Auxiliary welding equipment and method for construction reinforcement cage

Abstract

The invention relates to the technical field of building equipment, in particular to auxiliary welding equipment and method for a building reinforcement cage, and aims at solving the problems that in the prior art, machining cannot be achieved, and the labor intensity is large. The equipment comprises an auxiliary feeding part used for conveying a single steel bar to a target area, two lifting trusses are arranged above the auxiliary feeding part, the two ends of each lifting truss are connected with supporting legs, a hoisting main beam is erected between the two lifting trusses, and the hoisting main beam is connected with a transfer pushing part used for driving the hoisting main beam to slide along the lifting trusses. According to the steel reinforcement cage hoisting device, design is conducted according to existing needs, the steel reinforcement does not need to be erected vertically, manual transfer of the steel reinforcement is not needed, the labor intensity of machining is reduced, in addition, the diameter of a steel reinforcement cage can be adjusted according to needs, and the application range of the device is greatly widened.

Description

Technical Field

[0001] The present invention relates to the technical field of construction equipment, in particular to an auxiliary welding device and method for building steel reinforcement cages. Background Art

[0002] During the construction process of bridge structures, columns and piles, as vertical components of buildings, are particularly important to ensure the safety and stability of the structure. However, due to design, plan, and geological conditions, columns and piles are generally long, and at this time, the steel reinforcement cages of columns and piles need to be connected section by section. The existing patent with the publication number CN114951993B discloses a laser-assisted welding positioning device for steel reinforcement cages and its construction method. The frame and support base provide stability for the entire device. The laser device accurately positions the upper-section steel reinforcement cage, and the adjustment device can finely adjust the steel reinforcement cage to complete the precise welding operation of the steel reinforcement cage; the support base of the present invention is composed of a steel cylinder and universal wheels, which is convenient for device handling. Although the above device can complete the welding of steel reinforcement cages, when welding, the steel bars need to be vertically inserted one by one, and the weight of a single steel bar is actually very heavy. This method of inserting and positioning has extremely high labor intensity and is not convenient for later transfer. In addition, the diameter of the steel reinforcement cage welded by this device is fixed and cannot be finely adjusted according to actual needs, so the applicable range is relatively narrow.

[0003] Based on this, an auxiliary welding device and method for building steel reinforcement cages are now provided, which can eliminate the disadvantages of existing devices. Summary of the Invention

[0004] The purpose of the present invention is to provide an auxiliary welding device and method for building steel reinforcement cages, which solves the problems of irreconcilable processing and high labor intensity in the prior art.

[0005] To achieve the above purpose, the present invention provides the following technical solutions: An auxiliary welding device for building steel reinforcement cages includes an auxiliary feeding component for transporting single steel bars to a target area. Above the auxiliary feeding component, there are two lifting trusses. The two ends of the lifting trusses are connected to support legs. A hoisting main beam is erected between the two lifting trusses. The hoisting main beam is connected to a transfer pushing component for driving it to slide along the lifting trusses. Symmetrically arranged below the hoisting main beam are two groups of steel bar positioning discs for fixing steel bars. The two groups of steel bar positioning discs are connected to a distance adjustment component for adjusting the distance between them. Each group of steel bar positioning discs includes a fixed disc. A plurality of positioning grooves are arranged on the fixed disc. A sliding base block is slidably arranged in each positioning groove. A reset support plate is rotatably arranged at the port position of each sliding base block through a reset rotating shaft. A locking unit for locking the steel bar is arranged on the sliding base block. A displacement pushing unit for driving a plurality of sliding base blocks to slide along the positioning grooves is arranged on the fixed disc. The fixed disc is connected to a synchronous flipping component for driving it to rotate, and the fixed disc is driven to rotate by the synchronous flipping component.

[0006] Based on the above technical solutions, the present invention further provides the following optional technical solutions: In an optional solution: a welding component for binding steel bars is provided on one side of the hoisting main beam, and the welding component is connected to a welding displacement member for adjusting its position.

[0007] In an optional solution: the welding displacement member includes a transverse sliding seat slidably provided on the upper end of the hoisting main beam, the transverse sliding seat is threadedly provided on a transverse screw above the hoisting main beam, one end of the transverse screw is rotatably connected to a fixed block on the hoisting main beam, the other end of the transverse screw is connected to a transverse motor for driving its rotation, a side displacement slide plate is horizontally slidably provided on the transverse sliding seat, the side displacement slide plate is vertically crossed with the hoisting main beam, a connection end connected to the welding component is provided at the end of the side displacement slide plate, the upper end of the side displacement slide plate is connected to the output end of a second transverse push rod, and the tail of the second transverse push rod is installed on the transverse sliding seat.

[0008] In an optional solution: the welding component includes a welding suspension plate, a welding fixing seat is provided at the lower end of the welding suspension plate, a steel bar wire roller is rotatably provided on the side of the welding fixing seat, a steel bar wire is wound on the steel bar wire roller, a feeding motor for driving its rotation is connected to the shaft end of the steel bar wire roller, a conveying member for conveying the steel bar wire is provided on one side of the steel bar wire roller, the conveying member includes a second feeding roller, a feeding groove matching the steel bar wire is provided on the second feeding roller, a first feeding roller for tightly pressing the steel bar wire is cooperatively provided in the feeding groove, a second gear is provided at the shaft end of the first feeding roller, a first gear is provided at the shaft end of the second feeding roller, the first gear and the second gear are meshed with each other, a feeding motor for driving its rotation is connected to the end of the first gear, a motor sliding seat is slidably provided outside the welding suspension plate, a sliding seat push rod for driving its up and down movement is connected to the lower end of the motor sliding seat, a steering motor is provided on the surface of the motor sliding seat, and a welding head for welding the steel bar wire on the outside of A is provided at the output end of the steering motor.

[0009] In an optional solution: the synchronous flipping member includes a flipping column at the middle position of the fixed disk, the other end of the fixed disk is rotatably connected to a rotating sleeve, the upper side of the rotating sleeve is connected to a distance adjusting member through a suspension plate, a flipping worm gear is provided at the shaft end of the flipping column, the flipping worm gear is meshed with a flipping worm, the flipping worm is connected to a flipping motor for driving its rotation, and a fixed side plate for installing the flipping motor is provided outside the suspension plate.

[0010] In an alternative embodiment: The displacement pushing unit includes a transmission pin shaft fixedly connected to the side of the transmission connecting rod. The other end of the transmission pin shaft is rotatably connected to the end of the transmission connecting rod. The other end of the transmission connecting rod is rotatably connected to a rotating ring. The rotating ring is coaxially arranged with the side of the fixed disk. A driving gear ring is fixedly provided inside the rotating ring. The driving gear ring meshes with a driving gear. The driving gear is connected to a rotating driving motor for driving its rotation.

[0011] In an alternative embodiment: The locking unit includes a trigger sliding sleeve slidably arranged at the end of the sliding base block. A clamping sliding block for tightly pressing the steel bar is provided at the inner end of the trigger sliding sleeve. A trigger sliding rod is slidably arranged at the outer end of the trigger sliding sleeve. The end of the trigger sliding sleeve is connected to the sliding base block through a first spring. The end of the trigger sliding rod is connected to the inner bottom of the first spring through a second spring. An unlocking member for unlocking the A lock is further provided on the fixed disk.

[0012] In an alternative embodiment: The unlocking member includes an unlocking pressing slide plate slidably arranged inside the positioning groove. The end of each unlocking pressing slide plate is rotatably connected to an unlocking turntable through an unlocking connecting rod. The unlocking turntable is coaxially arranged with the fixed disk. An unlocking motor for driving the unlocking turntable to rotate is provided on the fixed disk.

[0013] In an alternative embodiment: The distance adjusting component includes a distance adjusting screw rod arranged at the lower end of the hoisting main beam. One end of the distance adjusting screw rod is rotatably connected to a fixed block at the bottom of the hoisting main beam. The other end of the distance adjusting screw rod is connected to a distance adjusting motor for driving its rotation. Two threaded areas are provided on the distance adjusting screw rod. A distance adjusting sliding seat is respectively fitted on each of the two threaded areas. A connecting end connected to the steel bar positioning disk group is provided at the lower end of the distance adjusting sliding seat.

[0014] In an alternative embodiment: The transfer pushing member includes a supporting sliding sleeve slidably sleeved on the lifting truss. The supporting sliding sleeve is connected to a first transverse pushing rod for driving its movement.

[0015] In an alternative embodiment: The auxiliary feeding component includes a plurality of conveying rollers. A transmission groove matching the steel bar is provided on each conveying roller. Both ends of each conveying roller are rotatably connected to a conveying support leg. The shaft end of the conveying roller is connected to a conveyor belt group for driving its rotation.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. The present invention is designed for the existing needs, without the need to vertically stand up the steel bar and without manually transferring the steel bar, reducing the labor intensity of processing. In addition, the diameter of the steel bar cage can be adjusted according to needs, greatly improving the adaptability range of the equipment.

[0017] 2. After the processing of the present invention is completed, it is only necessary to release the locking of the steel bars through the unlocking member, and then adjust the distance between the two steel bar positioning disc groups so that the ends of the steel bars can be withdrawn to complete the unloading. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic structural diagram of one side of the present invention.

[0019] Figure 2 It is a schematic structural diagram of the other side of the present invention.

[0020] Figure 3 It is a schematic structural diagram of the lower side of the present invention.

[0021] Figure 4 It is a schematic structural diagram of one side of the steel bar positioning disc group of the present invention.

[0022] Figure 5 It is a schematic structural diagram of the other side of the steel bar positioning disc group of the present invention.

[0023] Figure 6 It is a schematic structural diagram of the sliding base block of the present invention.

[0024] Figure 7 It is a schematic structural diagram of the trigger slide bar of the present invention.

[0025] Figure 8 It is a schematic structural diagram of one side of the welding component of the present invention.

[0026] Figure 9 It is a schematic structural diagram of the other side of the welding component of the present invention.

[0027] Figure 10 It is a schematic structural diagram of the auxiliary feeding component of the present invention.

[0028] Annotation of reference numerals: Auxiliary feeding component 100, conveying support leg 101, conveyor belt group 102, conveying roller 103; Distance adjusting component 200, distance adjusting motor 201, distance adjusting sliding seat 202, distance adjusting screw 203; Lifting truss 300, support sliding sleeve 301, first transverse push rod 302, support leg 303; Hoisting main beam 400, transverse moving screw 401, transverse moving sliding seat 402, transverse moving motor 403, second transverse push rod 404, side moving slide plate 405; Steel bar positioning disc group 500, fixed disc 501, positioning groove 502, transmission connecting rod 503, hanging plate 504, turning motor 505, turning worm 506, turning worm gear 507, fixed side plate 508, rotating sleeve 509, turning column 510, driving gear 511, driving gear ring 512; Sliding base block 513, steel bar groove 514, clamping slider 515, transmission pin shaft 516, reset rotating shaft 517, trigger slide bar 518, first spring 519, trigger sliding sleeve 520, second spring 521, reset support plate 522; Unlocking pressing slide plate 523, unlocking connecting rod 524, unlocking turntable 525; Welding component 600, welding suspension plate 601, motor slide base 602, steering motor 603, first feeding roller 604, steel bar wire roller 605, steel bar wire 606, second feeding roller 607, feeding groove 608, first gear 609, welding fixed seat 610, feeding motor 611, second gear 612, slide base push rod 613, welding head 614, feeding motor 615. Specific implementation mode

[0029] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention. Embodiment

[0030] As Figures 1-10As shown in the figure, an embodiment of the present invention provides an auxiliary welding device for a building steel cage, which includes an auxiliary feeding component 100 for transporting a single steel bar to a target area. Above the auxiliary feeding component 100, there are two lifting trusses 300. Both ends of the lifting trusses 300 are connected to support legs 303. A hoisting main beam 400 is erected between the two lifting trusses 300. The hoisting main beam 400 is connected to a transfer pushing member for driving it to slide along the lifting trusses 300. Below the hoisting main beam 400, there are symmetrically arranged two groups of steel bar positioning discs 500 for fixing steel bars. The two groups of steel bar positioning discs 500 are connected to a distance adjusting member for adjusting the distance between them. The steel bar positioning disc group 500 includes a fixed disc 501. A plurality of positioning grooves 502 are arranged on the fixed disc 501. A sliding base block 513 is slidably arranged in each positioning groove 502. A reset support plate 522 is rotatably arranged at the port position of each sliding base block 513 through a reset rotating shaft 517 for preliminarily fixing the steel bar. A locking unit for locking the steel bar is arranged on the sliding base block 513. A displacement pushing unit for driving a plurality of sliding base blocks 513 to slide along the positioning grooves 502 is arranged on the fixed disc 501. The displacement pushing unit can drive the sliding base blocks 513 to slide inside the positioning grooves 502, so that the diameter of the steel cage composed of a plurality of steel bars will change to meet the processing requirements of different specifications. The fixed disc 501 is connected to a synchronous flipping member for driving it to rotate. The synchronous flipping member drives the fixed disc 501 to rotate, so that the empty positioning grooves 502 face downward, and the positioning grooves 502 on the fixed disc 501 continuously complete the feeding of steel bars. On one side of the hoisting main beam 400, there is a welding component 600 for binding steel bars. The welding component 600 is connected to a welding displacement member for adjusting its position. The welding displacement member drives the welding component 600 to move, so as to bind the entire surface of the steel bar; The welding displacement member includes a transverse sliding seat 402 slidably arranged at the upper end of the hoisting main beam 400. The transverse sliding seat 402 is threadedly arranged on a transverse screw 401 above the hoisting main beam 400. One end of the transverse screw 401 is rotatably connected to a fixed block on the hoisting main beam 400. The other end of the transverse screw 401 is connected to a transverse motor 403 for driving it to rotate. A side shifting slide plate 405 is horizontally slidably arranged on the transverse sliding seat 402. The side shifting slide plate 405 is perpendicular to and crosses the hoisting main beam 400. The end of the side shifting slide plate 405 is provided with a connection end connected to the welding component 600. The upper end of the side shifting slide plate 405 is connected to the output end of a second transverse push rod 404. The tail of the second transverse push rod 404 is installed on the transverse sliding seat 402. The second transverse push rod 404 drives the side shifting slide plate 405 to slide along the transverse sliding seat 402, so as to drive the welding component 600 to approach or move away from A, so as to process steel cages of different diameters; The welding component 600 includes a welding suspension plate 601. A welding fixing seat 610 is provided at the lower end of the welding suspension plate 601. A steel bar wire roller 605 is rotatably provided on the side of the welding fixing seat 610. A steel bar wire 606 is wound around the steel bar wire roller 605. The shaft end of the steel bar wire roller 605 is connected to a feeding motor 615 for driving its rotation. A conveying member for conveying the steel bar wire 606 is provided on one side of the steel bar wire roller 605. The conveying member includes a second feeding roller 607. A feeding groove 608 matching the steel bar wire 606 is provided on the second feeding roller 607. A first feeding roller 604 for tightly pressing the steel bar wire 606 is cooperatively provided in the feeding groove 608. A second gear 612 is provided at the shaft end of the first feeding roller 604. A first gear 609 is provided at the shaft end of the second feeding roller 607. The first gear 609 and the second gear 612 are meshed with each other. The end of the first gear 609 is connected to a feeding motor 611 for driving its rotation. By driving the second feeding roller 607 to rotate through the feeding motor 611, and the second feeding roller 607 is matched with the first feeding roller 604, the steel bar wire 606 is conveyed to the outside of the steel reinforcement cage. A motor sliding seat 602 is slidably provided on the outside of the welding suspension plate 601. A sliding seat push rod 613 for driving its up and down movement is connected to the lower end of the motor sliding seat 602. A steering motor 603 is provided on the surface of the motor sliding seat 602. A welding head 614 for welding the steel bar wire 606 on the outside of A is provided at the output end of the steering motor 603. During use, the steel bar wire 606 is conveyed to the outside of the steel reinforcement cage through the conveying member, and then the steel bar wire 606 is welded by the welding head 614. Then, the steel reinforcement cage is driven to flip through the synchronous flipping member so as to bind and wind the steel bar wire 606 around the outside of the steel reinforcement cage; The synchronous flipping member includes a flipping column 510 at the middle position of the fixed disk 501. The other end of the fixed disk 501 is rotatably connected to a rotating sleeve 509. The upper side of the rotating sleeve 509 is connected to a distance adjusting component 200 through a suspension plate 504. A flipping worm gear 507 is provided at the shaft end of the flipping column 510. The flipping worm gear 507 is meshed with a flipping worm 506. The flipping worm 506 is connected to a flipping motor 505 for driving its rotation. A fixed side plate 508 for installing the flipping motor 505 is provided on the outside of the suspension plate 504. By driving the flipping worm 506 to rotate through the flipping motor 505, and the flipping worm 506 is matched with the flipping worm gear 507, the flipping column 510 and the fixed disk 501 at its end are driven to rotate, providing power for adjusting the position of the switching positioning groove 502; The displacement pushing unit includes a transmission pin shaft 516 fixedly connected to the side of the transmission link 503. The other end of the transmission pin shaft 516 is rotatably connected to the end of the transmission link 503. The other end of the transmission link 503 is rotatably connected to a rotating ring. The rotating ring is coaxially arranged with the side of the fixed disk 501. An actuating gear ring 512 is fixedly arranged inside the rotating ring. The actuating gear ring 512 meshes with a driving gear 511. The driving gear 511 is connected to a rotating driving motor for driving its rotation. During use, the rotating driving motor drives the driving gear 511 to rotate. The driving gear 511 meshes with the actuating gear ring 512 to drive the rotating ring to rotate. The rotating ring will pull the sliding base block 513 through the transmission link 503, thereby providing power for adjusting the diameter of the steel reinforcement cage; The locking unit includes a trigger sliding sleeve 520 slidably arranged at the end of the sliding base block 513. A clamping slider 515 for tightly pressing the steel bar is arranged at the inner end of the trigger sliding sleeve 520. A trigger sliding rod 518 is slidably arranged at the outer end of the trigger sliding sleeve 520. The end of the trigger sliding sleeve 520 is connected to the sliding base block 513 through a first spring 519. The end of the trigger sliding rod 518 is connected to the inner bottom of the first spring 519 through a second spring 521. When the sliding base block 513 slides towards the inside of the positioning groove 502, the end of the trigger sliding rod 518 will be squeezed. The trigger sliding rod 518 will drive the trigger sliding sleeve 520 and the clamping slider 515 to move towards the steel bar, thereby completing the locking of the steel bar. An unlocking member for unlocking the A locking is also arranged on the fixed disk 501; The unlocking member includes an unlocking pressing slide plate 523 slidably arranged inside the positioning groove 502. The end of each unlocking pressing slide plate 523 is rotatably connected to an unlocking turntable 525 through an unlocking connecting rod 524. The unlocking turntable 525 is coaxially arranged with the fixed disk 501. An unlocking motor for driving the unlocking turntable 525 to rotate is arranged on the fixed disk 501. The unlocking motor drives the unlocking turntable 525 to rotate. The unlocking turntable 525 drives the unlocking pressing slide plate 523 to slide inside the positioning groove 502, thereby canceling the extrusion of the end of the trigger sliding rod 518, and thus unlocking, which is convenient for later discharging; The distance adjustment component 200 includes a distance adjustment screw rod 203 provided at the lower end of the hoisting main beam 400. One end of the distance adjustment screw rod 203 is rotatably connected to a fixed block at the bottom of the hoisting main beam 400, and the other end of the distance adjustment screw rod 203 is connected to a distance adjustment motor 201 for driving its rotation. Two threaded areas are provided on the distance adjustment screw rod 203, and a distance adjustment sliding seat 202 is respectively provided in cooperation with each of the two threaded areas. A connection end connected to the steel bar positioning disc group 500 is provided at the lower end of the distance adjustment sliding seat 202. Under the action of the distance adjustment motor 201, the distance adjustment sliding seat 202 cooperates with the distance adjustment screw rod 203. Under the action of the thread, the two distance adjustment sliding seats 202 approach or move away from each other relatively along the bottom of the hoisting main beam 400; The transfer pushing component includes a support sliding sleeve 301 slidably sleeved on the lifting truss 300. The support sliding sleeve 301 is connected to a first transverse pushing rod 302 for driving its movement. The first transverse pushing rod 302 drives the support sliding sleeve 301 to move along the lifting truss 300, so as to facilitate the transfer of the processed steel bar cage onto the vehicle; The auxiliary feeding component 100 includes a plurality of conveying rollers 103. A transmission groove matching the steel bar is provided on each conveying roller 103. Both ends of each conveying roller 103 are rotatably connected to a conveying support leg 101. The shaft end of the conveying roller 103 is connected to a conveyor belt group 102 for driving its rotation. Here, the conveyor belt group 102 is a conventional belt drive, which is equipped with a tensioning wheel, so it will not be elaborated: Working principle: During actual use, place a single A on the auxiliary feeding component 100, then transfer A below the hoisting main beam 400, and then drive the driving gear 511 to rotate by rotating the driving motor. The driving gear 511 matches with the driving gear ring 512 to drive the rotating ring to rotate. The rotating ring will push the sliding base block 513 through the transmission connecting rod 503, so that the end of the transmission connecting rod 503 presses A. Since the reset supporting plate 522 will rotate unidirectionally, A will be clamped into the steel bar groove 514, completing the feeding of a single A. Subsequently, drive the turning worm 506 to rotate by the turning motor 505. The turning worm 506 matches with the turning worm gear 507 to drive the turning column 510 to rotate. The fixed disc 501 at the end of the turning column 510 will turn, so that the next vacant positioning groove 502 is set downward, completing the feeding of another A; After all A are fed, drive the driving gear 511 to rotate by rotating the driving motor. The driving gear 511 matches with the driving gear ring 512 to drive the rotating ring to rotate. The rotating ring will pull the sliding base block 513 through the transmission connecting rod 503, thereby providing power for adjusting the diameter of the steel bar cage, so that multiple A form steel bar cages with different diameters; The feeding motor 611 drives the second gear 612 and the first gear 609 to rotate. The second gear 612 and the first gear 609 drive the first feeding roller 604 and the second feeding roller 607 to rotate, so as to send the steel wire 606 to the outside of the steel reinforcement cage. Then, the position of the welding head 614 is adjusted by the slide seat push rod 613 and the steering motor 603 to adjust the position of the welding point. Then, the steel wire 606 is welded to the outside of the steel reinforcement cage. During the welding process, the welding component 600 can be driven to move along the hoisting main beam 400, so as to complete the binding of the whole steel reinforcement cage; After welding, the first transverse push rod 302 drives the support sliding sleeve 301 to move along the lifting truss 300, so that the welded steel reinforcement cage rotates towards the auxiliary feeding component 100 until it is transferred to the transfer equipment (vehicle). Then, the distance between the two steel bar positioning disc groups 500 is adjusted, so that the A end can be withdrawn from the steel bar positioning disc group 500.

[0031] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A construction steel cage auxiliary welding device, comprising an auxiliary feeding component (100) for transferring a single steel bar to a target area, wherein two lifting trusses (300) are arranged above the auxiliary feeding component (100), and the two ends of the lifting trusses (300) are connected to support legs (303), and a lifting main beam (400) is arranged between the two lifting trusses (300), characterized in that: The hoisting main beam (400) is connected to a transfer pusher for driving it to slide along the lifting truss (300), and two steel bar positioning plate groups (500) for fixing steel bars are symmetrically arranged below the hoisting main beam (400). The two steel bar positioning plate groups (500) are connected to a distance adjustment component (200) for adjusting the distance between the two steel bar positioning plate groups (500), and the steel bar positioning plate group (500) includes a fixed plate (501), and a plurality of positioning grooves (502) are arranged on the fixed plate (501), and each positioning groove (502) is slidably provided with a A sliding base block (513), each sliding base block (513) having a reset support plate (522) at a port position thereof which is rotated by a reset shaft (517), the sliding base block (513) being provided with a locking unit for locking a steel bar, the fixed disk (501) being provided with a displacement pushing unit for driving the plurality of sliding base blocks (513) to slide along the positioning groove (502), the fixed disk (501) being connected to a synchronous flipping member for driving the fixed disk (501) to rotate, and the synchronous flipping member driving the fixed disk (501) to rotate.

2. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: A welding component (600) for binding steel bars is provided on one side of the hoisting main beam (400), and the welding component (600) is connected to a welding displacement piece for adjusting its position.

3. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: The synchronous turning component comprises a turning column (510) at a middle position with respect to the fixed disk (501); the other end of the fixed disk (501) is rotatably connected to a rotating sleeve (509); the upper side of the rotating sleeve (509) is connected to the distance adjustment component (200) via a hanging plate (504); a turning worm wheel (507) is provided at the shaft end of the turning column (510); the turning worm wheel (507) and a turning worm (506) are meshed with each other; the turning worm (506) is connected to a turning motor (505) for driving the turning worm (506) to rotate; and a fixed side plate (508) for mounting the turning motor (505) is provided on the outer side of the hanging plate (504).

4. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: The displacement pushing unit comprises a transmission pin shaft (516) fixedly connected to a side surface of a transmission connecting rod (503); the other end of the transmission pin shaft (516) is rotatably connected to an end portion of the transmission connecting rod (503); the other end of the transmission connecting rod (503) is rotatably connected to a rotating ring; the rotating ring is coaxially arranged with a side surface of a fixed disk (501); a driving gear ring (512) is fixedly arranged on the inner side of the rotating ring; the driving gear ring (512) is meshed with a driving gear (511); and the driving gear (511) is connected to a rotating active motor for driving the rotating ring.

5. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: The locking unit comprises a trigger sleeve (520) slidably arranged at the end of a sliding base block (513); a clamping slider (515) for pressing the reinforcing steel bar is arranged at the inner end of the trigger sleeve (520); a trigger slide rod (518) is slidably arranged at the outer end of the trigger sleeve (520); the end of the trigger sleeve (520) is connected to the sliding base block (513) via a first spring (519); the end of the trigger slide rod (518) is connected to the inner bottom of the first spring (519) via a second spring (521); and an unlocking member for releasing the lock of A is also arranged on the fixed plate (501).

6. The auxiliary welding equipment for building steel cage according to claim 5 is characterized in that: The unlocking member comprises an unlocking pressing slide plate (523) slidably arranged inside the positioning groove (502), each end of the unlocking pressing slide plate (523) is rotatably connected to an unlocking rotating disk (525) via an unlocking connecting rod (524), the unlocking rotating disk (525) is coaxially arranged with the fixed disk (501), and the fixed disk (501) is provided with an unlocking motor for driving the unlocking rotating disk (525) to rotate.

7. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: The distance adjustment component (200) comprises a distance adjustment screw (203) arranged at the lower end of the hoisting main beam (400), one end of the distance adjustment screw (203) being rotatably connected to a fixed block at the bottom of the hoisting main beam (400), and the other end of the distance adjustment screw (203) being connected to a distance adjustment motor (201) for driving the distance adjustment screw to rotate, two threaded areas being provided on the distance adjustment screw (203), and a distance adjustment slide seat (202) being respectively provided on the two threaded areas, and a connection end connected to a steel bar positioning plate group (500) being provided at the lower end of the distance adjustment slide seat (202).

8. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: The transfer pusher comprises a support sleeve (301) that is slidably sleeved on the lifting truss (300); the support sleeve (301) is connected to a first transverse push rod (302) for driving the support sleeve to move.

9. The auxiliary welding equipment for building steel cage according to claim 1 is characterized in that: The auxiliary feeding component (100) comprises a plurality of conveying rollers (103), each of which is provided with a transmission groove matching the steel bar, both ends of each conveying roller (103) are rotatably connected to a conveying leg (101), and the shaft end of the conveying roller (103) is connected to a conveyor belt group (102) for driving the conveying roller (103) to rotate.

10. A method for using the auxiliary welding equipment for building steel cage according to any one of claims 1 to 9, characterized in that: The following steps are involved: Step 1: During actual use, a single A is placed on the auxiliary feeding component (100), and then A is transferred to the bottom of the hoisting main beam (400). Then, the driving gear (511) is driven to rotate by rotating the active motor. The driving gear (511) matches the driving gear ring (512) to drive the rotating ring to rotate. The rotating ring pushes the sliding base block (513) through the transmission connecting rod (503), so that the end of the transmission connecting rod (503) squeezes A. Since the reset support plate (522) rotates unidirectionally, A is stuck in the steel bar groove (514), and the loading of a single A is completed. Subsequently, the flipping motor (505) drives the flipping worm (506) to rotate. The flipping worm (506) matches the flipping worm wheel (507) to drive the flipping column (510) to rotate. The fixed plate (501) at the end of the flipping column (510) is flipped, so that the next vacant positioning groove (502) is set downward, and another A is loaded. Step 2: When all A are loaded, the driving motor is rotated to drive the driving gear (511) to rotate, and the driving gear (511) matches the driving gear ring (512) to drive the rotating ring to rotate. The rotating ring pulls the sliding base block (513) through the transmission connecting rod (503), thereby providing power for adjusting the diameter of the steel cage, so that multiple A form steel cages with different diameters, and then cooperate with the welding component (600) to complete the welding.

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