Steel wire mesh, manufacturing device and method for civil engineering

Abstract

A wire mesh for civil engineering, a manufacturing device and a manufacturing method, comprising warp steel wires (61) distributed in the warp direction of the wire mesh, weft steel wires (62) arranged to be distributed in the weft direction of the wire mesh, and connection points (63) arranged at the contact parts of the warp steel wires (61) and the weft steel wires (62). The weft steel wires (62) are arranged to be distributed in an attached manner with the warp steel wires (61). The wire mesh is formed by the warp steel wires (61) and the weft steel wires (62). The connection points (63) are used to realize the connection between the weft steel wires (62) and the warp steel wires (61). The connection is no longer formed by weaving, thereby improving the strength of the wire mesh.

Description

Technical Field

[0001] The present invention relates to a steel wire mesh, a manufacturing device and a method, in particular to a steel wire mesh, a manufacturing device and a method for civil engineering. Background Art

[0002] Wire mesh is a general term for mesh materials woven or welded with low-carbon steel wire, medium-carbon steel wire, high-carbon steel wire, stainless steel wire and other materials. It is mainly made of steel wire and processed into a mesh by professional equipment, so it is called wire mesh. Wire mesh in civil engineering is used to prevent settlement and reinforce the skeleton of civil engineering. Therefore, wire mesh, production device and method used in civil engineering are an important civil engineering product. In the existing wire mesh, production device and method used in civil engineering, they are all formed by weaving. Since there is no connection point between the warp wire and the weft wire, the strength of the wire mesh is affected. Summary of the invention

[0003] The object of the present invention is a steel wire mesh for civil engineering,

[0004] The object of the present invention is a device for making a wire mesh for civil engineering.

[0005] The object of the present invention is a method for producing a steel wire mesh for civil engineering.

[0006] In order to overcome the above technical disadvantages, the object of the present invention is to provide a steel wire mesh, a manufacturing device and a method for civil engineering, thereby improving the strength of the steel wire mesh.

[0007] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is: a wire mesh for civil engineering, comprising warp steel wires distributed in the warp direction of the wire mesh, weft steel wires arranged to be distributed in the weft direction of the wire mesh, and connection points arranged at the contact parts of the warp steel wires and the weft steel wires, and the weft steel wires are arranged to be distributed in an attached manner with the warp steel wires.

[0008] Due to the design of the warp steel wires, weft steel wires and connecting points, the wire mesh is formed by the warp steel wires and the weft steel wires, and the connection between the weft steel wires and the warp steel wires is achieved through the connecting points. It is no longer formed by weaving, thereby improving the strength of the wire mesh.

[0009] The present invention is designed to connect the warp steel wires, the weft steel wires and the connection points to each other in a way that the connection wires are arranged on a single side.

[0010] The present invention designs that the weft steel wires are arranged on the warp steel wires, and connection points are arranged between the weft steel wires and the warp steel wires.

[0011] The present invention is designed that the warp steel wires and the weft steel wires are respectively arranged as circular filaments and the weft steel wires are arranged on the upper end face portions of the warp steel wires, the lower end face portions of the weft steel wires are arranged to be connected with the upper end face portions of the warp steel wires through connection points and the warp steel wires are arranged to be distributed in an interval arrangement, and the weft steel wires are arranged to be distributed in an interval arrangement on the warp steel wires.

[0012] The present invention designs that the connection point is set as a molten layer and the connection point is set as an embedded connection with the warp steel wire and the weft steel wire.

[0013] The present invention is designed that the diameter of the warp steel wire and the diameter of the weft steel wire are respectively set to 1.9-3.3 mm and the height of the connection point is set to 3.61-6.27 mm, the length of the steel wire mesh formed between the warp steel wire and the weft steel wire is set to 50-150 mm and the width of the steel wire mesh formed between the warp steel wire and the weft steel wire is set to 50-150 mm.

[0014] The present invention designs that a coating body is arranged on the outer surface of a grid body composed of warp steel wires, weft steel wires and connection points, and the coating body is arranged to be wrapped and connected with the warp steel wires, weft steel wires and connection points respectively.

[0015] The present invention designs that the end of one of the adjacent weft steel wires is connected to the end of another adjacent weft steel wire through a connection point, and the weft steel wires are arranged to be distributed on the warp steel wires in a continuous figure eight shape.

[0016] The present invention is designed to provide thickened portions on the warp steel wires and the weft steel wires, and the thickened portions are arranged to be spaced apart along the center lines of the warp steel wires and the weft steel wires, the thickened portions are arranged to be flat bodies, and connection points are provided between the thickened portions of the warp steel wires and the weft steel wires.

[0017] The present invention is designed that additives are respectively arranged on the warp steel wires and the weft steel wires or on the grids between the warp steel wires and the weft steel wires, and the additives are respectively arranged to be bonded to the warp steel wires and the weft steel wires, and the additives are arranged to be particles, fibers or cloth sheets.

[0018] The present invention is designed to provide a manufacturing device for civil engineering wire mesh, comprising a frame for supporting, a feeding device arranged on the frame and used to place the weft steel wires on the upper end surface of the warp steel wires, and a fusion welding device arranged on the frame and used to form a connection point between the weft steel wires and the warp steel wires.

[0019] The present invention is designed to further include a first accessory device having a reeling device and a straightening device, and the first accessory device is configured to release the warp steel wire.

[0020] The present invention is designed to further include a second accessory device having a discharging device, and the second accessory device is configured to drive the wire mesh to move at regular intervals.

[0021] The present invention provides that a third accessory device having a coating device is further included and the third accessory device is configured to be used for forming a coating body on the wire mesh.

[0022] The present invention is designed to further include a fourth accessory device having a rolling device, and the fourth accessory device is configured to form the wire mesh into a roll.

[0023] The present invention is designed that an unwinding device, a straightening device, a melting welding device, a feeding device and a discharging device are respectively arranged on a frame, the output port portion of the unwinding device is arranged to be connected to the input port device of the straightening device, and the output port portion of the straightening device and the output port portion of the feeding device are respectively arranged to be connected to the input port device of the melting welding device, the output port portion of the melting welding device is arranged to be connected to the input port device of the discharging device, and the output port portion of the discharging device is respectively arranged to be connected to the input port device of the coating device, and the output port portion of the coating device is arranged to be connected to the input port device of the rolling device.

[0024] The present invention is designed that a frame is configured to include a rear frame portion, a guide rail portion, a front frame portion and a support plate portion, and the end of the guide rail portion and the end of the support plate portion are respectively configured to be connected to the rear frame portion and the front frame portion, the guide rail portion is configured to be connected to a discharging device, and the support plate portion is respectively configured to be connected to a straightening device, a fusion welding device, a feeding device and a discharging device, the rear frame portion and the front frame portion are respectively configured to be door-shaped bodies, the guide rail portion is configured to be a circular rod-shaped body, and the support plate portion is configured to be a rectangular sheet-shaped body.

[0025] The present invention is designed that the unwinding device is configured to include a seat portion and a rotating cage portion, and the rotating cage portion is configured to be rotatably connected to the seat portion, the output port portion of the rotating cage portion is configured to be connected to the input port portion of the straightening device, the seat portion is configured to be a T-shaped seat body, and the rotating cage portion is configured to be a cage-shaped body having a tube portion and an outer expansion rod portion.

[0026] The present invention is designed that the straightening device is configured to include an isolation rod device, a pressure claw and a rolling device, and the pressure claw is arranged between the isolation rod device and the rolling device, the input port portion of the isolation rod device is configured to be connected to the unwinding device and the output port portion of the rolling device is configured to be connected to the melting welding device, the lower end of the vertical rod body of the isolation rod device is configured to be connected to the frame and the upper end of the vertical rod body of the isolation rod device is configured to be connected to the cross rod body of the isolation rod device, the pressure claw is configured to be an L-shaped plate-like body and the lower end of the pressure claw is configured to be connected to the frame, and the rolling device is configured to include a first support sheet, a second support sheet, an upper roller and a lower roller And the upper roller and the lower roller are respectively arranged to be rotatably connected to the first support sheet and the second support sheet, the angle between the first support sheet and the second support sheet is set to 90°, and the angle between the first support sheet and the vertical center line of the frame, and the angle between the second support sheet and the vertical center line of the frame are respectively set to 42-48°, the number of upper rollers is set to be one more than the number of lower rollers, and the upper rollers and the lower rollers are arranged to be distributed in a staggered arrangement, and the center line of the gap between the upper roller and the lower roller on the first support sheet and the center line of the gap between the upper roller and the lower roller on the second support sheet are set on the same horizontal line.

[0027] The present invention is designed that the molten welding device is configured to include a column frame, an insulating pad, a lower electrode, an upper electrode, a sliding block and a lifting and telescopic cylinder, and the insulating pad is configured to be connected to the frame, the lower electrode is respectively configured to be connected to the frame and the upper electrode is configured to be connected to the sliding block, the sliding block is configured to be slidably connected to the column frame and one of the ends of the lifting and telescopic cylinder is configured to be connected to the sliding block, one of the ends of the lifting and telescopic cylinder is configured to be connected to the column frame and the lower electrode and the upper electrode are configured to be connected to an external power supply, the column frame is configured to be a gate-shaped frame body, the insulating pad is configured to be a mica sheet body and the lower electrode and the upper electrode are configured to be a rectangular copper block body, the sliding block is configured to be a strip body with a sleeve and the lifting and telescopic cylinder is configured to be a two-section telescopic cylinder, a lower electrode and an upper electrode are configured to form a group of electrode components and multiple groups of electrode components are configured to be arranged and distributed at intervals along the transverse center line of the sliding block.

[0028] The present invention is designed that the feeding device is configured to include a conveying plate, a baffle rod, a feeding device, a baffle claw, a swing shaft, a swing arm, a swing cylinder, a silo, a first thrust cylinder and a thrust plate, and the lower end portion of the conveying plate is arranged on one of the side portions of the melting welding device, the baffle rod is arranged on another side portion of the melting welding device, and the conveying plate and the baffle rod are respectively arranged to be connected to the frame, the swing shaft is arranged to be connected to the conveying plate and the end of the swing shaft is arranged to be connected to one of the ends of the swing arm, the other end of the swing arm is arranged to be connected to one of the ends of the swing cylinder through a pin shaft and the other end of the swing cylinder is arranged to be connected to the conveying plate through a pin shaft, and the inner end of the baffle claw is arranged to be connected to the swing The outer side surface of the moving shaft is connected and the outer end of the catch is set to be extendedly connected to the conveying plate, the silo is set on the conveying plate and a first thrust cylinder is set on the silo, the telescopic end of the first thrust cylinder is set to be connected to the thrust plate and the feeding device is set on the conveying plate, the feeding device is set to extend between the silo and the catch rod and the conveying plate is set as an L-shaped sheet body, the catch rod is set as a bolt and the catch rod is set to be threadedly connected to the frame, the catch and the thrust plate are respectively set as rectangular strip bodies and the swing shaft is set as a circular rod body, the swing arm is set as a trapezoidal plate body and the silo is set as a rectangular box body, the swing cylinder and the first thrust cylinder are set as two-section telescopic cylinders and the feeding device is set as a swing conveying device.

[0029] The present invention is designed that the feeding device includes a grabbing head, a transverse telescopic cylinder, a nozzle head, a support block, a support frame, a vertical telescopic cylinder, a fixed seat and a fixed frame, the fixed frame is arranged on the wire mesh forming machine and the transverse telescopic cylinder is arranged on the fixed frame, the nozzle head, the support block, the support frame and the vertical telescopic cylinder are arranged on the transverse telescopic cylinder, the fixed seat is arranged on the vertical telescopic cylinder and the grabbing head is arranged on the fixed seat, the grabbing head is arranged to include a second thrust cylinder, a proximity switch, a first strip, a second strip, a third strip, a fourth strip and a fixed shaft and the second thrust cylinder, the proximity switch and the fixed shaft are arranged on the fixed seat, the upper end of the first strip and the upper end of the second strip are arranged to be connected to the telescopic end of the second thrust cylinder through a pin shaft, and the lower end of the third strip The upper part of the end and the upper part of the lower end of the fourth strip are arranged to be rotatably connected to the fixed shaft, and the lower end of the first strip is arranged to be connected to the upper end of the third strip through a pin shaft, the lower end of the second strip is arranged to be connected to the upper end of the fourth strip through a pin shaft, the second thrust cylinder is arranged to be a two-section telescopic cylinder and the proximity switch is arranged to be a photoelectric proximity switch, the first strip, the second strip, the third strip and the fourth strip are respectively arranged to be rectangular strip bodies and the lower end of the third strip and the lower end of the fourth strip are arranged to be distributed in a jaw manner, the fixed shaft is arranged to be a T-shaped rod body and the fixed shaft is arranged to be threadedly connected to the fixed seat, the fixed shaft is arranged to be insert-connected to the third strip and the fourth strip, the fixed seat is arranged to be a T-shaped plate body and The horizontal part of the fixed seat is arranged to be connected with the vertical telescopic cylinder through bolts and nuts, the vertical part of the fixed seat is arranged to be connected with the grabbing head, the fixed frame is arranged to be a rectangular beam-shaped body and the lower end of the fixed frame is arranged to be connected with the wire mesh forming machine, the upper end of the fixed frame is arranged to be connected with the transverse telescopic cylinder through bolts and nuts, the transverse telescopic cylinder is arranged to be a two-section telescopic cylinder and the fixed shell of the transverse telescopic cylinder is arranged to be connected with the nozzle head, the support block and the fixed frame respectively, the telescopic end of the transverse telescopic cylinder is arranged to be connected with the support frame and the vertical telescopic cylinder respectively, the nozzle head is arranged to be connected with the transverse telescopic cylinder and the nozzle head is arranged to be connected with the grabbing head, the transverse telescopic cylinder and the vertical telescopic cylinder respectively through pipelines, the nozzle head is arranged to be connected with the power source through pipelines, the support block is arranged It is a rectangular seat-shaped body and a sliding hole is arranged in the support block, the upper end of the support block is arranged to be connected to the transverse telescopic cylinder and the sliding hole of the support block is arranged to be connected to the support frame, the support frame is arranged to include a first rod portion, a second rod portion and a transverse head portion and the right end of the first rod portion and the right end of the second rod portion are respectively arranged to be connected to the transverse head portion, the upper end of the transverse head portion is arranged to be connected to the transverse telescopic cylinder and the first rod portion and the second rod portion are arranged to be slidingly connected to the support block, the first rod portion and the second rod portion are arranged to be a circular rod-shaped body and the transverse head portion is arranged to be a rectangular block-shaped body, the vertical telescopic cylinder is arranged to be a two-section telescopic cylinder and the fixed shell of the vertical telescopic cylinder is arranged to be connected to the transverse telescopic cylinder, and the telescopic end of the vertical telescopic cylinder is arranged to be connected to the fixed seat.

[0030] The present invention is designed that the discharging device is configured as a chain sprocket device, a movable seat, a rotating shaft, a gripping claw, a limiting claw, a limiting foot, a return cylinder and a stabilizing shaft, and the chain sprocket device and the movable seat are respectively configured to be connected to a frame, one of the sprocket shafts of the chain sprocket device is configured to be connected to the output end shaft of the stepper motor, one of the end heads of the return cylinder is configured to be connected to the movable seat and the other end head of the return cylinder is configured to be connected to the frame, the rotating shaft and the stabilizing shaft are respectively configured to be rotatably connected to the movable seat and the movable seat is configured to be connected to the movable seat, the outer side surface of the rotating shaft is respectively configured to be connected to the gripping claw and the limiting claw and the limiting claw is configured to be contact-connected to the limiting foot, the gripping claw arranged at the end head of the rotating shaft is configured to be connected to the sprocket of the chain sprocket device and the gripping claw arranged in the middle part of the rotating shaft is configured to be contact-connected to the latitudinal steel wire, and in the chain sprocket device The side surface of the sprocket is provided with a U-shaped hook portion and the movable seat is configured as a T-shaped block, the middle portion of the vertical portion of the movable seat is configured to be slidably connected to the frame and the lower end of the vertical portion of the movable seat is configured to be connected to the return cylinder through a pin shaft, the upper end of the vertical portion of the movable seat is configured to be rotatably connected to the stabilizing shaft and the outer end of the horizontal portion of the movable seat is configured to be rotatably connected to the rotating shaft, the outer end of the horizontal portion of the movable seat is configured to be connected to the limiting claw and the rotating shaft and the limiting foot are respectively configured to be circular rod-shaped bodies, the grasping claw and the limiting claw are configured to be rectangular strip-shaped bodies and the return cylinder is configured to be a two-section telescopic cylinder, the stabilizing shaft is configured to include a swing shaft and a swing arm and the ends of the swing shaft of the stabilizing shaft are respectively configured to be connected to the swing arms of the stabilizing shaft, the swing shaft of the stabilizing shaft is configured to be rotatably connected to the movable seat and the swing shaft of the stabilizing shaft is configured to be a circular rod-shaped body, and the swing arm of the stabilizing shaft is configured to be a fan-shaped sheet body.

[0031] The present invention is designed that the coating device is configured to include a frame, a liquid hopper, a coating roller, a supporting roller and a pressure roller, and the liquid hopper is configured to be connected to the frame, the coating roller, the supporting roller and the pressure roller are respectively configured to be rotatably connected to the frame and the coating roller is arranged at the open part of the liquid hopper, the pressure roller is arranged at the upper end surface part of the supporting roller and the input port part of the supporting roller and the pressure roller is arranged to be connected to the coating roller and the output port part of the liquid hopper, the output port part of the supporting roller and the pressure roller is arranged to be connected to the input port part of the rolling device and the input port part of the coating roller and the liquid hopper is arranged to be connected to the output port part of the discharging device, the frame is configured to be a T-shaped frame body, the liquid hopper is configured to be a V-shaped box body and the coating roller, the supporting roller and the pressure roller are configured to be circular roller-shaped bodies.

[0032] The present invention is designed that the rolling device is configured to include a bracket and a rolling shaft, and the rolling shaft is configured to be rotatably connected to the bracket, one of the ends of the rolling shaft is configured to be connected to a power motor through a coupling, and the rolling shaft is configured to be distributed corresponding to the coating device, the rolling shaft is configured to be a circular rod-shaped body, the bracket is configured to be a frame-shaped body with a V-shaped groove body on the upper end surface portion, and the V-shaped groove body of the bracket is configured to be connected to the rolling shaft.

[0033] The present invention is designed that the frame and the molten welding device are arranged to be distributed in a manner of connection between the running and the feeding device and the discharging device, and the frame, the molten welding device, the feeding device and the discharging device, the unwinding device and the straightening device are arranged to be distributed in a manner of entering in a straight line segment, the frame, the molten welding device, the feeding device and the discharging device and the coating device are arranged to be distributed in a manner of smearing between the running and the frame, the molten welding device, the feeding device and the discharging device and the rolling device are arranged to be distributed in a rolling manner, the center line of the frame, the center line of the straightening device, the center line of the molten welding device, the center line of the feeding device, the center line of the discharging device, the center line of the coating device and the center line of the rolling device are arranged on the same straight line, one of the ends of the return cylinder is arranged to be connected to the front frame portion, the movable seat is arranged to be connected to the guide rail portion, the chain sprocket device is arranged to be connected to the support plate portion, and the fixed frame is arranged to be connected to the feed plate The upper end of the vertical portion of the fixed seat is arranged to be connected to the second thrust cylinder, the lower end of the vertical portion of the fixed seat is arranged to be connected to the fixed shaft, the outer side surface of the vertical portion of the fixed seat is arranged to be connected to the proximity switch, the nozzle head is arranged to be connected to the second thrust cylinder through a pipeline, the pipelines arranged in the second thrust cylinder, the horizontal telescopic cylinder and the vertical telescopic cylinder and the nozzle head are arranged to be wound with the first rod portion and the second rod portion, the second thrust cylinder, the horizontal telescopic cylinder and the vertical telescopic cylinder are respectively arranged as pneumatic telescopic cylinders, the baffle rod is arranged to be connected to the support plate portion, the feed plate is arranged to be connected to the support plate portion, the insulating pad is arranged to be connected to the support plate portion, the first support sheet portion and the second support sheet portion are respectively arranged to be connected to the support plate portion, the isolation rod device and the pressure claw are respectively arranged to be connected to the support plate portion, a pressure claw and a rolling device are arranged to form a group of rear straightening components and multiple groups of rear straightening components are arranged to be arranged at intervals along the vertical center line of the support plate portion.

[0034] The present invention provides a method for making a steel wire mesh for civil engineering, the steps of which are:

[0035] The rolled warp steel wires are placed on the rotating cage parts respectively, and the warp steel wires pass through the windows between the vertical rod bodies of the isolation rod device and enter the hook part of the pressing claw, and then pass through the upper roller and the lower roller on the first supporting piece part, and the upper roller and the lower roller on the second supporting piece part in turn. The upper roller and the lower roller rotate relative to each other to straighten the warp steel wires, so that the number of rolls of the warp steel wires placed on the rotating cage parts is the same as the number of warp steel wires required in the wire mesh, and the distance between adjacent warp steel wires on the rolling device is set to be equal to the length of the wire mesh formed between the warp steel wires and the weft steel wires.

[0036] Put the weft wire segments that are consistent with the width of the wire mesh into the silo.

[0037] Put the coating liquid consisting of water-based paint, water-based paint and quartz sand, water-based paint and quartz fiber, or water-based paint and quartz fiber cloth into the liquid hopper.

[0038] Connect the output port of the air compressor to the lifting and telescopic cylinder, the swing cylinder, the first thrust cylinder, and the return cylinder.

[0039] Through the nozzle head, the output port of the air compressor is connected to the second thrust cylinder, the horizontal telescopic cylinder and the vertical telescopic cylinder respectively, so that the horizontal telescopic cylinder is extended, the second thrust cylinder is extended, the first sheet and the second sheet are pushed downward, the first sheet drives the third sheet to rotate on the fixed shaft, the second sheet drives the fourth sheet to rotate on the fixed shaft, the jaws between the lower ends of the third sheet and the fourth sheet are expanded, the vertical telescopic cylinder is extended, the lower ends of the third sheet and the fourth sheet are extended, and the jaws between the lower ends of the third sheet and the fourth sheet are extended. The jaws between the lower ends of the third and fourth strips are placed at the stacking place of the weft steel wires in the silo, and the proximity switch is used to put a single weft steel wire into the jaws between the lower ends of the third and fourth strips, so that the second thrust cylinder is contracted, and the first and second strips are lifted upward, and the first strip drives the third strip to rotate on the fixed axis, and the second strip drives the fourth strip to rotate on the fixed axis, and the jaws between the lower ends of the third and fourth strips are closed, and the jaws between the lower ends of the third and fourth strips are aligned with the single weft steel wire. The single weft steel wire is clamped to make the vertical telescopic cylinder contract, lift the single weft steel wire, contract the horizontal telescopic cylinder, extend the vertical telescopic cylinder, place the single weft steel wire on the conveyor plate, extend the second thrust cylinder, push the first and second strips downward, the first strip drives the third strip to rotate on the fixed axis, the second strip drives the fourth strip to rotate on the fixed axis, open the jaws between the lower ends of the third strip and the fourth strip, place the single weft steel wire on the conveyor plate, and The retaining claw supports a single weft steel wire. When the swing cylinder contracts, the telescopic end of the swing cylinder drives the swing shaft to rotate through the swing arm, so that the retaining claw is separated from the single weft steel wire. The single weft steel wire enters the retaining rod, and the retaining rod puts the single weft steel wire on the warp steel wire on the lower electrode. The position between the retaining rod and the supporting plate is adjusted, so that the position between the single weft steel wire and the lower electrode is adjusted. By extending the first thrust cylinder, the thrust plate acts on the weft steel wire in the silo to pile up the weft steel wire.

[0040] The gripping claws are connected to the chain and the weft steel wire of the chain sprocket device respectively. The stepper motor drives the chain of the chain sprocket device to rotate, so that the length of the interval rotation of the chain of the chain sprocket device is equal to the width of the steel wire mesh formed between the warp steel wire and the weft steel wire. When the chain of the chain sprocket device is in a stopped state, the chain of the chain sprocket device is quickly stopped by swinging the stabilizing shaft, so that the current between the lower electrode and the upper electrode performs a melting welding process on the contact points of a single weft steel wire and a warp steel wire. When the chain of the chain sprocket device moves, The moving seat moves on the guide rail part. When the moving seat is located at the limit position of the output port of the discharging device, the return cylinder contracts, the rotating shaft rotates counterclockwise, the grasping claw is separated from the chain and weft wire of the chain sprocket device, and the limit claw is separated from the limit foot. Under the action of the return cylinder, when the moving seat returns to the limit position of the input port of the discharging device, when the return cylinder is in the extended state, the rotating shaft rotates clockwise, the grasping claw is connected with the chain and weft wire of the chain sprocket device, and the limit claw is connected with the limit foot, so as to realize the output of the next wire mesh used for civil engineering.

[0041] The lifting and telescopic cylinder is extended, driving the sliding block to move downward on the column frame, so that the upper electrode contacts the single weft steel wire. The single weft steel wire and the warp steel wire are located between the lower electrode and the upper electrode. The contact points of the single weft steel wire and the warp steel wire are melt-welded by the current between the lower electrode and the upper electrode, thus realizing the connection points between the single weft steel wire and the warp steel wire. After the melt welding between the single weft steel wire and the warp steel wire is completed, the lifting and telescopic cylinder is contracted, driving the sliding block to move upward on the column frame, so that the upper electrode moves upward, thus realizing the formation of the wire mesh for the single weft steel wire and the warp steel wire.

[0042] The wire mesh is connected to the winding shaft. Under the action of the power motor, the wire mesh passes through the liquid hopper. Under the rotation of the coating roller, the wire mesh is immersed in the coating liquid, and a coating body is formed on the warp wires, weft wires and connection points of the wire mesh. Through the rolling shaping between the supporting roller and the pressure roller, the wire mesh roll is formed on the winding shaft through the power motor.

[0043] When the wire mesh is started, the first weft steel wire is connected to the warp steel wire by a melting welding device, and then the first weft steel wire is manually pulled to make the warp steel wire enter between the lower electrode and the upper electrode. Then the second weft steel wire is connected to the warp steel wire by a melting welding device until the first weft steel wire is connected to the gripping claw.

[0044] In the present technical scheme, the frame, the melting welding device and the feeding device are basic components and are also the necessary technical features of the present invention. The unwinding device, the straightening device, the discharging device, the coating device and the rolling device are functional components and are the features for realizing other technical effects of the present invention. The rear frame part, the guide rail part, the front frame part, the support plate part, the seat part, the cage part, the isolation rod device, the pressure claw, the rolling device, the first support sheet part, the second support sheet part, the upper roller, the lower roller, the column frame, the insulating pad, the lower electrode, the upper electrode, the sliding block and the lifting and telescopic cylinder, the conveying plate, the stopper rod, the feeding device, the stopper claw, the swing shaft , swing arm, swing cylinder, silo, first thrust cylinder, thrust plate, grabbing head, horizontal telescopic cylinder, nozzle head, support block, support frame, vertical telescopic cylinder, fixed seat, fixed frame, second thrust cylinder, proximity switch, first strip, second strip, third strip, fourth strip, fixed shaft, first rod, second rod, cross head, chain sprocket device, movable seat, rotating shaft, gripping claw, limit claw, limit foot, return cylinder, stabilizing shaft, frame, liquid hopper, coating roller, support roller, pressure roller, bracket, and winding shaft are technical features that comply with the Patent Law and its implementing rules.

[0045] In the present technical scheme, the warp steel wires, weft steel wires and connection points of the connecting wires arranged on one side are important technical features. In the technical field of wire mesh, manufacturing devices and methods used in civil engineering, it has novelty, creativity and practicality. The terms in the present technical scheme can be explained and understood using patent documents in this technical field. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0047] Figure 1 A schematic diagram of a wire mesh used in civil engineering.

[0048] Figure 2 A schematic diagram of a device for making a wire mesh for civil engineering.

[0049] Figure 3 is a schematic structural diagram of the rolling device 33,

[0050] Figure 4 is a schematic structural diagram of the feeding device 53,

[0051] Figure 5 for Figure 4 Right view of

[0052] Frame-1, unwinding device-2, straightening device-3, melting welding device-4, feeding device-5, discharging device-7, coating device-8, rolling device-9, rear frame-11, guide rail part-12, front frame part-13, support plate part-14, seat part-21, cage part-22, isolation rod device-31, pressure claw-32, rolling device-33, first support sheet part-331, second support sheet part-332, upper roller-333, lower roller-334, column frame-41, insulating pad-42, lower electrode-43, upper electrode-44, sliding block-45, lifting and telescopic cylinder-46, conveyor plate-51, stop rod-52, feeding device -53, stopper claw-54, swing shaft-55, swing arm-50, swing cylinder-56, silo-57, first thrust cylinder-58, thrust plate-59, grab head-531, horizontal telescopic cylinder-532, nozzle head-533, support block-534, support frame-535, vertical telescopic cylinder-536, fixed seat-537, fixed frame-538, second thrust cylinder-5311, proximity switch-5312, first strip-5313, second strip-5314, third strip-5315, fourth strip-5316, fixed shaft-5317, first rod-5351, second rod-5352, horizontal head-5353,

[0053] Chain sprocket device -71, moving seat -72, rotating shaft -73, grasping claw -74, limiting claw -75, limiting foot -76, return cylinder -77, stabilizing shaft -78, frame -81, liquid hopper -82, coating roller -83, supporting roller -84, pressure roller -85, bracket -91, winding shaft -92, warp steel wire -61, weft steel wire -62, connecting point -63. DETAILED DESCRIPTION

[0054] According to the Examination Guidelines, terms such as “having”, “including” and “comprising” used in the present invention should be understood as not dispensing with the existence or addition of one or more other elements or combinations thereof.

[0055] In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicating the orientation or positional relationship, are based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first", "second", and "third" are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance.

[0056] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0057] In addition, the technical features involved in the different embodiments of the present invention described below can be combined with each other as long as they do not conflict with each other. In addition, unless otherwise specified, the equipment and materials used in the following examples are commercially available. If the processing conditions are not clearly stated, please refer to the purchased product manual or proceed according to conventional methods in the art.

[0058] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0059] A wire mesh used in civil engineering, Figure 1 This is one of the first embodiments of the present invention, and this embodiment is specifically described in conjunction with the accompanying drawings. It includes a warp steel wire 61, a weft steel wire 62 and a connection point 63, and the weft steel wire 62 is arranged on the warp steel wire 61, and a connection point 63 is arranged between the weft steel wire 62 and the warp steel wire 61.

[0060] In the present embodiment, the warp steel wires 61 and the weft steel wires 62 are respectively arranged as circular filaments and the weft steel wires 62 are arranged on the upper end face portion of the warp steel wires 61, the lower end face portion of the weft steel wires 62 is arranged to be connected to the upper end face portion of the warp steel wires 61 through a connection point 63 and the warp steel wires 61 are arranged to be distributed in an interval arrangement, and the weft steel wires 62 are arranged to be distributed in an interval arrangement on the warp steel wires 61.

[0061] A supporting connection point for the connection point 63 is formed by the warp wires 61 and the weft wires 62, and the connection with the connection point 63 is realized by the warp wires 61 and the weft wires 62. The technical purpose is to be used as the wire of the civil engineering wire mesh.

[0062] In the present embodiment, the connection point 63 is provided as a molten layer and the connection point 63 is provided as an embedded connection with the warp steel wires 61 and the weft steel wires 62 .

[0063] Through the connection point 63, a supporting connection point for the warp steel wires 61 and the weft steel wires 62 is formed. The connection point 63 realizes the connection with the warp steel wires 61 and the connection with the weft steel wires 62. Its technical purpose is to connect the weft steel wires 62 with the warp steel wires 61.

[0064] In this embodiment, the diameter of the warp steel wire 61 and the diameter of the weft steel wire 62 are set to 1.9-3.3 mm respectively and the height of the connection point 63 is set to 3.61-6.27 mm, the length of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 50-150 mm and the width of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 50-150 mm.

[0065] The warp steel wires 61, the weft steel wires 62 and the connection points 63 realize a steel wire mesh suitable for use in civil engineering.

[0066] In this embodiment, a coating body is provided on the outer surface of the grid body composed of the warp steel wires 61, the weft steel wires 62 and the connection points 63, and the coating body is respectively provided to be wrapped and connected with the warp steel wires 61, the weft steel wires 62 and the connection points 63.

[0067] The coating body forms supporting connection points for the warp steel wires 61, the weft steel wires 62 and the connection points 63. The coating body realizes connection with the warp steel wires 61, the weft steel wires 62 and the connection points 63. The technical purpose is to improve the corrosion resistance of the warp steel wires 61 and the weft steel wires 62 and increase the adhesion to the soil of the foundation.

[0068] In the second embodiment of the first embodiment of the present invention, the diameter of the warp steel wire 61 and the diameter of the weft steel wire 62 are respectively set to 1.9 mm and the height of the connection point 63 is set to 3.61 mm, the length of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 50 mm and the width of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 50 mm.

[0069] In the third embodiment of the first embodiment of the present invention, the diameter of the warp steel wire 61 and the diameter of the weft steel wire 62 are respectively set to 3.3 mm and the height of the connection point 63 is set to 6.27 mm, the length of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 150 mm and the width of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 150 mm.

[0070] In the fourth embodiment of the first embodiment of the present invention, the diameter of the warp steel wire 61 and the diameter of the weft steel wire 62 are respectively set to 2.6 mm and the height of the connection point 63 is set to 4.25 mm, the length of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 100 mm and the width of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62 is set to 100 mm.

[0071] Due to the size of the wire mesh, the best effect of civil engineering skeleton reinforcement is achieved.

[0072] In the fifth embodiment of the first embodiment of the present invention, the end of one of the adjacent weft steel wires 62 is arranged to be connected to the end of another adjacent weft steel wire 62 through a connection point 63, and the weft steel wires 62 are arranged to be distributed in a continuous figure-eight shape on the warp steel wires 61.

[0073] The weft steel wires 62 achieve an integrally connected weft steel wire 62 distribution, thereby improving the strength of the steel wire mesh.

[0074] In the sixth embodiment of the first embodiment of the present invention, thickened portions are provided on the warp steel wires 61 and the weft steel wires 62, and the thickened portions are arranged to be spaced apart along the center lines of the warp steel wires 61 and the weft steel wires 62, the thickened portions are arranged to be flat bodies, and connection points 63 are provided between the thickened portions of the warp steel wires 61 and the weft steel wires 62.

[0075] The thickened portion achieves an increased contact area with the foundation and increased strength of the wire mesh.

[0076] In the seventh embodiment of the first embodiment of the present invention, additives are respectively arranged on the warp steel wires 61 and the weft steel wires 62 or on the grids between the warp steel wires 61 and the weft steel wires 62, and the additives are respectively arranged to be bonded to the warp steel wires 61 and the weft steel wires 62, and the additives are arranged to be granular, fibrous or cloth sheets.

[0077] The added body realizes an implantable connection with the foundation, which has a better effect on preventing settlement of civil engineering and reinforcing the skeleton.

[0078] In the second embodiment of the present invention, the warp steel wires 61, the weft steel wires 62 and the connection points 63 are connected to each other in a single-side arrangement of the connection wires.

[0079] The second to sixth embodiments of the present invention are based on the first embodiment.

[0080] A device for making a steel wire mesh for civil engineering, Figure 2This is one of the first embodiments of the present invention, and this embodiment is specifically described in conjunction with the accompanying drawings. It includes a frame 1, an unwinding device 2, a straightening device 3, a melting welding device 4, a feeding device 5, a discharging device 7, a coating device 8 and a rolling device 9, and the unwinding device 2, the straightening device 3, the melting welding device 4, the feeding device 5 and the discharging device 7 are respectively arranged on the frame 1, the output port portion of the unwinding device 2 is arranged to be connected to the input port device of the straightening device 3, and the output port portion of the straightening device 3 and the output port portion of the feeding device 5 are respectively arranged to be connected to the input port device of the melting welding device 4, the output port portion of the melting welding device 4 is arranged to be connected to the input port device of the discharging device 7, and the output port portion of the discharging device 7 is respectively arranged to be connected to the input port device of the coating device 8, and the output port portion of the coating device 8 is arranged to be connected to the input port device of the rolling device 9.

[0081] In this embodiment, the frame 1 is configured to include a rear frame portion 11, a guide rail portion 12, a front frame portion 13 and a support plate portion 14, and the end of the guide rail portion 12 and the end of the support plate portion 14 are respectively configured to be connected to the rear frame portion 11 and the front frame portion 13, the guide rail portion 12 is configured to be connected to the discharge device 7, and the support plate portion 14 is respectively configured to be connected to the straightening device 3, the fusion welding device 4, the feeding device 5 and the discharge device 7, the rear frame portion 11 and the front frame portion 13 are respectively configured to be gate-shaped bodies, the guide rail portion 12 is configured to be a circular rod-shaped body, and the support plate portion 14 is configured to be a rectangular sheet-shaped body.

[0082] Through the frame 1, supporting connection points for the straightening device 3, the melting welding device 4, the feeding device 5 and the discharging device 7 are formed. The support plate part 14 realizes the connection with the straightening device 3, the connection with the melting welding device 4, the connection with the feeding device 5, the connection with the discharging device 7 is realized by the guide rail part 12, and the support of the guide rail part 12 and the support plate part 14 is realized by the rear frame part 11 and the front frame part 13. The technical purpose is to serve as a support body for other components.

[0083] In this embodiment, the unwinding device 2 is configured to include a seat portion 21 and a cage portion 22, and the cage portion 22 is configured to be rotatably connected to the seat portion 21, the output port portion of the cage portion 22 is configured to be connected to the input port portion of the straightening device 3, the seat portion 21 is configured to be a T-shaped seat body, and the cage portion 22 is configured to be a cage-shaped body having a tube portion and an external expansion rod portion.

[0084] Through the unwinding device 2, a supporting connection point for the straightening device 3 is formed, the cage part 22 realizes the connection with the straightening device 3, and the seat part 21 realizes the connection with the cage part 2. Its technical purpose is to release the warp steel wire 61 roll.

[0085] In this embodiment, the straightening device 3 is configured to include an isolation rod device 31, a pressure claw 32 and a rolling device 33, and the pressure claw 32 is arranged between the isolation rod device 31 and the rolling device 33, the input port portion of the isolation rod device 31 is arranged to be connected to the unwinding device 2 and the output port portion of the rolling device 33 is arranged to be connected to the molten welding device 4, the lower end of the vertical rod body of the isolation rod device 31 is arranged to be connected to the frame 1 and the upper end of the vertical rod body of the isolation rod device 31 is arranged to be connected to the cross rod body of the isolation rod device 31, the pressure claw 32 is arranged to be an L-shaped plate-like body and the lower end of the pressure claw 32 is arranged to be connected to the frame 1, the rolling device 33 is arranged to include a first support sheet 331, a second support sheet 332, an upper roller 333 and a lower roller 334, and the upper roller 3 The upper and lower rollers 333 and 334 are respectively arranged to be rotatably connected to the first support sheet 331 and the second support sheet 332, the angle between the first support sheet 331 and the second support sheet 332 is set to 90°, and the angle between the first support sheet 331 and the vertical center line of the frame 1, and the angle between the second support sheet 332 and the vertical center line of the frame 1 are respectively set to 42-48°, the number of upper rollers 333 is set to be one more than the number of lower rollers 334, and the upper rollers 333 and the lower rollers 334 are arranged to be staggered and distributed, and the center line of the gap between the upper roller 333 and the lower roller 334 on the first support sheet 331 and the center line of the gap between the upper roller 333 and the lower roller 334 on the second support sheet 332 are arranged on the same horizontal line.

[0086] Through the straightening device 3, a supporting connection point for the unwinding device 2 and the molten welding device 4 is formed, the connection with the unwinding device 2 is realized by the isolation rod device 31, the connection with the molten welding device 4 is realized by the rolling device 33, the positioning of the warp steel wire 61 is realized by the pressure claw 32, and the rolling straightening of the warp steel wire 61 is realized by the first support sheet 331, the second support sheet 332, the upper roller 333 and the lower roller 334. The technical purpose is to straighten the warp steel wire 61.

[0087] In this embodiment, the molten welding device 4 is configured to include a column frame 41, an insulating pad 42, a lower electrode 43, an upper electrode 44, a sliding block 45 and a lifting and telescopic cylinder 46, and the insulating pad 42 is configured to be connected to the frame 1, the lower electrode 43 is respectively configured to be connected to the frame 1 and the upper electrode 44 is configured to be connected to the sliding block 45, the sliding block 45 is configured to be slidably connected to the column frame 41 and one of the ends of the lifting and telescopic cylinder 46 is configured to be connected to the sliding block 45, one of the ends of the lifting and telescopic cylinder 46 is configured to be connected to the column frame 41 and the lower electrode 43 and the upper electrode 44 are configured to be connected to an external power supply, the column frame 41 is configured to be a gate-shaped frame body, the insulating pad 42 is configured to be a mica sheet body and the lower electrode 43 and the upper electrode 44 are configured to be a rectangular copper block body, the sliding block 45 is provided with a strip body with a sleeve and the lifting and telescopic cylinder 46 is configured to be a two-section telescopic cylinder, a lower electrode 43 and an upper electrode 44 are configured to form a group of electrode components and multiple groups of electrode components are configured to be arranged and distributed at intervals along the transverse center line of the sliding block 45.

[0088] Through the melting welding device 4, supporting connection points for the straightening device 3, the feeding device 5 and the discharging device 7 are formed. The column frame 41 realizes the connection with the straightening device 3, the connection with the feeding device 5, and the connection with the discharging device 7. The insulating pad 42 realizes the insulation protection of the lower electrode 43. The lower electrode 43, the upper electrode 44, the sliding block 45 and the lifting and telescopic cylinder 46 realize the rolling straightening of the warp steel wire 61. The technical purpose is to form a connection point 63 between the weft steel wire 62 and the warp steel wire 61.

[0089] In the present embodiment, the feeding device 5 is configured to include a feed plate 51, a baffle 52, a feeding device 53, a baffle 54, a swing shaft 55, a swing arm 50, a swing cylinder 56, a silo 57, a first thrust cylinder 58 and a thrust plate 59, and the lower end of the feed plate 51 is arranged on one of the side portions of the melting welding device 4, the baffle 52 is arranged on another side portion of the melting welding device 4, and the feed plate 51 and the baffle 52 are respectively arranged to be connected to the frame 1, the swing shaft 55 is arranged to be connected to the feed plate 51 and the end of the swing shaft 55 is arranged to be connected to one of the ends of the swing arm 50, one of the other ends of the swing arm 50 is arranged to be connected to one of the ends of the swing cylinder 56 through a pin shaft and the other end of the swing cylinder 56 is arranged to be connected to the feed plate 51 through a pin shaft, and the inner end of the baffle 54 is arranged to be connected to the swing The outer side surface of the shaft 55 is connected and the outer end of the catch 54 is set to be extendedly connected to the conveying plate 51, the silo 57 is set on the conveying plate 51 and a first thrust cylinder 58 is set on the silo 57, the telescopic end of the first thrust cylinder 58 is set to be connected to the thrust plate 59 and the feeding device 53 is set on the conveying plate 51, the feeding device 53 is set to extend between the silo 57 and the baffle 52 and the conveying plate 51 is set as an L-shaped sheet body, the baffle 52 is set as a bolt and the baffle 52 is set to be threadedly connected to the frame 1, the catch 54 and the thrust plate 59 are respectively set as rectangular strip bodies and the swing shaft 55 is set as a circular rod body, the swing arm 50 is set as a trapezoidal plate body and the silo 57 is set as a rectangular box body, the swing cylinder 56 and the first thrust cylinder 58 are set as two-section telescopic cylinders and the feeding device 53 is set as a swing conveying device.

[0090] A supporting connection point for the molten welding device 4 is formed by the feeding device 5, and the connection with the molten welding device 4 is realized by the feeding plate 51 and the blocking rod 52. The storage of the weft steel wires 62 is realized by the silo 57, the first thrust cylinder 58 and the thrust plate 59. The feeding device 53 realizes the placement of the weft steel wires 62 into the molten welding device 4. The blocking claw 54, the swing shaft 55, the swing arm 50 and the swing cylinder 56 realize the intermittent release of the weft steel wires 62. The technical purpose is to place the weft steel wires 62 on the warp steel wires 61.

[0091] In this embodiment, the feeding device 53 includes a grab head 531, a horizontal telescopic cylinder 532, a nozzle head 533, a support block 534, a support frame 535, a vertical telescopic cylinder 536, a fixed seat 537 and a fixed frame 538, the fixed frame 538 is arranged on the wire mesh forming machine and the horizontal telescopic cylinder 532 is arranged on the fixed frame 538, the nozzle head 533, the support block 534, the support frame 535 and the vertical telescopic cylinder 536 are arranged on the horizontal telescopic cylinder 532, the fixed seat 537 is arranged on the vertical telescopic cylinder 536 and the grab head 531 is arranged on the fixed seat 537, the grab head 531 is arranged to include a second thrust cylinder 5311, a proximity switch 5312, a first strip 5313, a second strip 5314, a third strip 531 5. The fourth strip 5316 and the fixed shaft 5317 and the second thrust cylinder 5311, the proximity switch 5312 and the fixed shaft 5317 are arranged on the fixed seat 537, the upper end of the first strip 5313 and the upper end of the second strip 5314 are arranged to be connected to the telescopic end of the second thrust cylinder 5311 through a pin shaft, the upper end of the lower end of the third strip 5315 and the upper end of the lower end of the fourth strip 5316 are arranged to be rotatably connected to the fixed shaft 5317, and the lower end of the first strip 5313 is arranged to be connected to the upper end of the third strip 5315 through a pin shaft, the lower end of the second strip 5314 is arranged to be connected to the upper end of the fourth strip 5316 through a pin shaft, the second thrust cylinder 5311 is arranged to be a two-section telescopic cylinder and the proximity switch 5312 and the fixed shaft 5317 are arranged to be connected to the second thrust cylinder 5311 through a pin shaft, and the second thrust cylinder 5311 is arranged to be a two-section telescopic cylinder and the proximity switch 5312 and the fixed shaft 5317 are arranged to be connected to the second thrust cylinder 5311 through a pin shaft. The switch 5312 is configured as a photoelectric proximity switch, the first strip 5313, the second strip 5314, the third strip 5315 and the fourth strip 5316 are respectively configured as rectangular strips and the lower ends of the third strip 5315 and the fourth strip 5316 are configured to be distributed in a jaw manner, the fixed shaft 5317 is configured as a T-shaped rod and the fixed shaft 5317 is configured to be threadedly connected to the fixed seat 537, the fixed shaft 5317 is configured to be insertedly connected to the third strip 5315 and the fourth strip 5316, the fixed seat 537 is configured as a T-shaped plate and the horizontal portion of the fixed seat 537 is configured to be connected to the vertical telescopic cylinder 536 through bolts and nuts, the vertical portion of the fixed seat 537 is configured to be connected to the grab head 531, the fixed frame 5 38 is configured as a rectangular beam-shaped body and the lower end of the fixing frame 538 is configured to be connected to the wire mesh forming machine, the upper end of the fixing frame 538 is configured to be connected to the transverse telescopic cylinder 532 through bolts and nuts, the transverse telescopic cylinder 532 is configured to be a two-section telescopic cylinder and the fixed shell of the transverse telescopic cylinder 532 is configured to be connected to the nozzle head 533, the support block 534 and the fixing frame 538 respectively, the telescopic end of the transverse telescopic cylinder 532 is configured to be connected to the support frame 535 and the vertical telescopic cylinder 536 respectively, the nozzle head 533 is configured to be connected to the transverse telescopic cylinder 532 and the nozzle head 533 is configured to be connected to the grabbing head 531, the transverse telescopic cylinder 532 and the vertical telescopic cylinder 536 respectively through pipelines, and the nozzle head 533 is configured to be connected to the power source through pipelines,The support block 534 is configured as a rectangular seat and a sliding hole is configured in the support block 534. The upper end of the support block 534 is configured to be connected to the horizontal telescopic cylinder 532 and the sliding hole of the support block 534 is configured to be connected to the support frame 535. The support frame 535 is configured to include a first rod portion 5351, a second rod portion 5352 and a horizontal head portion 5353. The right end of the first rod portion 5351 and the right end of the second rod portion 5352 are respectively configured to be connected to the horizontal head portion 5353. The upper end is configured to be connected to the horizontal telescopic cylinder 532 and the first rod 5351 and the second rod 5352 are configured to be slidably connected to the support block 534, the first rod 5351 and the second rod 5352 are configured to be round rod-shaped bodies and the horizontal head 5353 is configured to be a rectangular block body, the vertical telescopic cylinder 536 is configured to be a two-section telescopic cylinder and the fixed housing of the vertical telescopic cylinder 536 is configured to be connected to the horizontal telescopic cylinder 532, and the telescopic end of the vertical telescopic cylinder 536 is configured to be connected to the fixed seat 537.

[0092] The feeding device 53 is used to transport the weft steel wires 62 in the silo 57 , and its technical purpose is to feed the weft steel wires 62 at intervals.

[0093] In this embodiment, the discharging device 7 is configured as a chain sprocket device 71, a moving seat 72, a rotating shaft 73, a gripping claw 74, a limiting claw 75, a limiting foot 76, a return cylinder 77 and a stabilizing shaft 78, and the chain sprocket device 71 and the moving seat 72 are respectively configured to be connected to the frame 1, one of the sprocket shafts of the chain sprocket device 71 is configured to be connected to the output end shaft of the stepper motor, one of the ends of the return cylinder 77 is configured to be connected to the moving seat 72 and the other end of the return cylinder 77 is configured to be connected to the frame 1 connection, the rotating shaft 73 and the stabilizing shaft 78 are respectively arranged to be rotatably connected with the moving seat 72, and the moving seat 72 is arranged to be connected with the moving seat 72, the outer side surface of the rotating shaft 73 is respectively arranged to be connected with the grasping claw 74 and the limiting claw 75, and the limiting claw 75 is arranged to be contact-connected with the limiting foot 76, the grasping claw 74 arranged at the end of the rotating shaft 73 is arranged to be connected with the sprocket of the chain sprocket device 71, and the grasping claw 74 arranged in the middle part of the rotating shaft 73 is arranged to be contact-connected with the weft steel wire 62, A U-shaped hook portion is provided on the side surface of the sprocket of the chain sprocket device 71 and the movable seat 72 is provided as a T-shaped block, the middle portion of the vertical portion of the movable seat 72 is provided to be slidably connected to the frame 1 and the lower end of the vertical portion of the movable seat 72 is provided to be connected to the return cylinder 77 through a pin shaft, the upper end of the vertical portion of the movable seat 72 is provided to be rotatably connected to the stabilizing shaft 78 and the outer end of the horizontal portion of the movable seat 72 is provided to be rotatably connected to the rotating shaft 73, and the outer end of the horizontal portion of the movable seat 72 is provided to be connected to the limiting claw 75 and The rotating shaft 73 and the limiting foot 76 are respectively configured as circular rod-shaped bodies, the grasping claw 74 and the limiting claw 75 are configured as rectangular strip-shaped bodies and the return cylinder 77 is configured as a two-section telescopic cylinder, the stabilizing shaft 78 is configured to include a swing shaft and a swing arm and the ends of the swing shaft of the stabilizing shaft 78 are respectively configured to be connected to the swing arms of the stabilizing shaft 78, the swing shaft of the stabilizing shaft 78 is configured to be rotatably connected to the moving seat 72 and the swing shaft of the stabilizing shaft 78 is configured as a circular rod-shaped body, and the swing arm of the stabilizing shaft 78 is configured as a fan-shaped sheet body.

[0094] Through the discharging device 7, a supporting connection point for the frame 1 is formed, and the connection with the frame 1 is realized by the chain sprocket device 71, the movable seat 72 and the return cylinder 77. The intermittent connection of the weft steel wire 62 is realized by the rotating shaft 73, the clamping claw 74, the limit claw 75 and the limit foot 76. The stabilizing shaft 78 is used to increase the stability of the movable seat 72. The technical purpose is to output the wire mesh at a fixed distance.

[0095] In this embodiment, the coating device 8 is configured to include a frame 81, a liquid hopper 82, a coating roller 83, an idler roller 84 and a pressure roller 85, and the liquid hopper 82 is configured to be connected to the frame 81, the coating roller 83, the idler roller 84 and the pressure roller 85 are respectively configured to be rotatably connected to the frame 81, and the coating roller 83 is arranged at the open part of the liquid hopper 82, the pressure roller 85 is arranged at the upper end surface part of the idler roller 84, and the input port part of the idler roller 84 and the pressure roller 85 is arranged to be connected to the coating roller 83 and the output port part of the liquid hopper 82, the output port part of the idler roller 84 and the pressure roller 85 is arranged to be connected to the input port part of the rolling device 9, and the coating roller 83 and the input port part of the liquid hopper 82 are arranged to be connected to the output port part of the discharging device 7, the frame 81 is configured to be a T-shaped frame body, the liquid hopper 82 is configured to be a V-shaped box body, and the coating roller 83, the idler roller 84 and the pressure roller 85 are configured to be circular roller-shaped bodies.

[0096] A supporting connection point for the discharging device 7 is formed through the coating device 8, and the connection with the discharging device 7 is realized by the liquid hopper 82 and the coating roller 83. The support of the liquid hopper 82, the coating roller 83, the supporting roller 84 and the pressing roller 85 is realized by the frame 81. The rolling treatment of the wire mesh is realized by the supporting roller 84 and the pressing roller 85. The technical purpose is to form a coating body on the wire mesh.

[0097] In this embodiment, the rolling device 9 is configured to include a bracket 91 and a rolling shaft 92, and the rolling shaft 92 is configured to be rotatably connected to the bracket 91, one of the ends of the rolling shaft 92 is configured to be connected to a power motor through a coupling, and the rolling shaft 92 is configured to be distributed corresponding to the coating device 8, the rolling shaft 92 is configured to be a circular rod-shaped body, the bracket 91 is configured to be a frame-shaped body having a V-shaped groove body on the upper end surface portion, and the V-shaped groove body of the bracket 91 is configured to be connected to the rolling shaft 92.

[0098] The rolling device 9 forms a support connection point for the coating device 8, the rolling shaft 92 realizes connection with the coating device 8, and the bracket 91 realizes support for the rolling shaft 92. The technical purpose is to roll the wire mesh.

[0099] In this embodiment, the frame 1 and the melting welding device 4 are arranged to be distributed in a way that they are connected during travel, and the frame 1, the melting welding device 4, the feeding device 5 and the discharging device 7 are arranged to be distributed in a way that they are connected during travel, and the frame 1, the melting welding device 4, the feeding device 5 and the discharging device 7 are arranged to be distributed in a way that they are connected during travel, and the unwinding device 2 and the straightening device 3 are arranged to be distributed in a way that they are connected during travel, and the frame 1, the melting welding device 4, the feeding device 5 and the discharging device 7 are arranged to be distributed in a way that they are connected during travel, and the rolling device 9 is arranged to be distributed in a way that they are connected during travel. The center line of the frame 1, the center line of the straightening device 3, the center line of the melting welding device 4, the center line of the feeding device 5, the center line of the discharging device 7, the center line of the coating device 8 and the center line of the rolling device 9 are arranged on the same straight line, the other end of the return cylinder 77 is arranged to be connected to the front frame part 13, the movable seat 72 is arranged to be connected to the guide rail part 12, the chain sprocket device 71 is arranged to be connected to the support plate part 14, the fixed frame 538 is arranged to be connected to the feed plate 51, and the upper end of the vertical part of the fixed seat 537 is arranged to be connected to the second push The lower end of the vertical portion of the fixed seat 537 is configured to be connected to the fixed shaft 5317, the outer side surface of the vertical portion of the fixed seat 537 is configured to be connected to the proximity switch 5312, the nozzle head 533 is configured to be connected to the second thrust cylinder 5311 through a pipeline, and the pipelines set in the second thrust cylinder 5311, the horizontal telescopic cylinder 532 and the vertical telescopic cylinder 536 and the nozzle head 533 are configured to be wound with the first rod 5351 and the second rod 5352, and the second thrust cylinder 5311, the horizontal telescopic cylinder 532 and the vertical telescopic cylinder 536 are connected to the nozzle head 533. 36 are respectively configured as pneumatic telescopic cylinders, the blocking rod 52 is configured to be connected to the support plate portion 14, the feed plate 51 is configured to be connected to the support plate portion 14, the insulating pad 42 is configured to be connected to the support plate portion 14, the first support sheet portion 331 and the second support sheet portion 332 are respectively configured to be connected to the support plate portion 14, the isolation rod device 31 and the pressure claw 32 are respectively configured to be connected to the support plate portion 14, a pressure claw 32 and a rolling device 33 are configured to form a group of rear straightening components and multiple groups of rear straightening components are configured to be arranged at intervals along the vertical center line of the support plate portion 14.

[0100] In the second embodiment of the first embodiment of the present invention, the angle between the first support piece 331 and the vertical center line of the frame 1 is set to 45°, and the angle between the second support piece 332 and the vertical center line of the frame 1 is also set to 45°.

[0101] In the third embodiment of the first embodiment of the present invention, the angle between the first support piece 331 and the vertical center line of the frame 1 is set to 42°, and the angle between the second support piece 332 and the vertical center line of the frame 1 is set to 48°.

[0102] In the second embodiment of the first embodiment of the present invention, the angle between the first support piece 331 and the vertical center line of the frame 1 is set to 48°, and the angle between the second support piece 332 and the vertical center line of the frame 1 is set to 42°.

[0103] Due to the first supporting piece 331 and the second supporting piece 332 , mutually perpendicular forces are applied to the warp steel wires 61 , thereby improving the straightening effect of the warp steel wires 61 .

[0104] The second embodiment of the present invention further comprises a first accessory device having an unwinding device 2 and a straightening device 3 , and the first accessory device is configured to release the warp steel wire 61 .

[0105] In this embodiment, a second accessory device having a discharging device 7 is also included and the second accessory device is configured to drive the wire mesh to move at regular intervals.

[0106] In the present embodiment, a third accessory device having a coating device 8 is further included and the third accessory device is configured to be used for coating body formation on the wire mesh.

[0107] In this embodiment, a fourth accessory device having a roll-forming device 9 is further included and the fourth accessory device is configured to form the wire mesh into a roll.

[0108] The second embodiment of the present invention is based on the first embodiment.

[0109] The present invention is further described below in conjunction with examples. The following examples are intended to illustrate the present invention rather than to further limit the present invention.

[0110] A method for making a steel wire mesh for civil engineering, one of the first embodiments of the present invention, comprises the following steps:

[0111] The rolled warp steel wires 61 are placed on the rotating cage part 22 respectively, so that the warp steel wires 61 pass through the window between the vertical rod bodies of the isolation rod device 31, enter the hook part of the pressing claw 32, and then pass through the upper roller 333 and the lower roller 334 on the first supporting sheet 331, and the upper roller 333 and the lower roller 334 on the second supporting sheet 332 in sequence. The upper roller 333 and the lower roller 334 rotate relative to each other to straighten the warp steel wires 61, so that the number of rolls of the warp steel wires 61 placed on the rotating cage part 22 is the same as the number of warp steel wires 61 required in the wire mesh, and the distance between adjacent warp steel wires 61 on the rolling device 33 is set to be equal to the length of the wire mesh formed between the warp steel wires 61 and the weft steel wires 62.

[0112] Put the weft wire 62 sections that are the same width as the wire mesh into the silo 57,

[0113] Put water-based paint, paint liquid consisting of water-based paint and quartz sand, water-based paint and quartz fiber silk, or water-based paint and quartz fiber cloth into the liquid hopper 82,

[0114] Connect the output port of the air compressor to the lifting and telescopic cylinder 46, the swing cylinder 56, the first thrust cylinder 58, and the return cylinder 77.

[0115] Through the nozzle head 533, the output port of the air compressor is connected to the second thrust cylinder 5311, the horizontal telescopic cylinder 532 and the vertical telescopic cylinder 536 respectively, so that the horizontal telescopic cylinder 532 is extended, the second thrust cylinder 5311 is extended, and the first strip 5313 and the second strip 5314 are pushed downward. The first strip 5313 drives the third strip 5315 to rotate on the fixed shaft 5317, and the second strip 5314 drives the fourth strip 5316 to rotate on the fixed shaft 5317, and the jaws between the lower ends of the third strip 5315 and the fourth strip 5316 are expanded, so that the vertical telescopic cylinder 536 is extended, and the lower ends of the third strip 5315 and the fourth strip 5316 are pushed downward. The jaws between the lower ends of the third strip 5315 and the lower ends of the fourth strip 5316 are placed in the stacking place of the latitudinal steel wires 62 in the silo 57, and the single latitudinal steel wire 62 is placed in the jaws between the lower ends of the third strip 5315 and the lower ends of the fourth strip 5316 through the proximity switch 5312, so that the second thrust cylinder 5311 is contracted, and the first strip 5313 and the second strip 5314 are lifted upward, and the first strip 5313 drives the third strip 5315 to rotate on the fixed shaft 5317, and the second strip 5314 drives the fourth strip 5316 to rotate on the fixed shaft 5317, so that the jaws between the lower ends of the third strip 5315 and the lower ends of the fourth strip 5316 are closed, and the lower ends of the third strip 5315 and the fourth strip 5316 are closed. The jaws between the lower ends of the two thrust cylinders 5316 clamp the single weft steel wire 62, so that the vertical telescopic cylinder 536 contracts, the single weft steel wire 62 is lifted, the horizontal telescopic cylinder 532 contracts, the vertical telescopic cylinder 536 extends, the single weft steel wire 62 is placed on the feed plate 51, the second thrust cylinder 5311 extends, the first strip 5313 and the second strip 5314 are pushed downward, the first strip 5313 drives the third strip 5315 to rotate on the fixed shaft 5317, the second strip 5314 drives the fourth strip 5316 to rotate on the fixed shaft 5317, the jaws between the lower ends of the third strip 5315 and the fourth strip 5316 are expanded, and the single weft steel wire 62 is lifted. The individual weft steel wires 62 are placed on the feed plate 51, and the individual weft steel wires 62 are supported by the catch 54. When the swing cylinder 56 contracts, the telescopic end of the swing cylinder 56 drives the swing shaft 55 to rotate through the swing arm 50, so that the catch 54 is separated from the individual weft steel wires 62, and the individual weft steel wires 62 enter the stopper 52. The stopper 52 places the individual weft steel wires 62 on the warp steel wires 61 on the lower electrode 43, and the position between the stopper 52 and the support plate 14 is adjusted, thereby adjusting the position between the individual weft steel wires 62 and the lower electrode 43. By extending the first thrust cylinder 58, the thrust plate 59 acts on the weft steel wires 62 in the silo 57, and the weft steel wires 62 are piled up.

[0116] The gripping claws 74 are connected to the chain of the chain sprocket device 71 and the weft steel wire 62 respectively. The stepping motor drives the chain of the chain sprocket device 71 to rotate, so that the length of the interval rotation of the chain of the chain sprocket device 71 is equal to the width of the steel wire mesh formed between the warp steel wire 61 and the weft steel wire 62. When the chain of the chain sprocket device 71 is in a stopped state, the chain of the chain sprocket device 71 is quickly stopped by swinging the stabilizing shaft 78, so that the current between the lower electrode 43 and the upper electrode 44 performs a melting welding process on the contact point of a single weft steel wire 62 and a warp steel wire 61. When the chain of the chain sprocket device 71 moves, the moving seat 72 When the guide rail portion 12 moves, when the movable seat 72 is located at the limit position of the output port portion of the discharge device 7, the return cylinder 77 contracts, the rotating shaft 73 rotates counterclockwise, the grasping claw 74 is separated from the chain and the weft wire 62 of the chain sprocket device 71, and the limiting claw 75 is separated from the limiting foot 76. Under the action of the return cylinder 77, when the movable seat 72 returns to the limit position of the input port portion of the discharge device 7, when the return cylinder 77 is in the extended state, the rotating shaft 73 rotates clockwise, the grasping claw 74 is connected with the chain and the weft wire 62 of the chain sprocket device 71, and the limiting claw 75 is connected with the limiting foot 76, so as to realize the output of the next wire mesh used for civil engineering.

[0117] The lifting and telescopic cylinder 46 is extended, driving the sliding block 45 to move downward on the column frame 41, so that the upper electrode 44 contacts the single weft steel wire 62, and the single weft steel wire 62 and the warp steel wire 61 are located between the lower electrode 43 and the upper electrode 44. The contact points of the single weft steel wire 62 and the warp steel wire 61 are melt-welded by the current between the lower electrode 43 and the upper electrode 44, so as to realize the connection point 63 between the single weft steel wire 62 and the warp steel wire 61. After the melt welding between the single weft steel wire 62 and the warp steel wire 61 is completed, the lifting and telescopic cylinder 46 is contracted, driving the sliding block 45 to move upward on the column frame 41, so that the upper electrode 44 moves upward, so as to realize the formation of the wire mesh for the single weft steel wire 62 and the warp steel wire 61.

[0118] The wire mesh is connected to the winding shaft 92. Under the action of the power motor, the wire mesh passes through the liquid hopper 82. Under the rotation of the coating roller 83, the wire mesh is immersed in the coating liquid, and a coating body is formed on the warp wires 61, the weft wires 62 and the connection points 63 of the wire mesh. Through the rolling shaping between the support roller 84 and the pressure roller 85, the wire mesh roll is formed on the winding shaft 92 through the power motor.

[0119] When the wire mesh is started, after the first weft steel wire 62 is connected to the warp steel wire 61 through the melting welding device 4, the first weft steel wire 62 is manually pulled to make the warp steel wire 61 enter between the lower electrode 43 and the upper electrode 44, and then the second weft steel wire 62 is connected to the warp steel wire 61 through the melting welding device 4 until the first weft steel wire 62 is connected to the gripping claw 74.

[0120] In the second embodiment of the present invention, a coating liquid composed of water-based paint is placed in a liquid hopper 82.

[0121] In the third embodiment of the present invention, a coating liquid consisting of water-based paint and quartz sand is placed in a liquid hopper 82.

[0122] In the fourth embodiment of the first embodiment of the present invention, a coating liquid consisting of water-based paint and quartz fiber filaments is placed in a liquid hopper 82 .

[0123] In the fourth embodiment of the first embodiment of the present invention, a coating liquid consisting of water-based paint and quartz fiber cloth is placed in a liquid hopper 82 .

[0124] The present invention has the following characteristics:

[0125] 1. Due to the design of the warp steel wires 61, the weft steel wires 62 and the connection points 63, the steel wire mesh is formed by the warp steel wires 61 and the weft steel wires 62. The connection between the weft steel wires 62 and the warp steel wires 61 is achieved through the connection points 63. The weft steel wires 62 and the warp steel wires 61 are no longer formed by weaving, thereby improving the strength of the steel wire mesh.

[0126] 2. Due to the design of the frame 1, the unwinding device 2, the straightening device 3, the melting welding device 4, the feeding device 5, the discharging device 7, the coating device 8 and the rolling device 9, the mesh production of the warp steel wires 61 and the weft steel wires 62 is realized.

[0127] 3. Due to the design of the coating body, the anti-corrosion treatment of the wire mesh is achieved.

[0128] 4. Since the design limits the numerical range of the structural shape, the numerical range is the technical feature in the technical solution of the present invention, rather than a technical feature calculated by a formula or obtained through a limited number of tests. Tests have shown that the technical feature of this numerical range has achieved good technical effects.

[0129] 5. Due to the design of the technical features of the present invention, the effects of the individual and combined technical features have been shown through experiments to have various performance indicators of the present invention that are at least 1.7 times the existing performance indicators, and have been evaluated to have good market value.

[0130] There are other technical features connected with the warp steel wires 61, the weft steel wires 62 and the connection points 63 of the single-sided connecting wires, which are all embodiments of the present invention, and the technical features of the above-mentioned embodiments can be combined arbitrarily. In order to meet the requirements of the Patent Law, the Patent Implementation Rules and the Examination Guidelines, all possible combinations of the technical features in the above-mentioned embodiments will no longer be described.

[0131] The above embodiment is only one implementation form of the wire mesh, manufacturing device and method for civil engineering provided by the present invention. Other variations of the scheme provided by the present invention, adding or reducing components or steps therein, or applying the present invention to other technical fields close to the present invention, all fall within the scope of protection of the present invention.

Claims

1. A device for making a wire mesh for civil engineering, characterized by: The invention comprises a frame (1) for supporting, a feeding device (5) arranged on the frame (1) and used for placing the weft steel wire (62) on the upper end surface of the warp steel wire (61), and a melting welding device (4) arranged on the frame (1) and used for forming a connection point (63) between the weft steel wire (62) and the warp steel wire (61). It also comprises a first accessory device having an unwinding device (2) and a straightening device (3), and the first accessory device is configured to release the warp steel wire (61). It also includes a second accessory device having a discharging device (7) and the second accessory device is configured to drive the wire mesh to move at regular intervals. It also includes a third accessory device having a coating device (8) and the third accessory device is configured to be used for forming a coating body on a steel wire mesh. It also includes a fourth accessory device having a roll-forming device (9) and the fourth accessory device is configured to form the wire mesh into a roll body. An unwinding device (2), a straightening device (3), a melting welding device (4), a feeding device (5) and a discharging device (7) are respectively arranged on the frame (1); the output port of the unwinding device (2) is arranged to be connected to the input port of the straightening device (3), and the output port of the straightening device (3) and the output port of the feeding device (5) are respectively arranged to be connected to the input port of the melting welding device (4); the output port of the melting welding device (4) is arranged to be connected to the input port of the discharging device (7), and the output port of the discharging device (7) is respectively arranged to be connected to the input port of the coating device (8); the output port of the coating device (8) is arranged to be connected to the input port of the rolling device (9); The straightening device (3) is configured to include an isolation rod device (31), a pressure claw (32) and a rolling device (33), and the pressure claw (32) is arranged between the isolation rod device (31) and the rolling device (33), the input port portion of the isolation rod device (31) is configured to be connected to the unwinding device (2), and the output port portion of the rolling device (33) is configured to be connected to the melting welding device (4), the lower end of the vertical rod body of the isolation rod device (31) is configured to be connected to the frame (1), and the upper end of the vertical rod body of the isolation rod device (31) is configured to be connected to the cross rod body of the isolation rod device (31), the pressure claw (32) is configured to be an L-shaped plate-like body, and the lower end of the pressure claw (32) is configured to be connected to the frame (1), and the rolling device (33) is configured to include a first support sheet portion (331), a second support sheet portion (332), an upper roller (333) and a lower roller (334), and the upper roller ( The upper roller (333) and the lower roller (334) are respectively arranged to be rotatably connected to the first support sheet (331) and the second support sheet (332); the angle between the first support sheet (331) and the second support sheet (332) is set to 90°; the angle between the first support sheet (331) and the vertical center line of the frame (1) and the angle between the second support sheet (332) and the vertical center line of the frame (1) are respectively set to 42-48°; the number of upper rollers (333) is set to be one more than the number of lower rollers (334); the upper rollers (333) and the lower rollers (334) are arranged to be staggered; the center line of the gap between the upper roller (333) and the lower roller (334) on the first support sheet (331) and the center line of the gap between the upper roller (333) and the lower roller (334) on the second support sheet (332) are arranged on the same horizontal line.

2. The manufacturing device for civil engineering wire mesh according to claim 1 is characterized in that: The frame (1) is configured to include a rear frame portion (11), a guide rail portion (12), a front frame portion (13) and a support plate portion (14), and the end of the guide rail portion (12) and the end of the support plate portion (14) are respectively configured to be connected to the rear frame portion (11) and the front frame portion (13), the guide rail portion (12) is configured to be connected to a discharge device (7), and the support plate portion (14) is respectively configured to be connected to a straightening device (3), a fusion welding device (4), a feeding device (5) and a discharge device (7), the rear frame portion (11) and the front frame portion (13) are respectively configured to be gate-shaped frame bodies, the guide rail portion (12) is configured to be a circular rod-shaped body, and the support plate portion (14) is configured to be a rectangular sheet-shaped body.

3. The manufacturing device for civil engineering wire mesh according to claim 1 is characterized in that: The unwinding device (2) is configured to include a seat portion (21) and a cage portion (22), and the cage portion (22) is configured to be rotatably connected to the seat portion (21), the output port portion of the cage portion (22) is configured to be connected to the input port portion of the straightening device (3), the seat portion (21) is configured to be a T-shaped seat body, and the cage portion (22) is configured to be a cage body having a tube portion and an outer expansion rod portion.

4. The manufacturing device for civil engineering wire mesh according to claim 1 is characterized in that: The fusion welding device (4) is configured to include a column frame (41), an insulating pad (42), a lower electrode (43), an upper electrode (44), a sliding block (45) and a lifting and telescopic cylinder (46), and the insulating pad (42) is configured to be connected to the frame (1), the lower electrode (43) is configured to be connected to the frame (1), and the upper electrode (44) is configured to be connected to the sliding block (45), the sliding block (45) is configured to be slidably connected to the column frame (41), and one end of the lifting and telescopic cylinder (46) is configured to be connected to the sliding block (45), and one end of the lifting and telescopic cylinder (46) is configured to be connected to the sliding block (45). The invention is configured to be connected to a column frame (41) and the lower electrode (43) and the upper electrode (44) are configured to be connected to an external power supply, the column frame (41) is configured to be a gate-shaped frame, the insulating pad (42) is configured to be a mica sheet, and the lower electrode (43) and the upper electrode (44) are configured to be rectangular copper blocks, the sliding block (45) is configured to be a strip body with a sleeve, and the lifting telescopic cylinder (46) is configured to be a two-section telescopic cylinder, a lower electrode (43) and an upper electrode (44) are configured to form a group of electrode components, and a plurality of groups of electrode components are configured to be arranged and distributed at intervals along the transverse center line of the sliding block (45).

5. The manufacturing device for civil engineering wire mesh according to claim 1 is characterized in that: The feeding device (5) is configured to include a feeding plate (51), a stopper (52), a feeding device (53), a stopper claw (54), a swing shaft (55), a swing arm (50), a swing cylinder (56), a silo (57), a first thrust cylinder (58) and a thrust plate (59), and the lower end of the feeding plate (51) is arranged on one side of the melting welding device (4), the stopper rod (52) is arranged on another side of the melting welding device (4), and the feeding plate (51) and The blocking rod (52) is respectively arranged to be connected to the frame (1), the swing shaft (55) is arranged to be connected to the feeding plate (51), and the end of the swing shaft (55) is arranged to be connected to one end of the swing arm (50), the other end of the swing arm (50) is arranged to be connected to one end of the swing cylinder (56) through a pin shaft, and the other end of the swing cylinder (56) is arranged to be connected to the feeding plate (51) through a pin shaft, and the inner end of the blocking claw (54) is arranged to be connected to the swing shaft ( The outer side surface of the stopper (55) is connected and the outer end of the stopper (54) is arranged to be connected with the conveying plate (51) in an extended manner, the silo (57) is arranged on the conveying plate (51) and a first thrust cylinder (58) is arranged on the silo (57), the telescopic end of the first thrust cylinder (58) is arranged to be connected with the thrust plate (59) and the feeding device (53) is arranged on the conveying plate (51), the feeding device (53) is arranged to extend between the silo (57) and the stopper (52) and the conveying plate (51) ) is configured as an L-shaped sheet body, the blocking rod (52) is configured as a bolt and the blocking rod (52) is configured to be threadedly connected to the frame (1), the blocking claw (54) and the thrust plate (59) are respectively configured as rectangular strip bodies and the swing shaft (55) is configured as a circular rod body, the swing arm (50) is configured as a trapezoidal plate body and the silo (57) is configured as a rectangular box body, the swing cylinder (56) and the first thrust cylinder (58) are configured as two-section telescopic cylinders and the feeding device (53) is configured as a swing transport device.

6. The manufacturing device for civil engineering wire mesh according to claim 5, characterized in that: The feeding device (53) comprises a grabbing head (531), a transverse telescopic cylinder (532), a nozzle head (533), a support block (534), a support frame (535), a vertical telescopic cylinder (536), a fixed seat (537) and a fixed frame (538), wherein the fixed frame (538) is arranged on the feeding plate (51) and the transverse telescopic cylinder (532) is arranged on the fixed frame (538), the nozzle head (533), the support block (534), the support frame (535) and the vertical telescopic cylinder (536) are arranged on the transverse telescopic cylinder (532), the fixed seat (537) is arranged on the vertical telescopic cylinder (536) and the grabbing head (531) is arranged on the fixed seat (537), and the grabbing head (531) is arranged on the fixed seat (537). 1) It is configured to include a second thrust cylinder (5311), a proximity switch (5312), a first strip (5313), a second strip (5314), a third strip (5315), a fourth strip (5316) and a fixed shaft (5317), and the second thrust cylinder (5311), the proximity switch (5312) and the fixed shaft (5317) are arranged on a fixed seat (537), the upper end of the first strip (5313) and the upper end of the second strip (5314) are arranged to be connected to the telescopic end of the second thrust cylinder (5311) through a pin shaft, and the upper end portion of the lower end of the third strip (5315) and the upper end portion of the lower end of the fourth strip (5316) are arranged to be connected to the fixed shaft (5317). The first strip (5313) is rotatably connected and the lower end of the first strip (5313) is configured to be connected to the upper end of the third strip (5315) through a pin shaft, the lower end of the second strip (5314) is configured to be connected to the upper end of the fourth strip (5316) through a pin shaft, the second thrust cylinder (5311) is configured to be a two-section telescopic cylinder and the proximity switch (5312) is configured to be a photoelectric proximity switch, the first strip (5313), the second strip (5314), the third strip (5315) and the fourth strip (5316) are respectively configured to be rectangular strips and the lower end of the third strip (5315) and the lower end of the fourth strip (5316) are configured to be distributed in a jaw manner, and the fixed shaft (5317) is configured The fixing frame (538) is a T-shaped rod-shaped body and the fixing shaft (5317) is configured to be threadedly connected to the fixing seat (537), the fixing shaft (5317) is configured to be plug-in connected to the third strip (5315) and the fourth strip (5316), the fixing seat (537) is configured to be a T-shaped plate-shaped body and the transverse portion of the fixing seat (537) is configured to be connected to the vertical telescopic cylinder (536) through bolts and nuts, the vertical portion of the fixing seat (537) is configured to be connected to the grab head (531), the fixing frame (538) is configured to be a rectangular beam-shaped body and the lower end of the fixing frame (538) is configured to be connected to the feed plate (51), and the upper end of the fixing frame (538) is configured to be connected to the transverse telescopic cylinder (532) through bolts and nuts,The transverse telescopic cylinder (532) is configured as a two-section telescopic cylinder and the fixed housing of the transverse telescopic cylinder (532) is configured to be connected to the nozzle head (533), the support block (534) and the fixed frame (538) respectively, the telescopic end of the transverse telescopic cylinder (532) is configured to be connected to the support frame (535) and the vertical telescopic cylinder (536) respectively, the nozzle head (533) is configured to be connected to the transverse telescopic cylinder (532) and the nozzle head (533) is configured to be connected to the grasping head (531), the transverse telescopic cylinder (532) and the vertical telescopic cylinder (536) respectively through pipelines, the nozzle head (533) is configured to be connected to the power source through pipelines, the support block (534) is configured to be a rectangular seat body and a sliding hole is configured in the support block (534), the upper end of the support block (534) is configured to be connected to the transverse telescopic cylinder (532) and the sliding hole of the support block (534) is configured to be connected to the support frame (535). 5) connection, the support frame (535) is configured to include a first rod portion (5351), a second rod portion (5352) and a transverse head portion (5353), and the right end of the first rod portion (5351) and the right end of the second rod portion (5352) are respectively configured to be connected to the transverse head portion (5353), the upper end of the transverse head portion (5353) is configured to be connected to the transverse telescopic cylinder (532), and the first rod portion (5351) and the second rod portion (5352) are configured to be slidably connected to the support block (534), the first rod portion (5351) and the second rod portion (5352) are configured to be circular rod-shaped bodies, and the transverse head portion (5353) is configured to be a rectangular block body, the vertical telescopic cylinder (536) is configured to be a two-section telescopic cylinder, and the fixed housing of the vertical telescopic cylinder (536) is configured to be connected to the transverse telescopic cylinder (532), and the telescopic end of the vertical telescopic cylinder (536) is configured to be connected to the fixed seat (537).

7. The manufacturing device for civil engineering wire mesh according to claim 6 is characterized by: The discharging device (7) is configured as a chain sprocket device (71), a movable seat (72), a rotating shaft (73), a gripping claw (74), a limiting claw (75), a limiting foot (76), a return cylinder (77) and a stabilizing shaft (78), and the chain sprocket device (71) and the movable seat (72) are respectively configured to be connected to the frame (1), one of the sprocket shafts of the chain sprocket device (71) is configured to be connected to the output end shaft of the stepping motor, one of the ends of the return cylinder (77) is configured to be connected to the movable seat (72), and the other end of the return cylinder (77) is configured to be connected to the frame (1). 1) connection, the rotating shaft (73) and the stabilizing shaft (78) are respectively arranged to be rotatably connected to the moving seat (72), and the moving seat (72) is arranged to be connected to the frame (1), the outer side surface of the rotating shaft (73) is respectively arranged to be connected to the grasping claw (74) and the limiting claw (75), and the limiting claw (75) is arranged to be contact-connected with the limiting foot (76), the grasping claw (74) arranged at the end of the rotating shaft (73) is arranged to be connected to the sprocket of the chain sprocket device (71), and the grasping claw (74) arranged in the middle part of the rotating shaft (73) is arranged to be contact-connected with the weft steel wire (62) The movable seat (72) is provided with a U-shaped hook portion on the side surface of the sprocket of the chain sprocket device (71), and the movable seat (72) is provided with a T-shaped block body, the middle portion of the vertical portion of the movable seat (72) is provided to be slidably connected to the frame (1), and the lower end of the vertical portion of the movable seat (72) is provided to be connected to the return cylinder (77) through a pin shaft, the upper end of the vertical portion of the movable seat (72) is provided to be rotatably connected to the stabilizing shaft (78), and the outer end of the horizontal portion of the movable seat (72) is provided to be rotatably connected to the rotating shaft (73), and the outer end of the horizontal portion of the movable seat (72) is provided to be connected to the limiting claw (75). The rotating shaft (73) and the limiting foot (76) are respectively configured as circular rod-shaped bodies, the grasping claw (74) and the limiting claw (75) are configured as rectangular strip-shaped bodies, and the return cylinder (77) is configured as a two-section telescopic cylinder, the stabilizing shaft (78) is configured to include a swing shaft and a swing arm, and the ends of the swing shaft of the stabilizing shaft (78) are respectively configured to be connected to the swing arm of the stabilizing shaft (78), the swing shaft of the stabilizing shaft (78) is configured to be rotatably connected to the moving seat (72), and the swing shaft of the stabilizing shaft (78) is configured as a circular rod-shaped body, and the swing arm of the stabilizing shaft (78) is configured as a fan-shaped sheet body.

8. The manufacturing device for civil engineering wire mesh according to claim 1, characterized in that: The coating device (8) is configured to include a frame (81), a liquid hopper (82), a coating roller (83), a support roller (84) and a pressure roller (85), and the liquid hopper (82) is configured to be connected to the frame (81), the coating roller (83), the support roller (84) and the pressure roller (85) are respectively configured to be rotatably connected to the frame (81), and the coating roller (83) is arranged at the open part of the liquid hopper (82), the pressure roller (85) is arranged at the upper end surface of the support roller (84), and the input ends of the support roller (84) and the pressure roller (85) are The mouth portion is configured to connect the smear roller (83) with the output port portion of the liquid hopper (82), the output port portions of the supporting roller (84) and the pressure roller (85) are configured to connect with the input port portion of the rolling device (9), and the input port portions of the smear roller (83) and the liquid hopper (82) are configured to connect with the output port portion of the discharging device (7), the frame (81) is configured to be a T-shaped frame body, the liquid hopper (82) is configured to be a V-shaped box body, and the smear roller (83), the supporting roller (84) and the pressure roller (85) are configured to be circular roller bodies.

9. The manufacturing device for civil engineering wire mesh according to claim 1, characterized in that: The rolling device (9) is configured to include a bracket (91) and a rolling shaft (92), and the rolling shaft (92) is configured to be rotatably connected to the bracket (91), one end of the rolling shaft (92) is configured to be connected to a power motor through a coupling, and the rolling shaft (92) is configured to be distributed corresponding to the coating device (8), the rolling shaft (92) is configured to be a circular rod-shaped body, the bracket (91) is configured to be a frame-shaped body having a V-shaped groove body on the upper end surface, and the V-shaped groove body of the bracket (91) is configured to be connected to the rolling shaft (92).

10. The manufacturing device for civil engineering wire mesh according to claim 7, characterized in that: The frame (1) and the molten welding device (4) are arranged to be connected with the feeding device (5) and the discharging device (7) in a manner of being connected while traveling, and the frame (1), the molten welding device (4), the feeding device (5) and the discharging device (7) are arranged to be connected with the unwinding device (2) and the straightening device (3) in a manner of being connected in a straight line, the frame (1), the molten welding device (4), the feeding device (5) and the discharging device (7) are arranged to be connected with the coating device (8) in a manner of being applied while traveling, and the frame (1), the molten welding device (4), the feeding device (5) and the discharging device (7) are arranged to be connected with the rolling device (9) in a manner of being rolled. The center line of the frame (1), the center line of the straightening device (3), the center line of the melting welding device (4), the center line of the feeding device (5), the center line of the discharging device (7), the center line of the coating device (8) and the center line of the rolling device (9) are arranged on the same straight line, the other end of the return cylinder (77) is arranged to be connected to the front frame part (13), the movable seat (72) is arranged to be connected to the guide rail part (12), the chain sprocket device (71) is arranged to be connected to the support plate part (14), the fixed frame (538) is arranged to be connected to the feed plate (51), and the upper end of the vertical part of the fixed seat (537) is arranged to be connected to the second The first rod (5351) and the second rod (5352) are connected to the thrust cylinder (5311), the lower end of the vertical part of the fixed seat (537) is arranged to be connected to the fixed shaft (5317), the outer side surface of the vertical part of the fixed seat (537) is arranged to be connected to the proximity switch (5312), the nozzle head (533) is arranged to be connected to the second thrust cylinder (5311) through a pipeline, the pipeline arranged in the second thrust cylinder (5311), the horizontal telescopic cylinder (532) and the vertical telescopic cylinder (536) and the nozzle head (533) is arranged to be connected to the first rod (5351) and the second rod (5352) in a winding manner, and the second thrust cylinder (5311), the horizontal telescopic cylinder (532) and the vertical telescopic cylinder (536) are arranged to be connected to the second thrust cylinder (5311), the horizontal telescopic cylinder (532) and the vertical telescopic cylinder (536) 36) are respectively configured as pneumatic telescopic cylinders, the blocking rod (52) is configured to be connected to the support plate portion (14), the feeding plate (51) is configured to be connected to the support plate portion (14), the insulating pad (42) is configured to be connected to the support plate portion (14), the first support sheet portion (331) and the second support sheet portion (332) are respectively configured to be connected to the support plate portion (14), the isolation rod device (31) and the pressure claw (32) are respectively configured to be connected to the support plate portion (14), a pressure claw (32) and a rolling device (33) are configured to form a group of rear straightening components, and multiple groups of rear straightening components are configured to be arranged at intervals along the vertical center line of the support plate portion (14).

11. A method for manufacturing a manufacturing device for a civil engineering steel wire mesh according to claim 10, characterized in that the steps are: The rolled warp steel wire (61) is placed on the rotating cage part (22) respectively, so that the warp steel wire (61) passes through the window between the vertical rods of the isolation rod device (31), enters the hook part of the pressing claw (32), and then passes through the upper roller (333) and the lower roller (334) on the first supporting sheet part (331), the upper roller (333) and the lower roller (334) on the second supporting sheet part (332) in sequence, and is then pulled by the upper roller (333) ) and the lower roller (334) rotate relative to each other to straighten the warp steel wires (61) so that the number of coils of the warp steel wires (61) placed on the rotating cage portion (22) is the same as the number of warp steel wires (61) required in the wire mesh, and the distance between adjacent warp steel wires (61) on the rolling device (33) is set to be equal to the length of the wire mesh formed between the warp steel wires (61) and the weft steel wires (62), Place the weft wire (62) segments that are the same width as the wire mesh into the silo (57). Putting water-based paint, paint liquid consisting of water-based paint and quartz sand, water-based paint and quartz fiber silk or water-based paint and quartz fiber cloth into a liquid hopper (82), The output port of the air compressor is connected to the lifting and telescopic cylinder (46), the swing cylinder (56), the first thrust cylinder (58), and the return cylinder (77). The output port of the air compressor is connected to the second thrust cylinder (5311), the transverse telescopic cylinder (532) and the vertical telescopic cylinder (536) respectively through the nozzle head (533), so that the transverse telescopic cylinder (532) is extended, the second thrust cylinder (5311) is extended, and the first strip (5313) and the second strip (5314) are pushed downward. The first strip (5313) drives the third strip (5315) to rotate on the fixed shaft (5317), and the second strip (5314) drives the fourth strip (5316) to rotate on the fixed shaft (5317), so that the jaws between the lower ends of the third strip (5315) and the fourth strip (5316) are expanded, so that the vertical telescopic cylinder (536) is extended. The first strip (5313) and the second strip (5314) are extended, and the jaws between the lower ends of the third strip (5315) and the lower ends of the fourth strip (5316) are placed in the stacking place of the weft steel wires (62) in the silo (57). Through the proximity switch (5312), the single weft steel wire (62) is placed in the jaws between the lower ends of the third strip (5315) and the lower ends of the fourth strip (5316), so that the second thrust cylinder (5311) contracts, and the first strip (5313) and the second strip (5314) are lifted upward. The first strip (5313) drives the third strip (5315) to rotate on the fixed shaft (5317), and the second strip (5314) drives the fourth strip (5316) to rotate on the fixed shaft (5317). The jaws between the lower ends of the third strip (5315) and the fourth strip (5316) are closed, and the jaws between the lower ends of the third strip (5315) and the fourth strip (5316) clamp the single weft steel wire (62), so that the vertical telescopic cylinder (536) is contracted, and the single weft steel wire (62) is lifted, so that the horizontal telescopic cylinder (532) is contracted, and the vertical telescopic cylinder (536) is extended, and the single weft steel wire (62) is placed on the conveying plate (51), so that the second thrust cylinder (5311) is extended, and the first strip (5313) and the second strip (5314) are pushed downward, and the first strip (5313) drives the third strip (5315) to rotate on the fixed shaft (5317). The second sheet (5314) drives the fourth sheet (5316) to rotate on the fixed shaft (5317), expands the jaws between the lower ends of the third sheet (5315) and the fourth sheet (5316), and places the single weft steel wire (62) on the feed plate (51). The single weft steel wire (62) is supported by the stopper (54). When the swing cylinder (56) contracts, the telescopic end of the swing cylinder (56) drives the swing shaft (55) to rotate through the swing arm (50), so that the stopper (54) is separated from the single weft steel wire (62). The single weft steel wire (62) enters the stopper rod (52), and the stopper rod (52) places the single weft steel wire (62) on the warp steel wire (61) on the lower electrode (43).By adjusting the position between the blocking rod (52) and the supporting plate portion (14), the position between the single weft steel wire (62) and the lower electrode (43) is adjusted, and by extending the first thrust cylinder (58), the thrust plate (59) acts on the weft steel wire (62) in the silo (57) to pile up the weft steel wire (62). The gripping claw (74) is connected to the chain of the chain sprocket device (71) and the weft steel wire (62) respectively. The stepping motor drives the chain of the chain sprocket device (71) to rotate, so that the length of the interval rotation of the chain of the chain sprocket device (71) is equal to the width of the steel wire mesh formed between the warp steel wire (61) and the weft steel wire (62). When the chain of the chain sprocket device (71) is in a stopped state, the chain of the chain sprocket device (71) is quickly stopped by swinging the stabilizing shaft (78), so that the current between the lower electrode (43) and the upper electrode (44) performs a melting welding process on the contact point of a single weft steel wire (62) and a warp steel wire (61). When the chain of the chain sprocket device (71) moves, the moving seat (72) moves on the guide rail. (12) moves, when the movable seat (72) is located at the limit position of the output port of the discharging device (7), the return cylinder (77) contracts, the rotating shaft (73) rotates counterclockwise, the gripping claw (74) is separated from the chain and weft wire (62) of the chain sprocket device (71), the limiting claw (75) and the limiting foot (76) are separated, under the action of the return cylinder (77), when the movable seat (72) returns to the limit position of the input port of the discharging device (7), when the return cylinder (77) is in the extended state, the rotating shaft (73) rotates clockwise, the gripping claw (74) is connected with the chain and weft wire (62) of the chain sprocket device (71), the limiting claw (75) and the limiting foot (76) are connected, so as to realize the output of the next wire mesh used for civil engineering. The lifting and telescopic cylinder (46) is extended to drive the sliding block (45) to move downward on the column frame (41), so that the upper electrode (44) contacts the single weft steel wire (62). The single weft steel wire (62) and the warp steel wire (61) are located between the lower electrode (43) and the upper electrode (44). The contact point of the single weft steel wire (62) and the warp steel wire (61) is melt-welded by the current between the lower electrode (43) and the upper electrode (44), so that the connection point (63) between the single weft steel wire (62) and the warp steel wire (61) is realized. After the melt-welding between the single weft steel wire (62) and the warp steel wire (61) is completed, the lifting and telescopic cylinder (46) is contracted to drive the sliding block (45) to move upward on the column frame (41), so that the upper electrode (44) moves upward, so that the single weft steel wire (62) and the warp steel wire (61) are formed into a wire mesh. The steel mesh is connected to a winding shaft (92). Under the action of a power motor, the steel mesh passes through a liquid hopper (82). Under the rotation of a coating roller (83), the steel mesh is immersed in the coating liquid, and a coating body is formed on the warp steel wires (61), the weft steel wires (62) and the connection points (63) of the steel mesh. The steel mesh is rolled and shaped between a support roller (84) and a pressure roller (85), and a steel mesh roll is formed on the winding shaft (92) through a power motor. When the steel wire mesh is started, after the first weft steel wire (62) is connected to the warp steel wire (61) by the melting welding device (4), the first weft steel wire (62) is manually pulled to make the warp steel wire (61) enter between the lower electrode (43) and the upper electrode (44), and then the second weft steel wire (62) is connected to the warp steel wire (61) by the melting welding device (4) until the first weft steel wire (62) is connected to the gripping claw (74).

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