Trolley mesh basket welding machining equipment
By integrating welding, bending, flanging, and stripping processes into a handcart-mounted wire basket welding and processing equipment, and utilizing the design of movable clamps and hydraulic presses, the problem of requiring step-by-step operation in existing equipment has been solved, achieving efficient and precise wire basket processing.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- SUZHOU HANMERS DISPLAY EQUIP CO LTD
- Filing Date
- 2026-03-07
- Publication Date
- 2026-05-12
AI Technical Summary
Existing metal wire mesh basket welding and processing equipment requires separate operation of different equipment and steps, resulting in low precision. The process is particularly cumbersome during the flanging stage, which affects processing efficiency. Furthermore, it is impossible to continuously complete welding, flanging, and frame removal on the same conveying path, leading to inconsistent positioning benchmarks and affecting forming accuracy.
A handcart wire mesh basket welding and processing equipment was designed. By setting a conveyor belt and movable clamps on the frame, the welding, bending and flanging and unloading processes are integrated. The steel wire mesh basket is formed by a hydraulic press and a fixed frame. The tooling is automatically detached by the gravity retraction of the movable clamps, which simplifies the equipment structure and improves the processing efficiency.
It enables continuous operation of basket processing, avoids secondary positioning errors caused by workpiece transfer, improves processing accuracy and efficiency, simplifies equipment structure, and reduces maintenance costs.
Smart Images
Figure CN122007288A_ABST
Abstract
Description
Technical Field
[0001] This application relates to the field of basket welding technology, and in particular to a handcart basket welding equipment. Background Technology
[0002] Currently, the production of handcart baskets mainly adopts the "separate equipment and step-by-step operation" mode. The overall process is as follows: First, the workers lay a layer of steel wires evenly arranged in the longitudinal direction on the positioning fixture, and then lay a layer of transverse steel wires on top of the longitudinal steel wires. Then, the welding equipment is controlled to weld the contact points of the longitudinal and transverse steel wires to weld the bottom of the basket into shape. After that, the welded basket is transferred to the flipping equipment, and the three sides are flipped in turn by the flanging equipment to form the basic outline of the basket.
[0003] Existing technology involves an automatic metal wire mesh basket welding machine, comprising a main body, a forming mechanism on a first machine platform, and a material unloading station, a transfer station, a welding station, and a discharge station sequentially arranged on a second machine platform. The material unloading station is equipped with a metal frame unloading mechanism, and both the material unloading station and the transfer station are equipped with driving mechanisms. The welding station is equipped with several welding mechanisms, and the second machine platform is equipped with a transfer mechanism. This solves the problems of excessive robotic arms and the large footprint of the entire production line, where only one machine can be placed in a given area. However, in the above process, the transfer of the wire mesh basket between different processes requires multiple manual handling, which is not only time-consuming and inefficient, but also prone to slight deformation or displacement of the wire mesh basket during manual transfer, reducing the flanging accuracy and requiring manual post-processing correction to ensure product yield.
[0004] The aforementioned and existing wire mesh baskets cannot continuously complete welding, flanging, and frame removal on the same conveying path during welding processing, resulting in inconsistent positioning benchmarks, affecting forming accuracy. At the same time, each edge of the wire mesh basket needs to be bent and flanged one by one, which is slow and costly. Summary of the Invention
[0005] This application provides a handcart wire mesh basket welding and processing equipment, which can solve the problem that the existing metal wire mesh baskets need to be welded and bent in separate steps by separate equipment, resulting in low precision. In particular, the bending process is cumbersome and affects the processing efficiency.
[0006] The technical solution of this application is as follows: A handcart basket welding and processing equipment, used to weld and bend crisscrossing steel wires to form a preliminary basket shape, comprising: The frame has a strip-shaped opening extending along its own length inside, and a circular conveyor belt is provided on both sides of the strip-shaped opening. A processing frame, wherein positioning plates are provided at both ends of the processing frame, and positioning holes are provided inside the positioning plates; and a shaped wall surface is provided inside the processing frame. The frame is provided with a welding area for welding steel wires, a bending area for bending steel wires, and a stripping area for removing the processing frame, arranged sequentially at intervals along the conveyor belt conveying direction. The conveyor belt is provided with movable clamps at intervals along its own length direction. The movable clamps are vertically slidably connected to the conveyor belt and are configured to protrude from the surface of the conveyor belt after leaving the stripping area so as to engage with the positioning holes. When the movable clip moves to the unloading area, it retracts under its own weight, thereby disengaging itself from the positioning hole.
[0007] By adopting the above scheme, during operation, the processing frame containing the pre-set steel wire is placed on the conveyor belt. The movable clamp engages with the positioning hole of the processing frame, causing the conveyor belt to move the processing frame. The frame then sequentially undergoes welding, bending and flanging, and stripping. Through the integrated conveyor structure, the welding, bending and flanging, and stripping processes are integrated into the same production line. Since the welding and bending processes are completed under the positioning of the same processing frame, secondary positioning errors caused by workpiece transfer are avoided, while continuous operation of the wire basket processing is achieved. At the same time, by utilizing the characteristic of the movable clamp to automatically retract under gravity in the stripping area, the tooling can be automatically detached without an additional power drive device, which improves processing efficiency and simplifies the equipment structure.
[0008] In one embodiment of this application, a mesh welding machine is also included, which is disposed on one side of the frame and above the strip opening to form the mesh welding area.
[0009] By adopting the above scheme, when the processing frame is conveyed to the welding area, the welding machine is located above the strip opening. It applies pressure and applies electricity to the contact points of the crisscrossing steel wires in the processing frame, thereby realizing the forming of the bottom of the wire mesh basket. Moreover, the welding machine is set above the streamlined frame, so it can operate without moving the workpiece out of the streamline, ensuring the accuracy of the processing position and reducing the handling time and errors caused by handling.
[0010] In one embodiment of this application, a hydraulic press and a fixed frame are further included. The hydraulic press is disposed on one side of the frame and located above the strip opening. The fixed frame is fixedly assembled in the strip opening and located below the hydraulic press to form the bending area. A pressure plate is fixedly assembled on the drive shaft of the hydraulic press. It also includes a recycling tank, which is located below the bending zone.
[0011] By adopting the above scheme, when the processing frame enters the bending zone, the hydraulic press drives the pressure plate downward. The pressure plate pushes the welded flat wire mesh into the processing frame. The edge of the wire is squeezed upward by the inner wall of the processing frame until it falls into the recycling tank below. Thus, the processing frame itself is used as a flanging device, and the pressure plate is used to press the wire. In one stroke, the flanging and forming of the wire mesh basket and the product unloading are completed simultaneously, shortening the process path. The formed product falls directly into the recycling tank without the need for manual or robotic gripping, thus improving production efficiency.
[0012] In one embodiment of this application, the frame has strip-shaped grooves on the inner walls of both sides of the strip-shaped opening. Both strip-shaped grooves extend along the length of the frame and are located below the two conveyor belts to form the unloading area.
[0013] By adopting the above solution, when the conveyor belt drives the movable clamp to the area with the strip groove on the inner wall of the frame, the bottom of the movable clamp is suspended in the air. At this time, the movable clamp is no longer supported by the upward force of the frame plane, so that its top exits from the positioning hole of the processing frame. The strip groove realizes the effect of automatic unhooking of the processing frame. No sensors and electronic control components are required, which reduces response time and maintenance costs.
[0014] In one embodiment of this application, a frame recycling trough is further included, which is disposed on one side of the descrambling area along the conveyor belt conveying direction and located outside one end of the frame.
[0015] By adopting the above solution, when the movable card retracts and causes the processing frame to separate from the conveyor belt, the processing frame continues to slide forward under the action of inertia or the push of subsequent tooling, and finally slides out of the end of the frame and falls into the frame recycling tank, realizing the automatic collection of the processing frame, ensuring that the processing frame will not affect the rotation of the conveyor belt, and avoiding the trouble of manually or mechanically removing the processing frame.
[0016] In one embodiment of this application, the active card includes: The assembly rings are provided in multiple groups, and the multiple assembly rings are divided into two groups. The two groups of assembly rings are respectively and correspondingly arranged on the two conveyor belts. Each group of assembly rings is spaced apart along the length of the conveyor belt. A locking component passes through the assembly ring and is slidably connected to the assembly ring, and the shape of the locking component matches that of the positioning hole.
[0017] By adopting the above solution, the assembly ring is fixed on the conveyor belt and moves with the belt. The locking component slides vertically inside the assembly ring, and the upper part of the locking component is used to lock the processing frame, thereby ensuring the stability of the processing frame during welding and movement.
[0018] In one embodiment of this application, the upper end of the engaging member is provided with an engaging portion, the lower end of the engaging member is provided with a spherical surface, and the inner wall of the end of the strip groove away from the bending area is provided with an arc-shaped guide surface that cooperates with the spherical surface.
[0019] By adopting the above solution, a spherical surface is provided at the lower end of the locking component, which generates less friction when it slides on the frame plane. When it moves to the unloading area, the spherical surface can ensure that the locking component moves along the strip groove, thereby ensuring the smooth operation of the conveyor belt.
[0020] In one embodiment of this application, the edge of the processing frame is provided with a plurality of spaced strip-shaped placement grooves, the depth H of the strip-shaped placement grooves and the diameter D of the steel wire satisfying: H≧2D; The upper end of the inner wall of the processing frame is provided with an inclined guide surface that slopes outward, and the lower end is enclosed to form the forming wall surface. The shape of the pressure plate matches the shape of the forming wall surface. The area S1 of the pressure plate and the cross-sectional area S2 of the forming wall surface satisfy: S2>S1.
[0021] By adopting the above scheme, by limiting the depth of the placement groove and the diameter of the steel wire, it is ensured that the upper and lower layers of steel wire can be completely submerged in the groove for positioning, ensuring accurate positioning of the steel wire and preventing displacement during welding. At the same time, by limiting the area of the pressure plate and the cross-sectional area of the forming wall, it is ensured that the pressure plate can smoothly pass through the inside of the processing frame and bend and push out the wire basket.
[0022] In one embodiment of this application, the locking component includes: A hollow cylinder is slidably assembled inside an assembly ring. An elastic clip is provided at the top of the hollow cylinder, and a circular opening is provided at the bottom of the hollow cylinder. A ball-head rod is disposed inside the bottom end of the hollow cylinder. The lower end of the ball-head rod protrudes from the circular opening to form the spherical surface. The upper end of the ball-head rod is slidably sealed to the inner wall of the hollow cylinder, and a liquid medium is filled between it and the inner wall of the top end of the hollow cylinder.
[0023] By adopting the above scheme, in the non-stripping section of the conveyor belt, due to the tension of the conveyor belt and the support of the frame surface, the ball head at the bottom is subjected to continuous upward extrusion force and moves upward into the hollow cylinder. This causes the ball head to push the liquid medium filled inside the hollow cylinder, which in turn causes the elastic clamp to expand radially. When entering the stripping zone, the ball head loses support and moves downward, the liquid pressure is released, and the top structure retracts. Thus, by utilizing the principle of fluid pressure transmission, the supporting force of the conveyor belt is converted into a tensioning force on the positioning hole, which improves the stability of the processing frame during welding and transportation, and further improves the positioning accuracy. At the same time, it allows the processing frame to be unlocked when it enters the stripping zone without the need for complex control components, ensuring the stability of unlocking.
[0024] In one embodiment of this application, the elastic locking element includes an elastic ring, and the top end of the hollow cylinder has an annular opening. The elastic ring is fitted into the annular opening to form the locking portion.
[0025] By adopting the above scheme, when the elastic ring is squeezed by the liquid medium, the elastic ring expands and deforms outward, thereby further preventing the processing frame from getting stuck between itself and the hollow cylinder. This ensures that the device can guarantee the locking force, prevent the rigid clamp from directly damaging the positioning hole of the processing frame, and will not affect the normal unhooking of the processing frame.
[0026] In summary, this application includes at least one of the following beneficial technical effects: by setting up a hollow cylinder and ball head rod assembly filled with hydraulic medium, and utilizing the passive support force of the conveyor belt on the ball head rod, the vertical support force is converted into the radial expansion force of the elastic ring. This allows the device to achieve locking between the processing frame and the conveyor belt at the welding and bending stations without the need for an additional electric or pneumatic drive source, effectively eliminating assembly gaps and improving the positioning accuracy and stability of the basket during conveying and processing. At the same time, the strip placement groove in the unloading area enables rapid unloading of the processing frame.
[0027] By using the processing frame itself as the workpiece for flanging, and in conjunction with the downward stamping of the hydraulic pressure plate, the folding and forming of the basket edge and the separation of the product from the tooling are completed simultaneously in a single downward stroke of the pressure plate. This avoids the cumbersome part removal and secondary positioning steps in traditional processes, allowing the formed product to fall directly into the recycling tank below, shortening the process path and improving production efficiency.
[0028] By using the grooved slots in the frame and the movable clamps, when the tooling reaches the unloading zone, the movable clamps automatically retract and disengage under their own gravity due to the loss of support. The conveyor belt then uses inertia to throw the empty processing frame into the recycling tank. Compared to control by electronic sensors, this method utilizes structural features to achieve automatic separation and recycling of the processing frame and the conveyor belt, which avoids interference from the tooling on the return conveyor belt and reduces the equipment's failure rate and maintenance costs. Attached Figure Description
[0029] Figure 1 This is a planar sectional view of a handcart basket welding processing equipment provided in the embodiments of this application; Figure 2 This is a top view of the frame of a handcart basket welding processing equipment provided in the embodiments of this application; Figure 3 This is a perspective sectional view of a strip groove in a handcart basket welding processing equipment provided in this application embodiment; Figure 4 This is a perspective view of the processing frame of a handcart basket welding processing equipment provided in the embodiments of this application; Figure 5 This is a three-dimensional sectional view of the processing frame of a handcart basket welding processing equipment provided in the embodiments of this application; Figure 6 This is a planar sectional view of a handcart basket welding processing equipment according to an embodiment of this application, showing the engagement of the locking component and the positioning hole. Figure 7 This is a planar sectional view of a handcart basket welding processing equipment according to an embodiment of this application, when the engaging component and the positioning hole are disengaged.
[0030] Explanation of reference numerals in the attached drawings: 1. Frame; 11. Strip opening; 12. Conveyor belt; 13. Welding area; 131. Welding machine; 14. Bending area; 141. Hydraulic press; 142. Fixed frame; 143. Pressure plate; 15. Unloading area; 16. Movable clamp; 161. Assembly ring; 162. Clamping part; 1621. Clamping part; 1622. Spherical surface; 1623. Hollow cylinder; 1624. Elastic clamp; 1625. Ball head rod; 1626. Liquid medium; 1627. Elastic ring; 17. Strip groove; 171. Arc guide surface; 2. Processing frame; 21. Positioning piece; 211. Positioning hole; 22. Forming wall surface; 23. Strip placement groove; 24. Inclined guide surface; 3. Recycling trough; 4. Frame recycling trough. Detailed Implementation
[0031] The following is in conjunction with the appendix Figures 1-7 This application provides a more detailed description of a handcart basket welding and processing equipment.
[0032] The present application provides a handcart basket welding and processing equipment for welding and bending interlaced steel wires to form a preliminary basket shape, comprising: a frame 1 and a processing frame 2.
[0033] Please see Figure 1 , Figure 2 , Figure 4 and Figure 5The frame 1 has a strip-shaped opening 11 extending along its length inside. A circular conveyor belt 12 is provided on both sides of the strip-shaped opening 11 on the frame 1. Positioning plates 21 are provided at both ends of the processing frame 2, and positioning holes 211 are provided inside the positioning plates 21. A forming wall surface 22 is provided inside the processing frame 2. Along the conveying direction of the conveyor belt 12, the frame 1 is sequentially and spaced apart by a welding area 13 for welding steel wires, a bending area 14 for bending steel wires, and a stripping area 15 for removing the processing frame 2. Movable clamps 1 are spaced apart along the length of the conveyor belt 12. 6. The movable clamp 16 is vertically slidably connected to the conveyor belt 12 and is configured to protrude from the surface of the conveyor belt 12 after leaving the unloading zone 15, so as to engage with the positioning hole 211. When the movable clamp 16 moves to the unloading zone 15, it retracts by its own gravity, so that it disengages from the positioning hole 211. Through the conveyor belt 12, the welding, bending and flanging and unloading processes are integrated into the same production line, realizing continuous operation of wire basket processing. At the same time, by utilizing the characteristic of the movable clamp 16 automatically retracting by gravity in the unloading zone 15, the tooling can be automatically disengaged, improving processing efficiency.
[0034] Please see Figure 1 It also includes a wire mesh welding machine 131, which is disposed on one side of the frame 1 and above the strip opening 11 to form the wire mesh welding area 13. When the processing frame 2 is conveyed to the wire mesh welding area 13, the wire mesh welding machine 131 applies pressure and applies electricity to the contact points of the crisscrossing steel wires in the processing frame 2 for welding, thereby realizing the forming of the bottom of the wire mesh basket.
[0035] Please see Figure 2 The system also includes a hydraulic press 141 and a fixed frame 142. The hydraulic press 141 is located on one side of the frame 1 and above the strip opening 11. The fixed frame 142 is fixedly assembled in the strip opening 11 and located below the hydraulic press 141 to form the bending zone 14. The drive shaft of the hydraulic press 141 is fixedly equipped with a pressure plate 143. The system also includes a recycling trough 3, which is located below the bending zone 14. When the processing frame 2 enters the bending zone 14, the hydraulic press 141 drives the pressure plate 143 downward. The pressure plate 143 pushes the welded steel wire, causing the steel wire to bend upward under the pressure of the inner wall of the processing frame 2 until it falls into the recycling trough 3 below. Thus, the pressure plate 143 completes the flanging and forming of the wire basket and the product unloading simultaneously during the downward pressing process, improving production efficiency.
[0036] Please see Figure 3The frame 1 has strip-shaped grooves 17 on the inner walls of both sides of the strip-shaped opening 11. Both strip-shaped grooves 17 extend along the length of the frame 1 and are located below the two conveyor belts 12 to form the unloading area 15. When the conveyor belt 12 drives the movable clamp 16 to the area where the inner wall of the frame 1 has the strip-shaped grooves 17, the bottom of the movable clamp 16 is suspended, so that its top exits from the positioning hole 211 of the processing frame 2, realizing the automatic unhooking of the processing frame 2, reducing response time and maintenance costs.
[0037] Please continue reading. Figure 1 and Figure 2 It also includes a frame recycling trough 4, which is located on one side of the unloading area 15 along the conveying direction of the conveyor belt 12 and outside one end of the frame 1. By setting the processing frame 2 on one side of the frame 1, the processing frame 2 continues to slide forward under the action of inertia or the push of subsequent tooling, and finally slides out of the end of the frame 1 and falls into the frame recycling trough 4, thus realizing the automatic collection of the processing frame 2.
[0038] Please see Figure 2 , Figure 3 , Figure 6 and Figure 7 The movable locking component 16 includes: an assembly ring 161 and a locking component 162. Multiple assembly rings 161 are provided, divided into two groups. The two groups of assembly rings 161 are respectively and correspondingly arranged on two conveyor belts 12. Each group of assembly rings 161 is spaced apart along the length of the conveyor belt 12. The locking component 162 passes through the assembly ring 161 and is slidably connected to it. The shape of the locking component 162 matches the shape of the positioning hole 211. By fixing the assembly ring 161 to the conveyor belt 12 and allowing it to move with the belt, the locking component 162... The conveyor belt 12 slides vertically within the 161 and uses the upper part of the locking component 162 to lock the processing frame 2, thereby ensuring the stability of the processing frame 2 during welding and movement. The upper end of the locking component 162 is provided with a locking part 1621, and the lower end of the locking component 162 is provided with a spherical surface 1622. The inner wall of the end of the strip groove 17 away from the bending area 14 is provided with an arc-shaped guide surface 171 that cooperates with the spherical surface 1622. By setting the cooperation between the spherical surface 1622 and the arc-shaped guide surface 171, the locking component 162 generates less friction when rolling or sliding on the plane of the frame 1, ensuring the smooth operation of the conveyor belt 12.
[0039] Please see Figure 6 and Figure 7The engaging component 162 includes a hollow cylinder 1623 and a ball-head rod 1625. The hollow cylinder 1623 is slidably assembled inside the assembly ring 161. An elastic locking component 1624 is provided at the top of the hollow cylinder 1623. A circular opening is provided at the bottom of the hollow cylinder 1623. The ball-head rod 1625 is disposed inside the bottom of the hollow cylinder 1623. The lower end of the ball-head rod 1625 protrudes from the circular opening to form the spherical surface 1622. The upper end of the ball-head rod 1625 is slidably sealed to the inner wall of the hollow cylinder 1623, and a liquid medium 1626 is filled between the ball-head rod 1625 and the inner wall at the top of the hollow cylinder 1623.
[0040] In this embodiment, the liquid medium 1626 may be water or hydraulic oil.
[0041] Please continue reading. Figure 6 and Figure 7 The elastic locking element 1624 includes an elastic ring 1627. The top end of the hollow cylinder 1623 has an annular opening. The elastic ring 1627 is assembled at the annular opening to form the locking part 1621. When the elastic ring 1627 is squeezed by the liquid medium 1626, the elastic ring 1627 expands and deforms outward, thereby further preventing the processing frame 2 from coming out of the locking between it and the hollow cylinder 1623, and ensuring the locking force of the device.
[0042] Please see Figure 4 and Figure 5 The processing frame 2 has multiple spaced strip-shaped placement grooves 23 along its edge. The depth H of the strip-shaped placement grooves 23 and the diameter D of the steel wire satisfy: H≧2D. The upper end of the inner wall of the processing frame 2 has an inclined guide surface 24 that slopes outward, and the lower end surrounds to form the forming wall surface 22. The shape of the pressure plate 143 matches the shape of the forming wall surface 22. The area S1 of the pressure plate 143 and the cross-sectional area S2 of the forming wall surface 22 satisfy: S2>S1. By limiting the depth of the placement grooves and the diameter of the steel wire, it is ensured that the upper and lower layers of steel wire can be completely submerged in the grooves for positioning, ensuring accurate positioning of the steel wire and preventing displacement during welding.
[0043] In this embodiment, the forming wall 22 of the processing frame 2 is a structure that runs vertically through the top and bottom. The strip placement groove 23 is set on the upper edge of the forming wall 22 to ensure that the pressure plate 143 can push the welded wire basket prototype out from the bottom of the processing frame 2.
[0044] In summary, when welding the wire mesh basket using the device, the steel wires to be processed are first manually arranged in a crisscross pattern in the strip placement grooves 23 inside the processing frame 2. The upper layer of horizontally placed steel wires and the lower layer of vertically placed steel wires can form a grid-like bottom surface of the wire mesh basket. At the same time, the processing frame 2 is placed on the conveyor belt 12, so that the positioning holes 211 of the processing frame 2 and the movable clamps 16 engage with each other. As the conveyor belt 12 moves, the processing frame 2 and the steel wires move together to the welding area 13. The welding machine 131 is used to weld the contact points of the upper and lower layers of steel wires. After welding, the conveyor belt 12 restarts, driving the processing frame 2 into the bending area 14. The hydraulic press 141 drives the pressure plate 143 to move down, pressing the welded steel wires downwards. Since the frame 1 has strip openings 11 inside, the steel wires at this time... Under the pressure of the hydraulic press 141 and the guidance of the inclined guide surface 24, the edge of the steel wire is squeezed and bent to form a preset basket shape until it comes out of the processing frame 2 and enters the recycling tank 3 below. At this time, the processing frame 2 continues to move with the conveyor belt 12 until it moves to the unloading area 15. The hollow cylinder 1623 moves to the strip groove 17. At this time, the hollow cylinder 1623 loses the support of the surface of the frame 1 and automatically slides down under its own gravity, so that the hollow cylinder 1623 is no longer locked with the positioning hole 211. With the continuous movement of the conveyor belt 12, the conveyor belt 12 can fall into the frame recycling tank 4 by inertia. This does not affect the rotation of the conveyor belt 12 itself, and realizes the function of automatic unloading. It also avoids the movement interference between the processing frame 2 and the mesh frame prototype below.
[0045] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.
Claims
1. A welding and processing equipment for a handcart basket, used to weld and bend crisscrossing steel wires to form a preliminary basket shape, characterized in that, include: The frame (1) has a strip-shaped opening (11) extending along its own length inside, and the frame (1) has a conveyor belt (12) moving in a ring on both sides of the strip-shaped opening (11). The processing frame (2) has positioning pieces (21) at both ends, positioning holes (211) are provided inside the positioning pieces (21), and forming wall surfaces (22) are provided inside the processing frame (2). The frame (1) is provided with a welding area (13) for welding steel wire, a bending area (14) for bending steel wire, and a stripping area (15) for removing the processing frame (2) in sequence along the conveyor belt (12) conveying direction. The conveyor belt (12) is provided with movable clamps (16) along its own length direction. The movable clamps (16) are vertically slidably connected to the conveyor belt (12) and are configured to protrude from the surface of the conveyor belt (12) after leaving the stripping area (15) so as to engage with the positioning hole (211). When the movable clip (16) moves to the unloading area (15), it retracts under its own gravity so that it disengages from the positioning hole (211).
2. The handcart wire basket welding equipment according to claim 1, characterized in that: It also includes a welder (131), which is disposed on one side of the frame (1) and above the strip opening (11) to form the weld area (13).
3. The handcart wire basket welding equipment according to claim 1, characterized in that: It also includes a hydraulic press (141) and a fixed frame (142). The hydraulic press (141) is disposed on one side of the frame (1) and located above the strip opening (11). The fixed frame (142) is fixedly assembled in the strip opening (11) and located below the hydraulic press (141) to form the bending area (14). The drive shaft of the hydraulic press (141) is fixedly assembled with a pressure plate (143). It also includes a recycling trough (3), which is located below the bending zone (14).
4. The handcart wire basket welding equipment according to claim 1, characterized in that: The frame (1) has strip grooves (17) on the inner walls of both sides of the strip opening (11). Both strip grooves (17) extend along the length of the frame (1) and are located below the two conveyor belts (12) to form the unloading zone (15).
5. The handcart wire basket welding equipment according to claim 4, characterized in that: It also includes a frame recycling trough (4), which is disposed on one side of the unloading area (15) along the conveying direction of the conveyor belt (12) and located outside one end of the frame (1).
6. The handcart wire basket welding equipment according to claim 5, characterized in that, The active card (16) includes: Assembly ring (161), multiple assembly rings (161) are provided, the multiple assembly rings (161) are divided into two groups, the two groups of assembly rings (161) are respectively arranged on the two conveyor belts (12) in a one-to-one correspondence, and each group of assembly rings (161) is spaced apart along the length direction of the conveyor belt (12); A locking member (162) passes through the assembly ring (161) and is slidably connected to the assembly ring (161). The shape of the locking member (162) matches that of the positioning hole (211).
7. The handcart wire basket welding equipment according to claim 6, characterized in that: The upper end of the engaging component (162) is provided with an engaging part (1621), the lower end of the engaging component (162) is provided with a spherical surface (1622), and the inner wall of the strip groove (17) away from the bending area (14) is provided with an arc-shaped guide surface (171) that cooperates with the spherical surface (1622).
8. The handcart wire basket welding equipment according to claim 3, characterized in that: The processing frame (2) is provided with a plurality of spaced strip placement grooves (23) on its edge. The depth H of the strip placement grooves (23) and the diameter D of the steel wire satisfy: H≧2D; The upper end of the inner wall of the processing frame (2) is provided with an inclined guide surface (24) that slopes outward, and the lower end is surrounded to form the forming wall surface (22). The shape of the pressure plate (143) matches the shape of the forming wall surface (22). The area S1 of the pressure plate (143) and the cross-sectional area S2 of the forming wall surface (22) satisfy: S2>S1.
9. The handcart wire basket welding processing equipment according to claim 7, characterized in that, The engaging component (162) includes: Hollow cylinder (1623), the hollow cylinder (1623) is slidably assembled inside the assembly ring (161), the top of the hollow cylinder (1623) is provided with an elastic clip (1624), and the bottom of the hollow cylinder (1623) is provided with a circular opening; A ball-head rod (1625) is disposed inside the bottom end of the hollow cylinder (1623). The lower end of the ball-head rod (1625) protrudes from the circular opening to form the spherical surface (1622). The upper end of the ball-head rod (1625) is slidably sealed to the inner wall of the hollow cylinder (1623), and a liquid medium (1626) is filled between the ball-head rod (1625) and the inner wall of the top end of the hollow cylinder (1623).
10. The handcart wire basket welding processing equipment according to claim 9, characterized in that: The elastic locking element (1624) includes an elastic ring (1627), and the top end of the hollow cylinder (1623) has an annular opening. The elastic ring (1627) is assembled at the annular opening to form the locking part (1621).