Steel mesh transfer line
By designing the rebar mesh flow line and using pallets and robots for flow, the existing flow methods are solved and the problems of low efficiency and safety hazards are achieved, and efficient and safe rebar mesh flow is achieved.
Patent Information
- Application Number
- CN202210441378.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2022-04-26
- Publication Date
- 2025-04-25
- Estimated Expiration
- 2042-04-26
AI Technical Summary
The existing steel mesh flow method is inefficient, and there are problems of occupying production site channels and safety hazards.
A steel mesh flow line is designed, which uses pallets and robots to flow, and efficiently flow of steel mesh is achieved through an annular conveying line, pallet lift, mesh robots and wood mat robots.
It realizes efficient flow of steel mesh, reduces the occupation of production sites, and improves flow efficiency and safety.
Smart Images

Figure CN114789506B_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the field of concrete prefabricated component production equipment, and mainly relates to a steel mesh transfer line which can timely and accurately transfer steel meshes from production stations to a concrete prefabricated component production line. Background Art
[0002] Steel mesh is an indispensable embedded part in the production of precast concrete components. It is mainly used to prevent the cracking of precast concrete components. At the same time, when the precast components are installed, the steel mesh exceeds the protruding bars of the precast components and can also play a connecting role between the components. Therefore, in the production of precast concrete components, the production and transportation of embedded steel mesh are important links. The production and circulation of steel mesh are usually arranged in adjacent but different spans of the factory. The two spans of the factory are the steel mesh production line and the precast component production line respectively; at present, the steel mesh is mainly circulated on the roller conveyor in single sheets; or it is stacked and stored on pallets and transported with the pallets by forklift or hoisting. Due to the certain distance between the production equipment of the mesh and the precast component mold platform, the single sheet circulation of the mesh on the roller conveyor has the problem of low efficiency. If there are obstacles or other equipment arranged in the transmission channel, it will also bring difficulties to the setting of the roller conveyor. The mesh is stacked on the pallet and transported by forklift, which has the problem of congestion in the transportation channel and low round-trip efficiency. Not only does it occupy the channel of the production site, but there are also unsafe factors. Summary of the invention
[0003] The purpose of the present invention is to provide a steel mesh circulation line, which can conveniently and quickly circulate the steel mesh and reduce the problem of occupying production work sites.
[0004] The present invention is realized through the following technical scheme, including a pallet, a pallet conveyor line, a pallet elevator, a mesh manipulator and a pad manipulator, and is characterized in that: the pallet conveyor line is a ring-shaped conveyor line, and a pallet mesh loading station, a pallet elevator, a pallet mesh unloading station and an empty pallet elevator are sequentially arranged on the conveyor line, and each station or equipment is connected by a conveyor roller; the pallet mesh loading station is located on the first floor of the circulation line, and the pallet mesh unloading station is located on the second floor of the circulation line; the pallet is arranged on the conveyor roller, and when the pallet runs on the conveyor roller of the ring-shaped conveyor line, its chassis contacts the roller wheels of each roller in turn.
[0005] At the mesh loading station on the first floor, there are mesh robot I for hoisting the steel mesh onto the pallet and a timber robot I for hoisting the timber from the timber storage rack to the timber isolation rack and dropping it onto the steel mesh.
[0006] At the pallet unloading mesh station on the second floor, there are mesh manipulator II for lifting the steel mesh from the pallet to the mesh lifting roller and timber manipulator II for lifting the timber from the timber isolation rack to the timber storage rack.
[0007] The pallet comprises a chassis, a pad storage rack and a pad isolation rack; the pad storage rack and the pad isolation rack are vertically mounted on two opposite sides of the chassis; the pad storage rack is located at both ends of the side, and the pad isolation rack is located between the two pad storage racks on the side.
[0008] The pallet elevator and the empty pallet elevator are located at the pallet lifting opening between the first and second floors. When lowered, the rollers on the elevator are connected to the rollers of the pallet loading mesh station on the first floor, and when raised, they are connected to the rollers of the pallet unloading mesh station on the second floor; the mesh lifting roller is located at the lifting roller opening between the first and second floors, and when raised, it is located near the mesh manipulator II on the second floor, and when lowered, it is connected to the roller leading to the mold platform on the first floor; the mesh manipulator III is located near the roller leading to the mold platform.
[0009] The pallet lift has the same structure as the empty pallet lift, including a lift base, a lift scissors beam and a lift roller, the lift roller being connected to the lift base through the lift scissors beam; the four ends of the lift scissors beam are connected to the lift roller or the lift base through hinges, and the other four ends are connected to the lift roller or the lift base through lift guide rails and guide wheels; on the lift scissors beam, a pallet lifting cylinder for controlling the lifting of the lift roller is installed through the lift connecting beam; the lift roller motor is installed at the end of the lift roller.
[0010] The mesh lifting roller comprises a base, a scissors beam and a roller frame, wherein the roller frame is connected to the base via the scissors beam; the four ends of the scissors beam are connected to the roller frame or the base via hinges, and the other four ends are connected to the roller frame or the base via guide rails and guide wheels; a lifting cylinder for controlling the lifting of the roller frame is installed on the scissors beam via a connecting beam; a cylindrical roller is installed on the roller frame, and a roller motor is installed at the end of the roller frame.
[0011] The structure of the described pad manipulator I is the same as that of the pad manipulator II, including a transverse walking beam, a longitudinal walking beam, a lifting beam and a rotating frame; the rotating frame is installed under the lifting beam and driven by a rotating motor; the lifting beam is connected to the longitudinal walking beam through a slide rail seat, the longitudinal walking beam is connected to the transverse walking beam, the transverse walking beam contacts the track on the frame through the walking wheel, and is respectively connected to the lifting motor, the longitudinal motor and the transverse motor; a pneumatic opening clamp for grabbing the pads is installed under the rotating frame.
[0012] The mesh manipulators I, II and III have the same structure and are all electromagnetic chuck manipulators with three-dimensional motion.
[0013] Mesh robot I and pad robot I are located on the track of the mesh loading rack, and alternately perform reciprocating motions to lift steel mesh or pads; mesh robot II and pad robot II are located on the track of the mesh unloading rack, and alternately perform reciprocating motions to lift steel mesh or pads.
[0014] When the steel mesh transfer line is in operation, the mesh manipulator I first grabs the steel mesh made by the steel mesh welding machine and places it on the pallet at the pallet loading mesh station, and then the pad manipulator I grabs the pads on the pad storage racks on both sides of the pallet and places them above the steel mesh in the pad isolation rack, which plays an isolation role for the steel mesh placed later. The steel mesh and pads are placed in sequence. After the steel mesh in the pallet is placed, the conveyor roller is started. The pallet runs to the pallet elevator roller through the conveyor roller, and the pallet elevator rises to the second floor. The roller on the elevator is connected to the conveyor roller of the pallet mesh unloading station, and the pallet runs to the pallet mesh unloading station. At this time, the mesh manipulator II lifts the mesh on the pallet to the mesh lifting roller, and the pad manipulator II lifts the isolation pads on the mesh to the pad storage rack for storage, and lifts the mesh and pads on the pallet in sequence. The empty pallet after unloading the mesh returns to the pallet mesh loading station via the empty pallet elevator for standby use. The mesh lifting roller equipped with the mesh falls to the first layer and is transferred to the mold platform of the prefabricated component through the conveying roller and the mesh manipulator III.
[0015] The beneficial effect of the present invention is that multiple steel mesh sheets can be transported over long distances at the same time by circulating through pallets, and the circulation efficiency is high. The steel mesh sheets on the pallet are isolated by pads, and multiple layers can be stacked without hooking up. The steel mesh sheets are circulated on a two-layer platform, and the space utilization is more reasonable, so that the orderly circulation of the steel mesh sheets can be achieved. It has the characteristics of reasonable process, compact structure, high circulation efficiency and high degree of automation. It can be widely used in the automated and rapid circulation of steel mesh sheets used in various concrete prefabricated component production lines. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 It is a schematic block diagram of the overall structure of the present invention;
[0017] Figure 2 This is a layout diagram of the equipment for the pallet-loaded mesh station on one floor;
[0018] Figure 3 This is the equipment layout of the pallet unloading mesh station on the second-floor platform, including the pallet elevator, and the empty pallet elevator is omitted;
[0019] Figure 4 It is a schematic diagram of the structure of the pallet;
[0020] Figure 5 It is a schematic diagram of the structure of the skid manipulator;
[0021] Figure 6 It is a structural schematic diagram of the mesh lifting roller table;
[0022] Figure 7 It is a structural diagram of a pallet lift.
[0023] In the figure, 1 is the mesh output roller of the steel mesh welding machine, 2 is the conveying roller, 3 is the pallet, 4 is the mesh robot I, 5 is the pad robot I, 6 is the mesh loading rack, 7 is the steel mesh, 8 is the mesh lifting roller, 9 is the mesh robot II, 10 is the pad robot II, 11 is the mesh unloading rack, 12 is the second-floor platform, and 13 is the pallet elevator; ① is the first-floor mesh circulation line; ② is the first-floor prefabricated component production line; ③ is the second-floor platform mesh circulation line.
[0024] 3-1 is the chassis, 3-2 is the pad isolation rack, 3-3 is the pad storage rack, 3-4 is the storage pad, 3-5 is the isolation pad; 5-1 is the horizontal walking beam, 5-2 is the horizontal motor, 5-3 is the longitudinal walking beam, 5-4 is the longitudinal motor, 5-5 is the lifting beam, 5-6 is the lifting motor, 5-7 is the rotating frame, 5-8 is the rotating motor, 5-9 is the pneumatic opening clamp; 8-1 is the base, 8-2 is the scissors beam, 8-3 is the roller frame, 8-4 is the cylindrical roller, 8-5 is the roller motor, 8-6 is the guide rail guide wheel, 8-7 is the connecting beam, 8-8 is the lifting cylinder; 13-1 is the elevator base, 13-2 is the elevator scissors beam, 13-3 is the elevator roller, 13-4 is the elevator roller motor, 13-5 is the elevator connecting beam, 13-6 is the elevator guide rail guide wheel, 13-7 is the pallet lifting cylinder. DETAILED DESCRIPTION
[0025] The specific implementation of the present invention is described below with reference to the accompanying drawings:
[0026] It includes a pallet, a pallet conveyor line, a pallet elevator, a mesh manipulator and a pad manipulator, and is characterized in that: the pallet conveyor line is a ring-shaped conveyor line, on which a pallet mesh loading station, a pallet elevator 13, a pallet mesh unloading station and an empty pallet elevator are sequentially arranged; each station or equipment is connected by a conveyor roller; the pallet mesh loading station is located on the first floor of the circulation line, and the pallet mesh unloading station is located on the second floor of the circulation line; the pallet 3 is arranged on the conveyor roller, and when the pallet 3 runs on the conveyor roller of the ring-shaped conveyor line, its chassis 3-1 contacts with the rollers of each roller in turn.
[0027] At the mesh loading station on the first floor, a mesh robot I4 is provided for hoisting the steel mesh 7 onto the pallet 3 and a timber robot I5 is provided for hoisting the timber from the timber storage rack 3-3 to the timber isolation rack 3-2 and dropping the timber onto the steel mesh 7.
[0028] At the pallet unloading mesh station on the second floor, a mesh robot II 9 for lifting the steel mesh 7 from the pallet 3 to the mesh lifting roller 8 and a timber robot II 10 for lifting the timber from the timber isolation rack 3-2 to the timber storage rack 3-3 are provided.
[0029] The pallet 3 includes a chassis 3-1, a wood storage rack 3-3 and a wood isolation rack 3-2; the wood storage rack 3-3 and the wood isolation rack 3-2 are vertically installed on two opposite sides of the chassis 3-1; the wood storage rack 3-3 is located at both ends of the side, and the wood isolation rack 3-2 is located between the two wood storage racks 3-3 on the side.
[0030] The pallet elevator 13 and the empty pallet elevator are located at the pallet lifting opening between the first and second floors. When lowered, the rollers on the elevators are connected to the rollers of the pallet loading mesh station on the first floor, and when raised, they are connected to the rollers of the pallet unloading mesh station on the second floor; the mesh lifting roller 8 is located at the lifting roller opening between the first and second floors, and when raised, it is located near the mesh manipulator II 9 on the second floor, and when lowered, it is connected to the roller leading to the mold platform on the first floor; the mesh manipulator III is located near the roller leading to the mold platform.
[0031] The pallet lift 13 has the same structure as the empty pallet lift, including a lift base 13-1, a lift scissor beam 13-2 and a lift roller 13-3, wherein the lift roller 13-3 is connected to the lift base 13-1 through the lift scissor beam 13-2; the four ends of the lift scissor beam 13-2 are connected to the lift roller 13-3 or the lift base 13-1 through hinges, and the other four ends are connected to the lift roller 13-3 or the lift base 13-1 through lift guide rails and guide wheels 13-6; on the lift scissor beam 13-2, a pallet lift cylinder 13-7 for controlling the lifting of the lift roller 13-3 is installed through the lift connecting beam 13-5; the lift roller motor 13-4 is installed at the end of the lift roller 13-3.
[0032] The mesh lifting roller 8 includes a base 8-1, a scissor beam 8-2 and a roller frame 8-3, wherein the roller frame 8-3 is connected to the base 8-1 via the scissor beam 8-2; the four ends of the scissor beam 8-2 are connected to the roller frame 8-3 or the base 8-1 via hinges, and the other four ends are connected to the roller frame 8-3 or the base 8-1 via guide rails and guide wheels 8-6; on the scissor beam 8-2, a lifting cylinder 8-8 for controlling the lifting of the roller frame 8-3 is installed via a connecting beam 8-7; a cylindrical roller 8-4 is installed on the roller frame 8-3, and a roller motor 8-5 is installed at the end of the roller frame 8-3.
[0033] The structure of the described pad manipulator I5 is the same as that of the pad manipulator II10, including a transverse walking beam 5-1, a longitudinal walking beam 5-3, a lifting beam 5-5 and a rotating frame 5-7; the rotating frame 5-7 is installed under the lifting beam 5-5 and driven by a rotating motor 5-8; the lifting beam 5-5 is connected to the longitudinal walking beam 5-3 through a slide rail seat, the longitudinal walking beam 5-3 is connected to the transverse walking beam 5-1, the transverse walking beam 5-1 is in contact with the track on the frame through the walking wheels, and is respectively connected to the lifting motor 5-6, the longitudinal motor 5-4 and the transverse motor 5-2; a pneumatic opening clamp 5-9 for grabbing pads is installed under the rotating frame 5-7.
[0034] The mesh manipulators I, II and III have the same structure and are all electromagnetic chuck manipulators with three-dimensional motion.
[0035] The mesh robot I4 and the pad robot I5 are located on the track of the mesh loading frame 6, and alternately perform the reciprocating motion of hoisting the steel mesh 7 or the pads; the mesh robot II9 and the pad robot II10 are located on the track of the mesh unloading frame 11, and alternately perform the reciprocating motion of hoisting the steel mesh 7 or the pads.
Claims
1. A steel mesh circulation line, comprising a pallet, a pallet conveyor line, a pallet elevator, a mesh manipulator and a pad manipulator, characterized in that: The pallet conveyor line is a circular conveyor line, and is provided with a pallet mesh loading station, a pallet elevator (13), a pallet mesh unloading station and an empty pallet elevator in sequence on the conveyor line; each station or device is connected by a conveyor roller; the pallet mesh loading station is located on the first floor of the conveyor line, and the pallet mesh unloading station is located on the second floor of the conveyor line; the pallet (3) is arranged on the conveyor roller, and when the pallet (3) runs on the conveyor roller of the circular conveyor line, its chassis (3-1) contacts the roller wheels of each roller in sequence; At the mesh loading station on the first floor, a mesh robot I (4) is provided for lifting the steel mesh (7) onto the pallet (3) and a wood robot I (5) is provided for lifting the wood from the wood storage rack (3-3) to the wood isolation rack (3-2) and dropping the wood onto the steel mesh (7); At the pallet unloading mesh station on the second floor, a mesh manipulator II (9) is provided for lifting the steel mesh (7) from the pallet (3) to the mesh lifting roller (8), and a pad manipulator II (10) is provided for lifting the pad from the pad isolation rack (3-2) to the pad storage rack (3-3); The pallet (3) comprises a chassis (3-1), a pad storage rack (3-3) and a pad isolation rack (3-2); the pad storage rack (3-3) and the pad isolation rack (3-2) are vertically mounted on two opposite side edges of the chassis (3-1); the pad storage rack (3-3) is located at both ends of the side edge, and the pad isolation rack (3-2) is located between the two pad storage racks (3-3) on the side edge; The pallet lift (13) has the same structure as the empty pallet lift, including a lift base (13-1), a lift scissor beam (13-2) and a lift roller (13-3); the lift roller (13-3) is connected to the lift base (13-1) via the lift scissor beam (13-2); the four ends of the lift scissor beam (13-2) are connected to the lift roller (13-3) or the lift base (13-1) via hinges, and the other four ends are connected to the lift roller (13-3) or the lift base (13-1) via lift guide rails and guide wheels (13-6); a pallet lift cylinder (13-7) for controlling the lift roller (13-3) to rise and fall is installed on the lift scissor beam (13-2) via a lift connecting beam (13-5); the lift roller motor (13-4) is installed at the end of the lift roller (13-3); The mesh lifting roller (8) comprises a base (8-1), a scissor beam (8-2) and a roller frame (8-3); the roller frame (8-3) is connected to the base (8-1) via the scissor beam (8-2); the four ends of the scissor beam (8-2) are connected to the roller frame (8-3) or the base (8-1) via hinges, and the other four ends are connected to the roller frame (8-3) or the base (8-1) via guide rails and guide wheels (8-6); a lifting cylinder (8-8) for controlling the lifting of the roller frame (8-3) is installed on the scissor beam (8-2) via a connecting beam (8-7); a cylindrical roller (8-4) is installed on the roller frame (8-3), and a roller motor (8-5) is installed at the end of the roller frame (8-3).
2. The steel mesh circulation line according to claim 1 is characterized in that: The pallet elevator (13) and the empty pallet elevator are located at the pallet elevator opening between the first and second floors. When lowered, the rollers on the elevators are connected to the rollers of the pallet mesh loading station on the first floor. When raised, they are connected to the rollers of the pallet mesh unloading station on the second floor. The mesh elevator roller (8) is located at the elevator roller opening between the first and second floors. When raised, it is located near the mesh manipulator II (9) on the second floor. When lowered, it is connected to the roller leading to the mold platform on the first floor. The mesh manipulator III is located near the roller leading to the mold platform.
3. The steel mesh circulation line according to claim 1 is characterized in that: The structure of the described pad manipulator I (5) is the same as that of the pad manipulator II (10), and includes a transverse walking beam (5-1), a longitudinal walking beam (5-3), a lifting beam (5-5) and a rotating frame (5-7); the rotating frame (5-7) is installed below the lifting beam (5-5) and is driven by a rotating motor (5-8); the lifting beam (5-5) is connected to the longitudinal walking beam (5-3) through a slide rail seat, the longitudinal walking beam (5-3) is connected to the transverse walking beam (5-1), the transverse walking beam (5-1) contacts the track on the frame through the walking wheel, and is respectively connected to the lifting motor (5-6), the longitudinal motor (5-4) and the transverse motor (5-2); a pneumatic opening clamp (5-9) capable of grabbing the pad is installed below the rotating frame (5-7).
4. The steel mesh circulation line according to claim 1 is characterized in that: The mesh manipulators I, II and III have the same structure and are all electromagnetic chuck manipulators with three-dimensional motion.
5. The steel mesh circulation line according to claim 1 is characterized in that: The mesh manipulator I (4) and the pad manipulator I (5) are located on the track of the mesh loading frame (6), and perform reciprocating motions of hoisting the steel mesh (7) or the pads in turn; the mesh manipulator II (9) and the pad manipulator II (10) are located on the track of the mesh unloading frame (11), and perform reciprocating motions of hoisting the steel mesh (7) or the pads in turn in turn.
Citation Information
Patent Citations
Reinforcing mesh transfer line
CN217257169U