A general-purpose manned anti-skid hanging basket for steel structure installation

Abstract

The utility model discloses a general type manned antiskid hanging basket for steel structure installation, solve the problem that the existing hanging basket lacks reliable self -locking function and poor universality, the utility model discloses two groups of three -jaw inverted L -shaped connecting plate frame of hanging basket top end installation are embraced in the left and right sides of the flange plate of I -beam, realize the anti -disengagement of hanging basket, simultaneously, through the worm gear reducer of walking drive motor, drive the vertical driving wheel rotation on the middle claw of left upper three -jaw inverted L -shaped connecting plate frame, thereby drive whole support to walk and remove on I -beam, due to the worm gear structure of worm gear reducer itself, make worm gear reducer have the ability of self -locking after power -off, thereby improved the stability when hanging basket stays, thereby adapt to different models I -beam, realize the universality and non -mobile self -locking of hanger, guarantee the safety of construction personnel.

Description

Technical Field

[0001] This invention relates to an aerial hanging basket, and more particularly to a universal manned anti-slip hanging basket that can be used for high-altitude steel structure installation and can be suspended on I-beams of different models. Background Technology

[0002] In the installation of steel structures, the safety and stability of manned hanging baskets, as an important platform for construction workers to perform high-altitude operations, have always been core concerns in engineering practice. Currently, existing manned hanging baskets have significant technical bottlenecks in their structural design for suspension, guidance, and movement drive. Existing suspension devices mostly use simple hook or slot structures, which are prone to derailment due to swaying when running on channel steel tracks. Especially in complex construction environments, insufficient guidance accuracy leads to frequent basket deviations, seriously threatening the safety of construction workers. In addition, existing drive mechanisms mostly use ordinary motors to directly drive rollers. Although this type of drive can achieve the movement of the hanging basket, it lacks a reliable self-locking function after power failure. The hanging basket is prone to slippage due to its own weight or external forces, which not only affects the construction progress but also increases the risk of safety accidents. Steel structure beams are generally made of I-beams, and the models of I-beams vary, with different web heights and flange widths. This requires re-processing of hanging rods and hooks when suspending the hanging basket and steel beams, making high-altitude on-site construction complex and difficult, and also increasing construction costs. Summary of the Invention

[0003] This invention provides a universal manned anti-slip hanging basket for steel structure installation, which solves the technical problems of existing hanging baskets lacking reliable self-locking function and poor versatility.

[0004] The present invention solves the above technical problems through the following technical solutions:

[0005] A universal manned anti-slip hanging basket for steel structure installation includes an I-beam horizontally installed in the air and a hanging basket. Two parallel vertical poles are installed on the outer side of the I-beam to suspend the hanging basket. The hanging basket is fixedly connected to the lower outer side of the two parallel vertical poles. Two parallel cylindrical rods are installed on the right side of the two parallel vertical poles. An upper vertical hanging plate is fixedly connected to the upper end of the two parallel cylindrical rods. Movable sleeves are movably connected to the two parallel cylindrical rods below the upper vertical hanging plate. A vertical hanging plate is movable and connected to two parallel vertical poles. The top ends of the two parallel vertical poles are fixedly connected to the upper vertical hanging plate. A left-side three-claw-shaped inverted L-shaped connecting plate frame is fixedly connected to the top surface of the upper vertical hanging plate. Two parallel horizontal cantilever rods are fixedly connected to the right side of the left-side three-claw-shaped inverted L-shaped connecting plate frame. A pair of sliders are movably sleeved on the right ends of the two parallel horizontal cantilever rods, and a right-side three-claw-shaped... The inverted L-shaped connecting plate frame has an upper left horizontal guide wheel and an upper left vertical guide wheel on each of the three claws on the upper left. Similarly, an upper right horizontal guide wheel and an upper right vertical guide wheel are installed on each of the three claws on the upper right. The upper left horizontal guide wheel is movably abutted against the left side of the upper flange plate of the I-beam, and the upper right horizontal guide wheel is movably abutted against the right side of the upper flange plate of the I-beam. The upper vertical guide wheels are movably pressed against the top surface of the upper flange plate of the I-beam; a left-lower three-claw inverted L-shaped connecting plate frame is fixedly connected to the top surface of the movable vertical hanging plate. On each claw of the left-lower three-claw inverted L-shaped connecting plate frame, a left-lower horizontal guide wheel and a left-lower vertical guide wheel are respectively provided; the left-lower horizontal guide wheel is movably pressed against the right side of the lower flange plate of the I-beam, and the left-lower vertical guide wheel is movably pressed against the top surface of the lower flange plate of the I-beam.

[0006] A drive motor is suspended on the inner side of the middle claw of the inverted L-shaped three-claw connecting plate frame in the upper left corner. A worm gear reducer is connected to the output shaft of the drive motor. The output shaft of the worm gear reducer is mechanically connected to the central shaft of the vertical drive wheel on the middle claw of the inverted L-shaped three-claw connecting plate frame in the lower left corner.

[0007] A vertical electric push rod is connected between the upper left three-claw inverted L-shaped connecting plate frame and the lower left three-claw inverted L-shaped connecting plate frame; a horizontal electric push rod is connected between the upper left three-claw inverted L-shaped connecting plate frame and the upper right three-claw inverted L-shaped connecting plate frame.

[0008] A method for constructing a general-purpose manned anti-slip hanging basket, comprising horizontally installed I-beams and a hanging basket, comprises the following method:

[0009] Step 1: Weld square steel into a box-shaped hanging basket; weld two parallel vertical poles on the back of the hanging basket, and weld diagonal bracing between the top of the parallel vertical poles and the upper end of the hanging basket.

[0010] The second step is to fabricate two identical three-claw inverted L-shaped connecting plate frames. Each connecting plate frame includes an arc-shaped base plate, on which three inverted L-shaped cantilever frames are fixedly installed at equal intervals. A vertical guide wheel is installed on the bottom surface of the top of each inverted L-shaped cantilever frame, and a horizontal guide wheel is installed on the inner side of the bottom end of each inverted L-shaped cantilever frame. The central axis of the vertical guide wheel forms a 90-degree angle with the central axis of the horizontal guide wheel. This completes the fabrication of the upper left three-claw inverted L-shaped connecting plate frame and the lower left three-claw inverted L-shaped connecting plate frame.

[0011] Step 3: Construct the upper right three-claw inverted L-shaped connecting plate frame. First, construct three inverted L-shaped cantilever frames. Install vertical guide wheels on the bottom surface of the top of each inverted L-shaped cantilever frame, and install horizontal guide wheels on the inner side of the bottom of each inverted L-shaped cantilever frame. The central axis of the vertical guide wheels forms a 90-degree angle with the central axis of the horizontal guide wheels. Fix the three inverted L-shaped cantilever frames at equal intervals between two parallel horizontal bars to form the right-side three-claw inverted L-shaped connecting plate frame. Fix a sliding block at the top of each inverted L-shaped connecting plate frame on the right-side three-claw inverted L-shaped connecting plate frame, and install a horizontal cantilever rod through a through hole on each sliding block.

[0012] Step 4: Fix the bottom end of the inverted L-shaped connecting plate frame made in Step 2 to the top surface of the upper vertical hanging plate. On the bottom surface of the upper vertical hanging plate, fix two parallel cylindrical rods in the vertical direction. Fix the bottom end of the second inverted L-shaped connecting plate frame made in Step 2 to the top surface of the movable vertical hanging plate. On the movable vertical hanging plate, process two parallel cylindrical rods through holes in the vertical direction. Movably connect the two parallel cylindrical rods through the through holes. Fix a vertical electric push rod to the bottom center of the upper left three-claw inverted L-shaped connecting plate frame. Fix the lower end of the downward-extending vertical electric push rod to the middle of the top of the lower left three-claw inverted L-shaped connecting plate frame. The movable vertical hanging plate and the lower left three-claw inverted L-shaped connecting plate frame together can move up and down along the two parallel cylindrical rods under the drive of the vertical electric push rod.

[0013] Step 5: On the right side of the top center of the inverted L-shaped connecting plate frame with three claws on the upper left, fix a horizontal electric push rod. Fix the end of the horizontal electric push rod extending horizontally to the right to the top center of the inverted L-shaped connecting plate frame with the right side. Move two parallel horizontal cantilever rods through the through holes on the sliding blocks fixed at the top of the inverted L-shaped connecting plate frame. Fix the left ends of the two parallel horizontal cantilever rods to the right side of the inverted L-shaped connecting plate frame with the left side. This allows the inverted L-shaped connecting plate frame with three claws on the upper left to slide left and right along the two parallel horizontal cantilever rods under the drive of the horizontal electric push rod.

[0014] This completes the assembly of the inverted L-shaped bracket.

[0015] Step 6: Suspend the drive motor on the inside of the middle claw of the inverted L-shaped three-claw connecting plate frame on the upper left. Connect the worm gear reducer to the output shaft of the drive motor. The output shaft of the worm gear reducer is mechanically connected to the central shaft of the vertical drive wheel on the middle claw of the inverted L-shaped three-claw connecting plate frame on the lower left. This allows the vertical drive wheel to rotate actively under the drive of the drive motor. When the drive motor stops, the worm gear reducer locks the rotation of the vertical drive wheel.

[0016] The tops of the two parallel vertical poles welded to the rear side of the hanging basket are welded to the left outer side of the upper vertical hanging plate, thus connecting the hanging basket and the inverted L-shaped hanging frame into a whole.

[0017] The top cantilever of the inverted L-shaped bracket is set on the upper flange plate of the I-beam. A horizontal electric push rod is used to movably engage the upper left horizontal guide wheel on the left side of the upper flange plate of the I-beam, and the upper right horizontal guide wheel on the right side of the upper flange plate, thus securing the inverted L-shaped bracket to the I-beam. The upper left and upper right vertical guide wheels are movably pressed against the top surface of the upper flange plate of the I-beam. The vertical cantilever of the inverted L-shaped bracket is then placed against the left side of the I-beam. A vertical electric push rod is used to movably engage the lower left horizontal guide wheel on the right side of the lower flange plate of the I-beam, and the lower left vertical guide wheel is movably pressed against the top surface of the lower flange plate, thus allowing the basket to be hung on the I-beam via the inverted L-shaped bracket.

[0018] By turning on the drive motor, the basket and the inverted L-shaped bracket can move on the I-beam steel beam; by turning off the drive motor, the worm gear reducer locks the vertical drive wheel.

[0019] This invention uses two sets of three-claw-shaped inverted L-shaped connecting plates installed at the top of the hanging basket to clamp onto the left and right sides of the flange plate on the I-beam, thus preventing the hanging basket from detaching. Simultaneously, a travel drive motor, via a worm gear reducer, drives the vertical drive wheel on the middle claw of the upper left three-claw-shaped inverted L-shaped connecting plate to rotate, thereby moving the entire support structure along the I-beam. Due to the worm gear reducer's inherent worm gear structure, it possesses self-locking capability after power failure, improving the stability of the hanging basket when stationary. The distance between the upper left and lower left three-claw-shaped inverted L-shaped connecting plates is adjusted by a vertical electric push rod, and the distance between the upper left and upper right three-claw-shaped inverted L-shaped connecting plates is adjusted by a horizontal electric push rod, thus adapting to different types of I-beam beams. This achieves the versatility of the hanging frame and self-locking during non-movement, ensuring the safety of construction personnel. Attached Figure Description

[0020] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0021] Figure 2 This is a three-dimensional structural diagram of the hanging frame of the hanging basket of the present invention in the front view direction;

[0022] Figure 3 This is a three-dimensional structural diagram of the hanging frame of the hanging basket of the present invention in a side view.

[0023] Figure 4 This is a three-dimensional structural diagram of the inverted L-shaped connecting plate frame 8 with three claws on the upper right side of the present invention. Detailed Implementation

[0024] The present invention will now be described in detail with reference to the accompanying drawings:

[0025] A general-purpose manned anti-slip hanging basket for steel structure installation includes an I-beam 1 horizontally installed in the air and a hanging basket 2. Two parallel vertical poles 3 are installed on the outer side of the I-beam 1 to suspend the hanging basket. The hanging basket 2 is fixedly connected to the lower outer side of the two parallel vertical poles 3. The two parallel vertical poles 3 and the hanging basket 2 form a complete hanging basket structure. Diagonal braces are installed at the top of the two parallel vertical poles 3 and on the outer side of the upper end of the hanging basket 2 to strengthen the structure of the hanging basket. Two parallel cylindrical poles 22 are installed on the right side of the two parallel vertical poles 3. An upper vertical hanging plate 4 is fixedly connected to the upper end of the two parallel cylindrical poles 22. A movable vertical hanging plate 5 is movably sleeved on the two parallel cylindrical poles 22 below the upper vertical hanging plate 4. The movable vertical hanging plate 5 is connected to the two parallel cylindrical poles 22. The vertical uprights 3 are movably connected together. The top ends of the two parallel vertical uprights 3 are fixedly connected to the upper vertical hanging plate 4. The movable vertical hanging plate 5 can slide up and down along the two parallel cylindrical rods 22. A left upper three-claw inverted L-shaped connecting plate frame 6 is fixedly connected to the top surface of the upper vertical hanging plate 4. Two parallel horizontal cantilever rods 14 are fixedly connected to the right side of the left upper three-claw inverted L-shaped connecting plate frame 6. A pair of sliders 21 are movably sleeved on the right end of the two parallel horizontal cantilever rods 14. A right upper three-claw inverted L-shaped connecting plate frame 8 is fixedly suspended on the pair of sliders 21. On each claw of the left upper three-claw inverted L-shaped connecting plate frame 6, a left upper horizontal guide wheel 9 and a left upper vertical guide wheel 10 are respectively provided. On each claw of the right upper three-claw inverted L-shaped connecting plate frame 8, a left upper horizontal guide wheel 9 and a left upper vertical guide wheel 10 are respectively provided. Each claw is equipped with a right upper horizontal guide wheel 15 and a right upper vertical guide wheel 16; the left upper horizontal guide wheel 9 is movably abutted against the left side of the upper flange plate of the I-beam 1, the right upper horizontal guide wheel 15 is movably abutted against the right side of the upper flange plate of the I-beam 1, and the left upper vertical guide wheel 10 and the right upper vertical guide wheel 16 are both movably pressed against the top surface of the upper flange plate of the I-beam 1; a left lower three-claw inverted L-shaped connecting plate frame 7 is fixedly connected to the top surface of the movable vertical hanging plate 5, and a left lower horizontal guide wheel 17 and a left lower vertical guide wheel 18 are respectively provided on each claw of the left lower three-claw inverted L-shaped connecting plate frame 7; the left lower horizontal guide wheel 17 is movably abutted against the right side of the lower flange plate of the I-beam 1, and the left lower vertical guide wheel 18 is movably pressed against the top surface of the upper flange plate of the I-beam 1. The upper left three-claw inverted L-shaped connecting plate frame 6, the lower left three-claw inverted L-shaped connecting plate frame 7, and the upper right three-claw inverted L-shaped connecting plate frame 8 are all identical in structure. Each three-claw inverted L-shaped connecting plate frame consists of three C-shaped frames and two pin shafts connected together to form a frame. A vertical guide wheel is set at the top of each C-shaped frame, and a horizontal guide wheel is set at the bottom of each C-shaped frame. The central axis of the vertical guide wheel is perpendicular to the central axis of the horizontal guide wheel. The vertical guide wheel on the claw of the lower left three-claw inverted L-shaped connecting plate frame 7 is the driving wheel. Driven by the drive motor, the entire frame moves on the I-beam steel beam 1. The other horizontal guide wheels and vertical guide wheels are driven wheels.

[0026] A drive motor 13 is suspended on the inner side of the middle claw of the inverted L-shaped three-claw connecting plate frame 6 in the upper left corner. A worm gear reducer 12 is connected to the output shaft of the drive motor 13. The output shaft of the worm gear reducer 12 is mechanically connected to the central shaft of the vertical drive wheel 11 on the middle claw of the inverted L-shaped three-claw connecting plate frame 7 in the lower left corner.

[0027] A vertical electric push rod 19 is connected between the upper left three-claw inverted L-shaped connecting plate frame 6 and the lower left three-claw inverted L-shaped connecting plate frame 7; a horizontal electric push rod 20 is connected between the upper left three-claw inverted L-shaped connecting plate frame 6 and the upper right three-claw inverted L-shaped connecting plate frame 8; by controlling the two electric push rods, the spacing between the three three-claw inverted L-shaped connecting plate frames can be changed, thereby adapting to different types of I-beam steel beams 1.

[0028] A method for constructing a universal manned anti-slip hanging basket, comprising an I-beam steel beam 1 horizontally set in the air and a hanging basket 2, characterized by the following method:

[0029] Step 1: Weld square steel into a box-shaped hanging basket 2; weld two parallel vertical poles 3 on the back side of the hanging basket 2, and weld diagonal bracing between the top of the parallel vertical poles 3 and the upper end of the hanging basket 2.

[0030] The second step is to fabricate two identical three-claw inverted L-shaped connecting plate frames. Each connecting plate frame includes an arc-shaped base plate, on which three inverted L-shaped cantilever frames are fixed at equal intervals. A vertical guide wheel is set on the bottom surface of the top of each inverted L-shaped cantilever frame, and a horizontal guide wheel is set on the inner side of the bottom end of each inverted L-shaped cantilever frame. The central axis of the vertical guide wheel forms a 90-degree angle with the central axis of the horizontal guide wheel. This completes the fabrication of the upper left three-claw inverted L-shaped connecting plate frame 6 and the lower left three-claw inverted L-shaped connecting plate frame 7.

[0031] Step 3: Construct the upper right three-claw inverted L-shaped connecting plate frame 8. First, construct three inverted L-shaped cantilever frames. Set vertical guide wheels on the bottom surface of the top of each inverted L-shaped cantilever frame and horizontal guide wheels on the inner side of the bottom of each inverted L-shaped cantilever frame. The central axis of the vertical guide wheels forms a 90-degree angle with the central axis of the horizontal guide wheels. Fix the three inverted L-shaped cantilever frames at equal intervals between two parallel horizontal bars to form the right-side three-claw inverted L-shaped connecting plate frame. Fix a sliding block at the top of each inverted L-shaped connecting plate frame on the right-side three-claw inverted L-shaped connecting plate frame. Set a horizontal cantilever rod through a through hole on each sliding block.

[0032] Step 4: Fix the bottom end of the inverted L-shaped connecting plate frame made in Step 2 to the top surface of the upper vertical hanging plate 4. On the bottom surface of the upper vertical hanging plate 4, fix two parallel cylindrical rods 22 in the vertical direction. Fix the bottom end of the second inverted L-shaped connecting plate frame made in Step 2 to the top surface of the movable vertical hanging plate 5. On the movable vertical hanging plate 5, process two parallel cylindrical rods through through holes in the vertical direction. 22 is movably connected through the through hole of the parallel cylindrical rod; a vertical electric push rod 19 is fixedly suspended at the bottom middle of the upper left three-claw inverted L-shaped connecting plate frame 6, and the lower end of the push rod of the downwardly extending vertical electric push rod 19 is fixedly connected to the middle top of the lower left three-claw inverted L-shaped connecting plate frame 7; so that the movable vertical hanging plate 5 and the lower left three-claw inverted L-shaped connecting plate frame 7 can move up and down along the two parallel cylindrical rods 22 under the drive of the vertical electric push rod 19;

[0033] Step 5: On the right side of the top center of the inverted L-shaped connecting plate frame 6 with three claws on the upper left, fix a horizontal electric push rod 20. Fix the push rod end of the horizontal electric push rod 20 extending horizontally to the right to the top center of the inverted L-shaped connecting plate frame 8 with the top center of the inverted L-shaped connecting plate frame 8 with three claws on the upper left. Move two parallel horizontal cantilever rods 14 through the through holes on the horizontal cantilever rods fixed on the top of the inverted L-shaped connecting plate frame with sliding blocks. Fix the left ends of the two parallel horizontal cantilever rods 14 to the right side of the inverted L-shaped connecting plate frame 6 with three claws on the upper left. Driven by the horizontal electric push rod 20, the inverted L-shaped connecting plate frame 8 with three claws on the upper right can slide left and right along the two parallel horizontal cantilever rods 14.

[0034] This completes the assembly of the inverted L-shaped bracket.

[0035] Step 6: A drive motor 13 is suspended inside the middle claw of the upper left three-claw inverted L-shaped connecting plate frame 6. A worm gear reducer 12 is connected to the output shaft of the drive motor 13. The output shaft of the worm gear reducer 12 is mechanically connected to the central shaft of the vertical drive wheel 11 on the middle claw of the lower left three-claw inverted L-shaped connecting plate frame 7. This allows the vertical drive wheel 11 to rotate actively under the drive of the drive motor 13. When the drive motor 13 stops, the worm gear reducer 12 locks the rotation of the vertical drive wheel 11.

[0036] The tops of the two parallel vertical poles 3 welded to the rear side of the hanging basket 2 are welded to the left outer side of the upper vertical hanging plate 4, thereby connecting the hanging basket 2 and the inverted L-shaped hanging frame into a whole.

[0037] The top cantilever of the inverted L-shaped bracket is set on the upper flange plate of the I-beam 1. A horizontal electric push rod 20 moves the upper left horizontal guide wheel 9 to the left side of the upper flange plate of the I-beam 1, and the upper right horizontal guide wheel 15 to the right side of the upper flange plate, thus securing the inverted L-shaped bracket to the I-beam 1. The upper left and upper right vertical guide wheels 10 and 16 are pressed against the top surface of the upper flange plate of the I-beam 1. The vertical cantilever of the inverted L-shaped bracket is placed against the left side of the I-beam 1. A vertical electric push rod 19 moves the lower left horizontal guide wheel 17 to the right side of the lower flange plate of the I-beam 1, and the lower left vertical guide wheel 18 is pressed against the top surface of the lower flange plate, thus allowing the basket 2 to be hung on the I-beam 1 via the inverted L-shaped bracket.

[0038] By turning on the drive motor 13, the basket 2 and the inverted L-shaped bracket can move on the I-beam steel beam 1; by turning off the drive motor 13, the worm gear reducer 12 locks the vertical drive wheel 11.

Claims

1. A universal manned anti-slip hanging basket for steel structure installation, comprising a horizontally arranged I-beam steel beam (1) and a hanging basket (2), characterized in that, Two parallel vertical poles (3) are installed on the outside of the I-beam (1) to support the hanging basket. A hanging basket (2) is fixedly connected to the lower outer side of the two parallel vertical poles (3). Two parallel cylindrical poles (22) are installed on the right side of the two parallel vertical poles (3). An upper vertical hanging plate (4) is fixedly connected to the upper end of the two parallel cylindrical poles (22). A movable vertical hanging plate (5) is movably sleeved on the two parallel cylindrical poles (22) below the upper vertical hanging plate (4). The movable vertical hanging plate (5) is movably connected to the two parallel vertical poles (3). The top ends of two parallel vertical poles (3) are fixedly connected to the upper vertical hanging plate (4); a left upper three-claw inverted L-shaped connecting plate frame (6) is fixedly connected to the top surface of the upper vertical hanging plate (4); two parallel horizontal cantilever poles (14) are fixedly connected to the right vertical surface of the left upper three-claw inverted L-shaped connecting plate frame (6); a slider (21) is movably sleeved at the right end of the two parallel horizontal cantilever poles (14); and a right upper three-claw inverted L-shaped connecting plate frame (8) is fixedly suspended on a pair of sliders (21); the left upper three-claw inverted L-shaped connecting plate frame (8) is fixedly connected to the top surface of the upper vertical hanging plate (4). Each claw of the plate frame (6) is provided with a left upper horizontal guide wheel (9) and a left upper vertical guide wheel (10); each claw of the right upper three-claw inverted L-shaped connecting plate frame (8) is provided with a right upper horizontal guide wheel (15) and a right upper vertical guide wheel (16); the left upper horizontal guide wheel (9) is movably abutted on the left side of the upper flange plate of the I-beam (1), and the right upper horizontal guide wheel (15) is movably abutted on the right side of the upper flange plate of the I-beam (1). The left upper vertical guide wheel (10) and the right upper vertical guide wheel (16) are both movably abutted on the left side of the upper flange plate of the I-beam (1). The upper flange plate of the I-beam (1) is dynamically pressed against the top surface of the upper flange plate; a left-lower three-claw inverted L-shaped connecting plate frame (7) is fixedly connected to the top surface of the movable vertical hanging plate (5). On each claw of the left-lower three-claw inverted L-shaped connecting plate frame (7), a left-lower horizontal guide wheel (17) and a left-lower vertical guide wheel (18) are respectively provided; the left-lower horizontal guide wheel (17) is movably pressed against the right side of the lower flange plate of the I-beam (1), and the left-lower vertical guide wheel (18) is movably pressed against the top surface of the lower flange plate of the I-beam (1).

2. The universal manned anti-slip hanging basket for steel structure installation according to claim 1, characterized in that, A drive motor (13) is suspended on the inner side of the middle claw of the upper left three-claw inverted L-shaped connecting plate frame (6). A worm gear reducer (12) is connected to the output shaft of the drive motor (13). The output shaft of the worm gear reducer (12) is mechanically connected to the central shaft of the vertical drive wheel (11) on the middle claw of the lower left three-claw inverted L-shaped connecting plate frame (7).

3. A universal manned anti-slip hanging basket for steel structure installation according to claim 1 or 2, characterized in that, A vertical electric push rod (19) is connected between the upper left three-claw inverted L-shaped connecting plate frame (6) and the lower left three-claw inverted L-shaped connecting plate frame (7); a horizontal electric push rod (20) is connected between the upper left three-claw inverted L-shaped connecting plate frame (6) and the upper right three-claw inverted L-shaped connecting plate frame (8).

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