plate to press it against the back side wall of the drive rack.

[0011] Furthermore, the pushing component includes a set screw, and the side wall of the rack guide frame has a plurality of set screw holes arranged at equal intervals along the length direction of the driving rack. The set screw is threaded into the set screw hole and its inner end abuts against the back of the guide plate.

[0012] Furthermore, the guide plate is a composite plate comprising a back plate and a sliding panel bonded together. The sliding panel is made of polytetrafluoroethylene sheet and slides in contact with the back sidewall of the drive rack.

[0013] Furthermore, the push-pull drive assembly includes a first drive unit, a pinion, an arc plate half-gear component, a swing shaft, a swing arm, and a pull rod. The first drive unit is disposed in front of or behind the vertical swing shaft. The pinion is mounted on the downward-facing output shaft of the first drive unit. The pinion meshes with the arc plate half-gear component. The root of the arc plate half-gear component is fixedly connected to the swing shaft. The upper and lower ends of the swing shaft are fixedly connected to the swing arm. The swing arm is hinged to one end of the pull rod, and the other end of the pull rod is hinged to the push-pull arm.

[0014] Furthermore, the arc plate half gear component includes an arc plate half gear block and an arc plate half gear seat. The outer end tooth profile of the arc plate half gear block meshes with the pinion. The inner end of the arc plate half gear block is detachably connected to the arc plate half gear seat by bolts. The inner end of the arc plate half gear seat is fixedly connected to the swing shaft.

[0015] Furthermore, the first drive unit and the second drive unit specifically adopt a hydraulic motor or a geared motor.

[0016] Compared with the prior art, the beneficial technical effects of this utility model are as follows:

[0017] This invention relates to a novel high-speed gabion mesh weaving machine. By employing a single through-shaft main shaft to synchronously drive two upper and lower drive gears, the rotating drive components can be driven synchronously. Compared to a split-shaft method, this reduces transmission backlash and eliminates differential movement between the upper and lower rotating drive components. Furthermore, by using a centrally located drive gear to directly drive two drive racks, compared to an indirect transmission method using a pinion gear, transmission backlash is further reduced, the structure is simplified, and the failure rate is low. This high-speed gabion mesh weaving machine uses a single, continuous main shaft to synchronously drive the upper and lower rotating drive components. Simultaneously, the rotating drive components utilize direct meshing of the drive gears to drive the drive racks, significantly improving the synchronization performance of the upper and lower rotating drive components. This design is suitable for lightweight gabion mesh weaving machines. In addition, by adding a guide plate to the inner side wall of the rack guide frame, with the guide plate sliding in contact with the back wall of the drive rack, wear on the rack guide frame side wall is reduced, facilitating later maintenance and replacement. By adding an end baffle, the end face of the guide plate can be guided and limited, preventing the guide plate from detaching from the end. By adding the pusher component, a balanced clamping force can be applied to the back wall of the drive rack, ensuring a reasonable meshing clearance. By using multiple set screws to uniformly clamp the guide plate along the length of the drive rack, smooth reciprocating linear motion of the drive rack is ensured. By setting the guide plate as a composite plate, on the one hand, the sliding panel reduces the frictional resistance and wear with the back wall of the drive rack; on the other hand, the back plate also ensures sufficient rigidity and strength for working with the pusher component. Using a single swing shaft to synchronously drive the two swing arms at the upper and lower ends improves the synchronization of the upper and lower push-pull arms compared to the segmented shaft method in the prior art. Moreover, by placing the first drive unit in front of or behind the swing shaft, compared to placing the first drive unit on the outside of the swing shaft in the prior art, the overall length of the machine is reduced, saving installation space. The arc plate half gear component is formed by detachably combining the arc plate half gear block and the arc plate half gear seat. If the arc plate half gear block is damaged by broken teeth, it can be repaired simply by disassembling and replacing the arc plate half gear block, avoiding the need to disassemble the swing shaft again and reducing the difficulty of maintenance. Attached Figure Description

[0018] The present invention will be further described below with reference to the accompanying drawings.

[0019] Figure 1 This is a three-dimensional structural diagram of the new high-speed gabion mesh weaving machine of this utility model;

[0020] Figure 2 This is a three-dimensional structural diagram of the rotation drive component in this utility model;

[0021] Figure 3 for Figure 2 Schematic diagram of the three-dimensional structure after removing the top plate of the gear guide frame;

[0022] Figure 4 for Figure 3 A magnified schematic diagram of a portion of the central I section;

[0023] Figure 5 This is a three-dimensional structural diagram of the push-pull drive component in this utility model.

[0024] Explanation of reference numerals in the attached drawings: 1. Frame; 2. Weaving assembly; 3. Traction roller assembly; 4. Push-pull arm; 5. Push-pull drive assembly; 501. First drive unit; 502. Pinion; 503. Arc plate half-gear block; 504. Arc plate half-gear seat; 505. Swing shaft; 506. Swing arm; 507. Tie rod; 6. Working rack; 7. Second drive unit; 8. Main shaft; 801. Drive gear; 9. Bearing seat; 10. Drive rack; 11. Guide plate; 12. End baffle; 13. Rack guide frame; 131. Top screw hole; 14. Protective cover. Detailed Implementation

[0025] The core of this utility model is to provide a new type of high-speed gabion mesh weaving machine, which uses a long main shaft to synchronously drive the upper and lower rotation drive components. At the same time, the rotation drive components use a direct meshing drive of the active gear to drive the rack and pinion, which significantly improves the synchronization performance of the upper and lower rotation drive components and is suitable for lightweight gabion mesh weaving machines.

[0026] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present utility model, and not all of them. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present utility model. In the following detailed description of the accompanying drawings, the descriptions of top, bottom, left, and right are all relative to the accompanying drawings and should not be construed as limiting the present utility model.

[0027] Refer to the attached diagram. Figure 1This is a three-dimensional structural diagram of the new high-speed gabion mesh weaving machine of this utility model; Figure 2 This is a three-dimensional structural diagram of the rotation drive component in this utility model; Figure 3 for Figure 2 Schematic diagram of the three-dimensional structure after removing the top plate of the gear guide frame; Figure 4 for Figure 3 A magnified schematic diagram of a portion of the central I section; Figure 5 This is a three-dimensional structural diagram of the push-pull drive component in this utility model.

[0028] In one specific implementation, such as Figures 1-5 As shown, a novel high-speed gabion mesh weaving machine has a main body consistent with existing gabion mesh weaving machines, including a frame 1, a weaving assembly 2, a traction roller assembly 3, a push-pull arm 4, a push-pull drive assembly 5, a working rack 6, and a rotation drive assembly. Under the action of the push-pull arm 4 and the push-pull drive assembly 5, the weaving assembly 2 completes the shifting action of the twisting wheel. Under the action of the working rack 6 and the rotation drive assembly, the weaving assembly 2 completes the rotation action of the twisting wheel, completing the weaving of the hexagonal mesh, which is then gradually pulled upwards by the traction roller assembly 3 and output to the cutting device. A significant innovation of this invention compared to existing gabion mesh weaving machines is the inclusion of a second drive unit 7, a main shaft 8, and a bearing seat 9. The rotation drive assembly includes a drive rack 10 and a rack guide frame 13. Two drive gears 801 are coaxially mounted at both ends of the main shaft 8. The output shaft of the second drive unit 7 is directly keyed to the central shaft hole of the top drive gear 801. The bearing seat 9 supports the middle of the main shaft 8. Both the second drive unit 7 and the bearing seat 9 are mounted on the frame 1. Two rack guide frames 13 are respectively installed on the top plate and bottom plate at the end of the frame 1. The drive rack 10 and the drive gear 801 are both installed in the rack guide frame 13, and the two drive racks 10 are symmetrically arranged facing each other with respect to the axis of the drive gear 801. The rack guide frame 13 is an inverted U-shaped frame structure, with the drive gear 801 centrally located and meshing with the two drive racks 10 on both sides. The end of the drive rack 10 facing the braiding assembly 2 is fixedly connected to the working rack 6. The working rack 6 is guided to reciprocate linearly within the guide groove of the push-pull arm 4, and the working rack 6 drives the gear part of the twisting wheel to rotate.

[0029] The weaving assembly 2 and traction roller assembly 3 of this utility model are the same as those in the prior art gabion mesh weaving machine, and will not be described in detail here.

[0030] By employing a single through-shaft main shaft 8 to synchronously drive two upper and lower drive gears 801, the rotation drive components can be driven synchronously. Compared to the split-shaft method, this reduces transmission backlash and eliminates differential movement between the upper and lower rotation drive components. Furthermore, by using the drive gear 801 to directly drive the two drive racks 10, compared to the indirect transmission method using pinions, transmission backlash is further reduced, the structure is simplified, and the failure rate is low. This utility model of a high-speed gabion mesh weaving machine uses a single, continuous main shaft to synchronously drive the upper and lower rotation drive components. Simultaneously, the rotation drive components utilize direct meshing of the drive gears to drive the drive racks, significantly improving the synchronization performance of the upper and lower rotation drive components. This design is suitable for lightweight gabion mesh weaving machines.

[0031] In one specific embodiment of this utility model, such as Figures 2-4 As shown, the high-speed gabion mesh weaving machine of this utility model also includes guide plates 11. Two guide plates 11 are arranged face to face on the inner side of the side wall of the rack guide frame 13. The inner side wall of the guide plate 11 slides in contact with the back side wall of the drive rack 10.

[0032] Specifically, the guide plate 11 can be installed on the inner side wall of the rack guide frame 13 by bolt fixing.

[0033] By adding a guide plate 11 to the inner side wall of the rack guide frame 13, the guide plate 11 and the back side wall of the drive rack 10 can slide in contact, which can reduce the wear on the side wall of the rack guide frame 13 and facilitate later maintenance and replacement operations.

[0034] In one specific embodiment of this utility model, such as Figures 2-4 As shown, the high-speed gabion weaving machine of this utility model also includes end baffles 12 and pushing components. The end baffles 12 are fixedly connected to both ends of the side wall of the rack guide frame 13 by screws. The end baffles 12 guide and limit the end face of the guide plate 11, allowing the guide plate 11 to be guided along the end baffles 12 towards and away from the back side wall of the drive rack 10. The pushing components push the back of the guide plate 11 to press it against the back side wall of the drive rack 10.

[0035] Specifically, such as Figures 2-4 As shown, the pusher component includes a pusher screw. The side wall of the rack guide frame 13 has multiple pusher screw holes arranged at equal intervals along the length direction of the drive rack 10. The pusher screw is threaded into the pusher screw hole and its inner end is pressed against the back of the guide plate 11.

[0036] Obviously, the pushing component can also use a compression spring or a disc spring pair to push the guide plate 11. Similar simple replacement methods all fall within the protection scope of this utility model.

[0037] By adding an end baffle 12, the end face of the guide plate 11 can be guided and limited, preventing the guide plate 11 from coming off the end. By adding the pusher component, a balanced clamping force can be applied to the back wall of the drive rack 10, ensuring a reasonable meshing clearance. By using multiple set screws to uniformly clamp the guide plate 11 along the length of the drive rack 10, the smooth reciprocating linear motion of the drive rack 10 is ensured.

[0038] In one specific embodiment of this utility model, such as Figure 4 As shown, the guide plate 11 is a composite plate comprising a back plate and a sliding panel bonded together. The sliding panel is made of polytetrafluoroethylene (PTFE) sheet and slides in contact with the back sidewall of the drive rack 10. The back plate is made of steel plate.

[0039] By setting the guide plate 11 as a composite plate, on the one hand, the sliding panel reduces the frictional resistance and wear with the back side wall of the drive rack 10, and on the other hand, the back plate also ensures sufficient rigidity and strength to work with the pusher component.

[0040] In one specific embodiment of this utility model, such as Figure 1 and Figure 5 As shown, the push-pull drive assembly 5 includes a first drive unit 501, a pinion 502, an arc-plate half-gear component, a swing shaft 505, a swing arm 506, and a pull rod 507. The first drive unit 501 is located in front of or behind the vertical swing shaft 505. The pinion 502 is mounted on the downward-facing output shaft of the first drive unit 501, and the pinion 502 meshes with the arc-plate half-gear component. The root of the arc-plate half-gear component is fixedly connected to the swing shaft 505. The upper and lower ends of the swing shaft 505 are fixedly connected to the swing arm 506. One end of the pull rod 507 is hinged to the swing arm 506, and the other end of the pull rod 507 is hinged to the push-pull arm 4.

[0041] The connection structure of the swing shaft 505, the swing arm 506 and the pull rod 507 is the same as that in the prior art, and will not be described in detail here.

[0042] It should be noted that in this invention, a single swing shaft 505 synchronously drives the two swing arms 506 at both ends, which improves the synchronization of the upper and lower push-pull arms 4 compared to the segmented shaft method in the prior art. Furthermore, by placing the first drive unit 501 in front of or behind the swing shaft 505, compared to placing the first drive unit 501 on the outside of the swing shaft 505 in the prior art, the overall length of the machine is reduced, saving installation space.

[0043] In one specific embodiment of this utility model, such as Figure 5As shown, the arc-plate half-gear component includes an arc-plate half-gear block 503 and an arc-plate half-gear seat 504. The outer end tooth profile of the arc-plate half-gear block 503 meshes with the pinion 502. The inner end of the arc-plate half-gear block 503 is detachably connected to the arc-plate half-gear seat 504 by bolts, and a mating step is provided between the two. The inner end of the arc-plate half-gear seat 504 is fixedly connected to the swing shaft 505, and the sleeve key at the root of the arc-plate half-gear seat 504 is connected to the swing shaft 505.

[0044] The arc plate half gear component is formed by detachably combining the arc plate half gear block 503 and the arc plate half gear seat 504. If the arc plate half gear block 503 is damaged by broken teeth, it can be repaired simply by disassembling and replacing the arc plate half gear block 503, avoiding the need to disassemble the swing shaft 505 and reducing the difficulty of maintenance.

[0045] In one specific embodiment of this utility model, the first drive unit 501 and the second drive unit 7 are specifically hydraulic motors or geared motors. The first drive unit 501 is directly mounted head-down on the horizontal mounting plate at the end of the frame 1 via a flange plate at its head. The second drive unit 7 is mounted head-down on the top surface of the rack guide frame 13 via a circular sleeve.

[0046] Specifically, such as Figure 2 As shown, a bearing sleeve is also provided on the top surface of the rack guide frame 13 below, and the bearing sleeve provides auxiliary rotation support for the lower end of the main rotating shaft 8.

[0047] The working principle of this novel high-speed gabion mesh weaving machine is as follows: The second drive unit 7 drives two drive gears 801 to rotate synchronously. During the rotation of the drive gears 801, the drive racks 10 on both sides move synchronously in opposite directions. The drive racks 10 drive the working racks 11 to move synchronously in straight lines, thereby driving the twisting wheel to rotate. The first drive unit 501 drives the pinion 502 to repeatedly change direction, driving the arc plate half gear block 503 to repeatedly change direction and rotate, thereby driving the swing shaft 505 to swing back and forth at a small angle. The two swing arms 506 swing synchronously, and through the pull rod 507, pull the two push-pull arms 4 to move synchronously in opposite directions in straight lines, realizing the half twisting wheel switching action.

[0048] In summary, this novel high-speed gabion mesh weaving machine utilizes a single through-shaft main shaft 8 to synchronously drive two upper and lower drive gears 801, enabling simultaneous drive of the rotational drive components. Compared to a split-shaft method, this reduces transmission backlash and eliminates differential movement between the upper and lower rotational drive components. By using the drive gear 801 to directly drive the two drive racks 10, compared to an indirect transmission method using pinions, transmission backlash is further reduced, the structure is simplified, and the failure rate is low. This novel high-speed gabion mesh weaving machine uses a single, continuous main shaft to synchronously drive the upper and lower rotational drive components. Simultaneously, the rotational drive components employ direct meshing of the drive gears to drive the drive racks, significantly improving the synchronization performance of the upper and lower rotational drive components, making it suitable for lightweight gabion mesh weaving machines. Furthermore, by adding a guide plate 11 to the inner side wall of the rack guide frame 13, with the guide plate 11 sliding in contact with the back side wall of the drive rack 10, wear on the side wall of the rack guide frame 13 is reduced, facilitating later maintenance and replacement. By adding an end baffle 12, the end face of the guide plate 11 can be guided and limited, preventing the guide plate 11 from dislodging from the end. By adding the pusher component, a balanced clamping force can be applied to the back wall of the drive rack 10, ensuring a reasonable meshing clearance. By using multiple set screws to uniformly press the guide plate 11 along the length of the drive rack 10, the smooth reciprocating linear motion of the drive rack 10 is ensured. By setting the guide plate 11 as a composite plate, on the one hand, the sliding panel reduces the frictional resistance and wear with the back wall of the drive rack 10, and on the other hand, the back plate also ensures sufficient rigidity and strength for working with the pusher component. Using a single swing shaft 505 to synchronously drive the two swing arms 506 at the upper and lower ends improves the synchronization of the upper and lower push-pull arms 4 compared to the segmented shaft method in the prior art. Moreover, by placing the first drive unit 501 in front of or behind the swing shaft 505, compared to placing the first drive unit 501 on the outside of the swing shaft 505 in the prior art, the overall length of the machine is reduced, saving installation space. The arc plate half gear component is formed by detachably combining the arc plate half gear block 503 and the arc plate half gear seat 504. If the arc plate half gear block 503 is damaged by broken teeth, it can be repaired simply by disassembling and replacing the arc plate half gear block 503, avoiding the need to disassemble the swing shaft 505 and reducing the difficulty of maintenance.

[0049] The embodiments described above are merely preferred embodiments of the present utility model and are not intended to limit the scope of the present utility model. Various modifications and improvements made to the technical solutions of the present utility model by those skilled in the art without departing from the spirit of the present utility model should fall within the protection scope defined by the claims of the present utility model.

Claims

1. A novel gabion mesh high speed braiding machine comprising a frame (1), a braiding assembly (2), a traction roller assembly (3), a push-pull arm (4), a push-pull drive assembly (5), a working rack (6) and a rotation drive assembly, characterized in that, It also includes a second drive unit (7), a main shaft (8), and a bearing seat (9). The rotation drive assembly includes a drive rack (10) and a rack guide frame (13). Two drive gears (801) are coaxially mounted at both ends of the main shaft (8). The output shaft of the second drive unit (7) is directly keyed to the central shaft hole of the top drive gear (801). The bearing seat (9) supports the middle part of the main shaft (8). The two rack guide frames (13) are respectively mounted on the top plate and bottom plate at the end of the frame (1). The drive rack (10) and the drive gear (801) are both mounted in the rack guide frame (13). The drive gear (801) is centered and meshes with the two drive racks (10) on both sides. The end of the drive rack (10) facing the braiding assembly (2) is fixedly connected to the working rack (6).

2. The novel gabion mesh high speed braiding machine according to claim 1, characterized in that: It also includes guide plates (11), two of which are arranged face to face on the inner side of the side wall of the rack guide frame (13), and the inner side wall of the guide plates (11) slides in contact with the back side wall of the drive rack (10).

3. The novel gabion mesh high speed braiding machine according to claim 2, characterized in that: It also includes an end baffle (12) and a pusher. The end baffle (12) is fixedly connected to both ends of the side wall of the rack guide frame (13) by screws. The end baffle (12) guides and limits the end face of the guide plate (11). The guide plate (11) can be guided along the end baffle (12) to approach and move away from the back side wall of the drive rack (10). The pusher pushes the back of the guide plate (11) to press it against the back side wall of the drive rack (10).

4. The novel gabion mesh high speed braiding machine according to claim 3, characterized in that: The pusher component includes a pusher screw. The side wall of the rack guide frame (13) has a plurality of pusher screw holes arranged at equal intervals along the length direction of the drive rack (10). The pusher screw is threaded into the pusher screw hole and its inner end abuts against the back of the guide plate (11).

5. The novel high-speed gabion mesh weaving machine according to claim 2, characterized in that: The guide plate (11) is a composite plate comprising a back plate and a sliding panel, which are composited together. The sliding panel is made of polytetrafluoroethylene sheet and slides in contact with the back sidewall of the drive rack (10).

6. The novel high-speed gabion mesh weaving machine according to claim 1, characterized in that: The push-pull drive assembly (5) includes a first drive unit (501), a pinion (502), an arc plate half-gear component, a swing shaft (505), a swing arm (506), and a pull rod (507). The first drive unit (501) is located in front of or behind the vertical swing shaft (505). The pinion (502) is mounted on the downward-facing output shaft of the first drive unit (501). The pinion (502) meshes with the arc plate half-gear component. The root of the arc plate half-gear component is fixedly connected to the swing shaft (505). The upper and lower ends of the swing shaft (505) are fixedly connected to the swing arm (506). The swing arm (506) is hinged to one end of the pull rod (507), and the other end of the pull rod (507) is hinged to the push-pull arm (4).

7. The novel high-speed gabion mesh weaving machine according to claim 6, characterized in that: The arc plate half gear component includes an arc plate half gear block (503) and an arc plate half gear seat (504). The outer end tooth profile of the arc plate half gear block (503) meshes with the pinion (502). The inner end of the arc plate half gear block (503) is detachably connected to the arc plate half gear seat (504) by bolts. The inner end of the arc plate half gear seat (504) is fixedly connected to the swing shaft (505).

8. The novel high-speed gabion mesh weaving machine according to claim 6, characterized in that: The first drive unit (501) and the second drive unit (7) are specifically hydraulic motors or geared motors.

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