A hanging basket for continuous beam construction

Abstract

This application relates to the technical field of continuous beam construction, and in particular to a hanging basket for continuous beam construction, comprising: a traveling beam, disposed above the completed continuous beam segment; a traveling mechanism, including multiple traveling wheels rotatably mounted on the traveling beam for driving the traveling beam to travel along the continuous beam, and a drive assembly disposed on the traveling beam for driving the traveling wheels to rotate; a suspension mechanism disposed on the traveling beam; a hanging basket body, disposed on the traveling beam via the suspension mechanism and located in front of the traveling beam; and a stabilizing mechanism, including two stabilizing rods located on both sides of the continuous beam segment, and a power assembly for driving the two stabilizing rods to move closer together and press against the continuous beam segment. This application has the effect of reducing the sinking of the hanging basket and reducing the impact on construction quality.

Description

Technical Field

[0001] This application relates to the technical field of continuous beam construction, and in particular to a hanging basket for continuous beam construction. Background Technology

[0002] Currently, cantilever construction, also known as hanging basket construction, represents a significant advancement in continuous beam construction technology. It overcomes the limitations imposed on bridge construction by unfavorable natural conditions such as terrain and rivers. Due to its advantages, including light weight, simple structure, robust stability, ease of movement and assembly / disassembly, and strong reusability, hanging basket construction is widely used in the construction of long-span continuous beams.

[0003] A formwork is a load-bearing structure that can slide or roll along the top of the main beam. Anchored to the pre-cast, strong cantilever front segment and stay cables, the formwork operates under simple support. It serves as a construction platform for tasks such as formwork erection, installation of ordinary reinforcing steel, prestressed ducts, prestressing tendons, and stay cables for the next main beam segment; concrete pouring; prestressing tensioning; grouting; stay cable tensioning; and stay cable system conversion. After the cantilever construction of one main beam segment is completed, the formwork is moved forward to the next segment and fixed in place via a traveling system. Concrete pouring and stay cable tensioning are then performed using the formwork as a construction platform. This cycle continues until the bridge cantilever end is closed. However, when using a formwork, it moves along the beam. During formwork support and pouring, the front end of the formwork is prone to sinking under stress, affecting construction quality. Summary of the Invention

[0004] In order to reduce the sinking of the formwork and minimize its impact on construction quality, this application provides a formwork for continuous beam construction.

[0005] This application provides a formwork for continuous beam construction, which adopts the following technical solution: A formwork for continuous beam construction includes: The traveling beam is installed above the completed continuous beam segment; The traveling mechanism includes multiple traveling wheels rotatably mounted on a traveling beam for driving the traveling beam to travel along a continuous beam, and a drive assembly mounted on the traveling beam for driving the traveling wheels to rotate. The suspension mechanism is mounted on the traveling beam; The hanging basket body is mounted on the traveling beam and located in front of the traveling beam via the suspension mechanism; The stabilizing mechanism includes two stabilizing rods located on both sides of the continuous beam segment, and a power assembly that drives the two stabilizing rods to move closer together and press against the continuous beam segment.

[0006] By adopting the above technical solution, during continuous beam casting construction, the formwork is installed on the completed beam segment. Then, the power unit drives the traveling wheels to rotate, and the traveling wheels move the formwork body to the end of the beam segment. Then, the drive unit drives the stabilizing rods to move closer to the beam segment, so that the two stabilizing rods are pressed against both sides of the beam segment, stabilizing the formwork body, and then the construction of the next beam segment is carried out. The stabilizing mechanism is set up to correct the formwork body through the stabilizing rods, reduce the sinking of the front end of the formwork, reduce the sagging of the cast beam segment, and reduce the impact on construction quality.

[0007] Optionally, the stabilizing mechanism further includes: The support wheel is slidably mounted on the traveling beam and located on the side close to the hanging basket body; An adjustment component, mounted on the traveling beam, drives the support wheel to lift one end of the traveling beam.

[0008] By adopting the above technical solution, when the formwork body moves to the end of the beam segment, the adjustment component drives the support wheel to move down, and the support wheel drives the end of the traveling beam to rise, so that the formwork body moves up and reduces the sagging at the end. On the other hand, when the next beam segment is constructed, the support wheel is retracted, so that the end of the traveling beam moves down, the formwork body separates from the poured beam segment, and then moves. There is a gap between the formwork body and the beam segment, which facilitates movement and facilitates quick demolding.

[0009] Optionally, the adjustment component includes: An adjusting cylinder is mounted on the traveling beam to drive the support wheel to slide.

[0010] By adopting the above technical solution, when the basket body moves to the end of the beam segment, the adjusting cylinder drives the support wheel to move down, and the support wheel drives the end of the traveling beam to rise, so that the basket body moves up and reduces the sagging at the end; the setting adjustment component has a simple structure and facilitates the support wheel to support one end of the traveling beam.

[0011] Optionally, the power assembly includes: The slider slides on the upper-level stabilizing rod; A power cylinder is mounted on the traveling beam, connected to the slider, and drives the slider and the stabilizing rod to approach the continuous beam segment; The transmission component is mounted on the traveling beam and drives the lower stabilizing rod to approach the continuous beam segment.

[0012] By adopting the above technical solution, when the hanging basket body travels to the end of the beam segment, the power cylinder is activated. The power cylinder drives the slider to slide, and the slider pushes the stabilizing rod closer to the continuous beam segment. Through the transmission component, the lower stabilizing rod is driven closer to the continuous beam, so that the two stabilizing rods abut against the two sides of the continuous beam segment respectively, thus completing the fixation of the traveling beam and the hanging basket body. The power component has a simple structure and is easy to control and operate.

[0013] Optionally, the transmission component includes: A fixed rack is connected to the upper-level stabilizing rod and slides along with it; The transmission gear rotates on the traveling beam and meshes with the fixed rack. A sliding rack is slidably mounted on the traveling beam and meshes with the transmission gear.

[0014] By adopting the above technical solution, when the upper stabilizing rod approaches the continuous beam segment, it drives the fixed rack to slide, the fixed rack drives the transmission gear to rotate, the transmission gear drives the sliding rack to slide, and the sliding rack drives the lower stabilizing rod to approach the continuous beam segment. The transmission component has a simple structure, is easy to control and operate, and the two stabilizing rods move synchronously to clamp the continuous beam together, resulting in good stability.

[0015] Optionally, a stabilizing component is provided on the traveling beam, the stabilizing component comprising: A connecting rod is provided on the stabilizing rod and has multiple locking grooves; The locking rod slides on the traveling beam and can be inserted into one of the locking slots; A locking spring is mounted on the traveling beam, connected to the locking rod, and drives the locking rod to move closer to the connecting rod.

[0016] By adopting the above technical solution, when the stabilizing rod abuts against the continuous beam segment, the locking spring drives the locking rod to approach the connecting rod and insert it into one of the locking grooves on the connecting rod, thereby fixing the stabilizing rod, reducing the displacement of the hanging basket body caused by the instability of the drive source, improving the stability of the equipment, reducing the sagging of the hanging basket body during the pouring process, and reducing the impact on the construction quality.

[0017] Optionally, a triggering component is provided on the traveling beam, the triggering component comprising: The sliding rod slides on the traveling beam and is connected to the locking rod in a transmission manner, thereby driving the locking rod to slide in the opposite direction; The drive block is mounted on the walking wheel and drives the slide rod to slide as it rotates.

[0018] By adopting the above technical solution, after the current beam segment is poured, the traveling wheel rotates, the traveling wheel drives the drive block to rotate, the drive block drives the slide rod to slide, the slide rod drives the locking rod to slide in the opposite direction, the locking rod separates from the locking groove, so that the stabilizing rod is in a free state, reducing the clamping force applied to the continuous beam, facilitating the movement of the traveling mechanism, and no additional control is required.

[0019] Optionally, a sliding assembly is provided on the traveling beam, the sliding assembly comprising: A drive rod is mounted on the slide rod, and moves as the slide rod approaches the connecting rod; An execution block is disposed on the connecting rod and has a drive groove. The drive rod can be inserted into the drive groove and drive the connecting rod to move upward.

[0020] By adopting the above technical solution, after the current beam segment is poured, the traveling wheel rotates, which drives the drive block to rotate. The drive block drives the sliding rod to slide, and the sliding rod drives the locking rod to slide in the opposite direction. The locking rod separates from the locking groove, and at the same time, the sliding rod drives the drive rod to slide, which drives the execution block to move upward. The execution block drives the upper stabilizing rod away from the continuous beam segment. The sliding component has a simple structure and acts directly on the stabilizing rod, reducing the need for the stabilizing rod to be locked again by the locking rod after the drive block rotates one revolution. This ensures that the stabilizing rod maintains a distance from the continuous beam when the traveling beam moves, improving travel stability, reducing wear on the stabilizing rod, facilitating continuous use, and reducing the impact on construction quality.

[0021] Optionally, the traveling beam is provided with a pressing mechanism, the pressing mechanism comprising: A pressure relief switch is installed on the regulating cylinder and is electrically connected to the regulating cylinder; An angle sensor is mounted on the walking wheel and is electrically connected to the pressure relief switch.

[0022] By adopting the above technical solution, when the traveling wheel rotates, the angle sensor is triggered, which in turn triggers the pressure relief switch. The pressure relief switch controls the retraction of the regulating cylinder, which in turn drives the support wheel away from the continuous beam, so that the traveling wheel on the traveling beam is completely in contact with the continuous beam, and then the construction of the next beam segment can proceed. The set-in pressing mechanism facilitates the timely recovery of the support wheel, facilitates the orderly progress of construction steps, and improves work efficiency.

[0023] In summary, this application includes the following beneficial technical effects: 1. During continuous beam casting, the formwork is installed on the completed beam segment. The power unit drives the traveling wheels to rotate, which in turn moves the formwork to the end of the beam segment. Then, the drive unit moves the stabilizing rods towards the beam segment, ensuring that the two stabilizing rods press against both sides of the beam segment, thus stabilizing the formwork. The next beam segment can then be constructed. The stabilizing mechanism corrects the formwork through the stabilizing rods, reducing the stress and sinking at the front end of the formwork, minimizing the sagging of the cast beam segment, and reducing the impact on construction quality. 2. When the formwork body moves to the end of the beam segment, the adjustment component drives the support wheel to move down. The support wheel drives the end of the traveling beam to rise, so that the formwork body moves up and reduces the sagging at the end. On the other hand, when the next beam segment is constructed, the support wheel is retracted, so that the end of the traveling beam moves down and the formwork body separates from the poured beam segment. Then it moves. There is a gap between the formwork body and the beam segment, which facilitates movement and facilitates quick demolding. 3. When the upper stabilizing rod approaches the continuous beam, it drives the fixed rack to slide, which in turn drives the transmission gear to rotate. The transmission gear then drives the sliding rack to slide, which in turn drives the lower stabilizing rod to approach the continuous beam. The transmission mechanism is simple in structure and easy to control. The two stabilizing rods move synchronously and work together to clamp the continuous beam, resulting in good stability. 4. After the current beam segment is poured, the traveling wheels rotate, which drives the drive block to rotate. The drive block drives the sliding rod to slide, and the sliding rod drives the locking rod to slide in the opposite direction. The locking rod separates from the locking groove. At the same time, the sliding rod drives the drive rod to slide, and the drive rod drives the execution block to move upward. The execution block drives the upper stabilizing rod away from the continuous beam segment. The sliding component has a simple structure and acts directly on the stabilizing rod, reducing the need for the stabilizing rod to be locked again by the locking rod after the drive block rotates one revolution. This ensures that the stabilizing rod maintains a distance from the continuous beam when the traveling beam moves, improving travel stability and reducing wear on the stabilizing rod, facilitating continuous use and reducing the impact on construction quality. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the overall structure of the hanging basket in the embodiments of this application; Figure 2 This is a structural diagram illustrating the stabilizing mechanism in the embodiments of this application; Figure 3 This is a cross-sectional view of the traveling beam in an embodiment of this application; Figure 4 This is a schematic diagram of the power assembly structure in an embodiment of this application; Figure 5 This is a schematic diagram of the triggering component in an embodiment of this application.

[0025] Reference numerals: 100, traveling beam; 110, traveling cavity; 200, traveling mechanism; 300, suspension mechanism; 310, suspension frame; 320, suspension screw; 400, basket body; 500, stabilizing mechanism; 510, stabilizing rod; 520, power assembly; 521, slider; 522, power cylinder; 523, fixed rack; 524, transmission gear; 525, sliding rack; 526, transmission frame; 530, support wheel; 540, adjusting assembly; 55 0. Stabilizing component; 551. Connecting rod; 552. Locking rod; 553. Locking spring; 560. Triggering component; 561. Slide rod; 562. Drive block; 563. Actuating rod; 564. Adjusting block; 570. Sliding component; 571. Drive rod; 572. Actuating block; 581. Outward expansion cylinder; 582. Mounting bracket; 583. Sliding bracket; 584. Drive slot; 585. Locking slot; 600. Connecting bracket; 700. Counterweight block; 800. Continuous beam segment. Detailed Implementation

[0026] The following is in conjunction with the appendix Figures 1-5 This application will be described in further detail.

[0027] This application discloses a hanging basket for continuous beam construction.

[0028] refer to Figure 1 and Figure 2 The formwork for continuous beam construction includes two traveling beams 100, a traveling mechanism 200 mounted on the traveling beams 100, a suspension mechanism 300 mounted on the traveling beams 100, a formwork body 400 mounted on the suspension mechanism 300 for continuous beam construction, and a stabilizing mechanism 500 mounted on the traveling beams 100 for fixing and correcting the traveling beams 100. During continuous beam construction, the formwork is installed on the already poured continuous beam segment 800. Then, the traveling mechanism 200 drives the traveling beams 100 to travel along the continuous beam segment 800, and the formwork body 400 moves to the front of the current continuous beam segment 800. Then, the stabilizing mechanism 500 fixes the traveling beams 100 and the formwork body 400. Then, the pre-pouring arrangement is carried out, and then the pouring is carried out.

[0029] refer to Figure 1 and Figure 2 A connecting frame 600 is fixedly connected between the two walking beams 100, and the two walking beams 100 form a whole through the connecting frame 600. A walking cavity 110 is formed on the side wall of the walking beam 100 near the continuous beam segment 800. The walking mechanism 200 includes a plurality of walking wheels rotatably connected in the walking cavity 110. The walking wheels are self-powered and rotate synchronously.

[0030] The suspension mechanism 300 includes a suspension frame 310, which is fixedly connected to the two traveling beams 100 by bolts. The suspension frame 310 is inclined and extends to the front side of the traveling beam 100. Four suspension screws 320 are detachably connected to the suspension frame 310. The suspension screws 320 are detachably connected to the basket body 400, so that the basket body 400 is located at the front end of the continuous beam segment 800.

[0031] refer to Figure 2 and Figure 3 The stabilizing mechanism 500 includes multiple outward-expanding cylinders 581 fixedly connected to the traveling beam 100. The piston rod of each of the multiple outward-expanding cylinders 581 on the traveling beam 100 is fixedly connected to a mounting frame 582. A sliding frame 583 is slidably connected to the mounting frame 582. The sliding frame 583 slides vertically on the mounting frame 582. A stabilizing rod 510 is fixedly connected to one end of the sliding frame 583 away from the mounting frame 582. A power component 520 is provided on the sliding frame 583. The power component 520 drives the sliding frame 583 to slide and connects to another stabilizing rod 510, and drives the stabilizing rod 510 to slide. The two stabilizing rods 510 are located on both sides of the continuous beam segment 800, and the traveling beam 100 is fixed under the action of the two stabilizing rods 510.

[0032] refer to Figure 3 and Figure 4 The power assembly 520 includes a power cylinder 522 fixedly connected to the mounting bracket 582. A slider 521 is fixedly connected to the piston rod of the power cylinder 522. A sliding frame 583 has a sliding groove at one end near the power cylinder 522 for the slider 521 to slide. The sliding groove is opened along the length of the power cylinder 522. When the power cylinder 522 drives the slider 521 to abut against the side wall of the sliding groove near the continuous beam segment 800, the power cylinder 522 drives the sliding frame 583 to slide. A transmission component is provided on the sliding frame 583. The transmission component includes a fixed rack 523 fixedly connected to the sliding frame 583, the fixed rack 523 being arranged vertically, and a transmission gear 524 rotatably connected to the mounting frame 582, the transmission gear 524 meshing with the fixed rack 523; a transmission frame 526 is also slidably connected to the mounting frame 582, the transmission frame 526 sliding vertically, the transmission frame 526 being fixedly connected to the lower stabilizing rod 510, and a sliding rack 525 fixedly connected to the transmission frame 526, the sliding rack 525 meshing with the transmission gear 524.

[0033] refer to Figure 3 and Figure 5To facilitate the fixing of the stabilizing rod 510 and reduce swaying or instability of the formwork during construction, a stabilizing component 550 is provided on the traveling beam 100. The stabilizing component 550 includes multiple connecting rods 551 fixedly connected to the sliding frame 583. Multiple locking grooves 585 are provided on the connecting rods 551. The locking grooves 585 are equally spaced vertically on the sliding frame 583 and located on the side closest to the traveling beam 100. The multiple locking grooves 585 gradually increase in depth as they approach the continuous beam segment 800. The number gradually increases; a sliding groove is provided on the mounting bracket 582, and a locking rod 552 is slidably connected in the sliding groove. The locking rod 552 can be inserted into any locking groove 585, and a guide surface is provided at the end of the locking rod 552. The guide surface is inclined, and the end of the guide surface away from the mounting bracket 582 is inclined towards the direction close to the continuous beam segment 800; a locking spring 553 is fixedly connected in the sliding groove. One end of the locking spring 553 is connected to the locking rod 552 and drives the locking rod 552 to approach the connecting rod 551.

[0034] To facilitate quick release of the fixation during the construction of the next beam segment, a triggering component 560 is provided on the traveling beam 100. The triggering component 560 includes a slide rod 561 slidably connected to the traveling beam 100, with one end of the slide rod 561 extending into the traveling cavity 110. A toggle rod 563 is rotatably connected to the traveling beam 100. Both ends of the toggle rod 563 are provided with waist-shaped grooves, which are opened along their length. An adjusting block 564 slides in the waist-shaped groove. The two adjusting blocks 564 are fixedly connected to the locking rod 552 and the slide rod 561, respectively. Multiple drive blocks 562 are fixedly connected to the traveling wheel. The drive blocks 562 can abut against one end of the slide rod 561. The end of the drive block 562 that abuts against the slide rod 561 has a drive surface. The drive surface is opened at an angle, and the end of the drive surface away from the traveling wheel is inclined in the opposite direction of rotation.

[0035] To facilitate the separation of the locking rod 552 from the connecting rod 551 and the stabilizing rod 510 from the continuous beam segment 800, a sliding assembly 570 is provided on the sliding rod 561. The sliding assembly 570 includes a drive rod 571 fixedly connected to the sliding rod 561. The drive rod 571 is located at the end of the sliding rod 561 near the connecting rod 551. A power surface is opened on the drive rod 571. The power surface is opened at an angle and the opening direction is parallel to the guide surface. An execution block 572 is integrally provided on the connecting rod 551. A drive groove 584 is opened on the execution block 572. The drive groove 584 has an inclined surface. The inclined surface is parallel to the power surface. When the power surface abuts against the inclined surface, it drives the connecting rod 551 to move upward.

[0036] An adjustment assembly 540 is provided on the connecting frame 600, and a support wheel 530 is provided on the adjustment assembly 540. The support wheel 530 is located at the end of the traveling beam 100 near the hanging basket body 400. The adjustment assembly 540 includes at least two adjustment cylinders. The piston rod of the adjustment cylinder is connected to the support wheel 530 and drives the support wheel 530 to lift the end of the traveling beam 100 near the hanging basket body 400.

[0037] To further facilitate the controlled retraction of the regulating cylinder, a pressure relief switch is fixedly connected to the traveling beam 100. The pressure relief switch is electrically connected to the regulating cylinder and controls the regulating cylinder to release pressure. An angle sensor is coaxially connected to the traveling wheel. The angle sensor is electrically connected to the pressure relief switch and is used to trigger the pressure relief switch. The pressure relief switch controls the regulating cylinder to release pressure.

[0038] The implementation principle of a hanging basket for continuous beam construction in this embodiment is as follows: During continuous beam construction, the hanging basket is installed on the already cast continuous beam segment 800. Then, the traveling mechanism 200 drives the traveling beam 100 to travel along the continuous beam segment 800, causing the hanging basket body 400 to move to the front of the current continuous beam segment 800. Then, the outward expansion cylinder 581 is activated to drive the mounting frame 582 to approach the cast continuous beam segment 800. Then, the cylinder is adjusted to drive the support wheel 530 to slightly lift the end of the traveling beam 100 near the hanging basket. Then, the power air... Cylinder 522 drives slider 521 to slide. Slider 521 abuts against the sliding groove and drives sliding frame 583 to slide. Sliding frame 583 drives fixed rack 523 to rotate. Fixed rack 523 drives transmission gear 524 to rotate. Transmission gear 524 drives sliding rack 525 to slide. Sliding rack 525 drives transmission frame 526 to slide. Transmission frame 526 and sliding frame 583 respectively drive two stabilizing rods 510 to move closer to each other, so that the stabilizing rods 510 abut against the continuous beam segment 800, fixing the traveling beam 100 and reducing shaking during subsequent pouring.

[0039] At this time, the locking spring 553 drives the locking rod 552 to move closer to the locking groove 585, and the locking rod 552 is inserted into one of the locking grooves 585. Then the power cylinder 522 retracts, reducing the continuous pressure supply of the power cylinder 522 and reducing the sliding of the stabilizing rod 510 caused by pressure relief. Then the arrangement before pouring is carried out, and then the pouring is carried out.

[0040] After the current beam segment is poured, the traveling wheels are activated, the angle sensor is triggered, and the pressure relief switch controls the retraction of the regulating cylinder, causing the support wheel 530 to separate from the continuous beam segment 800. At the same time, the traveling wheels drive the drive block 562 to rotate, the drive block 562 drives the slide rod 561 to slide, the slide rod 561 drives the actuating rod 563 to rotate and drives the drive rod 571 to slide, the actuating rod 563 drives the locking rod 552 to slide in the opposite direction, the locking rod 552 is pulled out from the locking groove 585, the drive rod 571 is inserted into the drive groove 584 and drives the sliding frame 583 to move upward, the sliding frame 583 drives the stabilizing rod 510 to separate from the continuous beam segment 800. Then the traveling wheels drive the traveling beam 100 to move to the construction position of the next beam segment.

[0041] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A hanging basket for continuous beam construction, characterized in that, include: The traveling beam (100) is positioned above the completed continuous beam segment (800); The traveling mechanism (200) includes a plurality of traveling wheels rotatably mounted on the traveling beam (100) for driving the traveling beam (100) to travel along the continuous beam, and a drive assembly mounted on the traveling beam (100) for driving the traveling wheels to rotate. The suspension mechanism (300) is mounted on the traveling beam (100); The hanging basket body (400) is mounted on the walking beam (100) and located in front of the walking beam (100) via the suspension mechanism (300); The stabilizing mechanism (500) includes two stabilizing rods (510) located on both sides of the continuous beam segment (800), and a power assembly (520) that drives the two stabilizing rods (510) to move closer to each other and press against the continuous beam segment (800). The power assembly (520) includes: The slider (521) slides on the upper stabilizer bar (510); A power cylinder (522) is mounted on the traveling beam (100), connected to the slider (521), and drives the slider (521) and the stabilizing rod (510) to approach the continuous beam segment (800). The transmission component is mounted on the traveling beam (100) and drives the lower stabilizing rod (510) to approach the continuous beam segment (800). The transmission component includes: The fixed rack (523) is connected to the upper stabilizer bar (510) and slides with it; The transmission gear (524) rotates on the traveling beam (100) and meshes with the fixed rack (523); A sliding rack (525) is slidably disposed on the traveling beam (100) and meshes with the transmission gear (524); A stabilizing component (550) is provided on the traveling beam (100), the stabilizing component (550) comprising: A connecting rod (551) is provided on the stabilizing rod (510) and has multiple locking grooves (585). The locking rod (552) slides on the traveling beam (100) and can be inserted into one of the locking slots (585); A locking spring (553) is disposed on the traveling beam (100), connected to the locking rod (552), and drives the locking rod (552) to approach the connecting rod (551). A triggering component (560) is provided on the traveling beam (100), the triggering component (560) comprising: The slide bar (561) slides on the traveling beam (100) and is connected to the locking bar (552) in a transmission manner, and drives the locking bar (552) to slide in the opposite direction; The drive block (562) is mounted on the walking wheel and drives the slide rod (561) to slide as it rotates; A sliding assembly (570) is provided on the traveling beam (100), the sliding assembly (570) comprising: A drive rod (571) is disposed on the slide rod (561) as the slide rod (561) approaches the connecting rod (551). An execution block (572) is disposed on the connecting rod (551) and has a drive groove (584). The drive rod (571) can be inserted into the drive groove (584) and drive the connecting rod (551) to move upward.

2. The hanging formwork for continuous beam construction according to claim 1, characterized in that, The stabilizing mechanism (500) also includes: The support wheel (530) is slidably mounted on the traveling beam (100) and located on the side close to the hanging basket body (400); An adjustment component (540) is mounted on the walking beam (100) and drives the support wheel (530) to lift one end of the walking beam (100).

3. The hanging basket for continuous beam construction according to claim 2, characterized in that, The adjustment component (540) includes: An adjusting cylinder is installed on the traveling beam (100) to drive the support wheel (530) to slide.

4. The hanging basket for continuous beam construction according to claim 3, characterized in that, The traveling beam (100) is provided with a pressing mechanism, the pressing mechanism comprising: A pressure relief switch is installed on the regulating cylinder and is electrically connected to the regulating cylinder; An angle sensor is mounted on the walking wheel and is electrically connected to the pressure relief switch.

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