Suspension lifting fixing anti-shaking mechanism for curved glass installation of curtain wall

Abstract

This invention discloses a suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass curtain walls, comprising a safety mechanism (1), a lifting mechanism (3), and a prevention mechanism (4). The safety mechanism (1) includes a mounting box (101), a lifting rope (102), and a protective component. The lifting mechanism (3) includes a hollow box (301), a first suction cup (302), and a clamping component. The prevention mechanism (4) includes a hook (401), a rotating component, a safety component, and a second suction cup (413). This invention can solve the problems of existing glass hoisting equipment being unable to perform adsorption adjustment, reinforcement in special situations, and rope locking.

Description

Technical Field

[0001] This invention relates to an auxiliary device for curtain wall installation, and more particularly to a suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass curtain walls. Background Technology

[0002] Glass curtain walls are widely used on building facades due to their aesthetic appeal and excellent light transmission. With the diversification of building designs, glass curtain walls have evolved from traditional planar structures to curved and other irregularly shaped structures. However, the installation of curved glass curtain walls using current technology is more difficult to control than that of traditional planar glass, especially under conditions of high wind loads at high altitudes, resulting in lower safety and construction efficiency.

[0003] Chinese utility model patent CN215717107U discloses an anti-sway mechanism for a building suspended platform, including a frame and counterweights. Two slide rails are symmetrically fixed to both sides of the lower end of the frame, and counterweights are slidably connected to the inner sides of each slide rail. A co-directional drive mechanism is provided between the frame and the two counterweights. Two contact braking mechanisms are symmetrically arranged at the rear end of the frame, and a central control processor is installed in the middle of the lower end face of the frame. However, this utility model cannot perform adsorption adjustment, reinforcement in special situations, or safety rope locking. Therefore, there is a need for a suspension lifting and fixing anti-sway mechanism for installing curved glass on curtain walls, which can solve the problems of existing glass hoisting equipment being unable to perform adsorption adjustment, reinforcement in special situations, or safety rope locking. Summary of the Invention

[0004] The purpose of this invention is to provide a suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass on curtain walls, which can solve the problems of existing glass hoisting equipment being unable to perform adsorption adjustment, reinforcement in special situations, and locking of the hoisting ropes.

[0005] This invention is implemented as follows:

[0006] A suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass in curtain walls includes a safety mechanism, a lifting mechanism, and a prevention mechanism. The safety mechanism includes a mounting box, a lifting rope, and a protective component. The lifting mechanism includes a hollow box, first suction cups, and a clamping component. The protective component is located inside the mounting box. One end of the lifting rope is wrapped around the protective component, and the other end of the rope passes through the bottom of the mounting box and connects to the hollow box. Several first suction cups are retractably mounted on the outside of one end of the hollow box via the clamping component, allowing the first suction cups to adhere to the curved glass. The prevention mechanism includes hooks, a rotating component, a safety component, and second suction cups. The safety component is mounted on the hollow box and connected to the hooks. Two sets of hooks are located on the top two sides of the hollow box and can be clamped to the outer frame of the building structure via the safety component. The rotating component is mounted on the bottom of the hollow box, and several second suction cups are retractably mounted below the other end of the hollow box via the rotating component and adhere to the installed and fixed curved glass.

[0007] The clamping assembly includes suction pipes, a vacuum machine, crossbars, push-pull blocks, and a push-pull drive assembly. The vacuum machine and the push-pull drive assembly are disposed inside a hollow box. The vacuum machine is connected to several first suction cups through several suction pipes, thereby creating a vacuum inside the first suction cups and adhering them to the curved glass, or separating the first suction cups from the curved glass by air injection. Several crossbars are fixedly installed inside the hollow box, and several push-pull blocks are slidably installed on the crossbars. One end of each push-pull block is connected to a corresponding first suction cup, and the other end of each push-pull block is connected to the push-pull drive assembly.

[0008] The push-pull drive assembly includes a first motor, a first vertical rod, a first bevel gear, a second bevel gear, a third bevel gear, a second vertical rod, a third vertical shaft, a first belt, cams, and push blocks. Each of the cams has a push block at one end, and each push block has a push-pull groove, which is slidably embedded within the groove. The first bevel gear is coaxially fixed to the output shaft of the first motor, and its top and bottom are respectively meshed with the second and third bevel gears. One end of the first vertical rod is rotatably mounted in a hollow box, and its other end is coaxially fixed to the second bevel gear via a synchronous pulley. One end of the second vertical rod is rotatably mounted in a hollow box, and its other end is coaxially fixed to the third bevel gear via a synchronous pulley. The other ends of the cams located on the same side of the first motor are coaxially fixed to the same third vertical shaft. Both third vertical shafts have synchronous pulleys, and these pulleys are respectively connected to the synchronous pulleys on the second and third bevel gears via the first belt.

[0009] The protective assembly includes a fixed base, a fixed plate, a shaped block, a linkage assembly, a clamping assembly, an integrated shaft, and a fixed gear ring. The fixed base has an inverted U-shaped structure, and the integrated shaft is rotatably mounted inside the fixed base, so that one end of the suspension rope is fixedly connected to the integrated shaft and rotatably wound around the fixed base. One end of the integrated shaft passes through one end of the fixed base and is perpendicularly fixed to the fixed plate. The fixed gear ring has an annular structure and is fixedly mounted on the outer wall of one end of the fixed base. Limiting teeth are evenly distributed on the inner wall of the fixed gear ring. The other end of the integrated shaft passes through the other end of the fixed base and is coaxial with the output shaft of the drive motor. Fixed connection; the irregular block is set between the outer wall of one end of the fixed base and the fixed plate. One end of the fixed plate is in frictional contact with the inner ring of the irregular block through a friction block. Limiting teeth are formed on the outer ring of the irregular block, so that the outer ring of the irregular block can be engaged with the inner ring of the fixed tooth ring through the limiting teeth. The linkage component is set on the fixed base. One end of the linkage component is located outside the fixed tooth ring. When the irregular block is engaged with the fixed tooth ring, it abuts against the linkage component at the same time. The other end of the linkage component is movably connected to the clamping component. The other end of the lifting rope passes through the clamping component and can be clamped and locked by the clamping component.

[0010] The linkage assembly includes an upper arc-shaped block, a left arc-shaped block, a right arc-shaped block, a lower arc-shaped block, a rotating rod, an upper rod, a spring, a groove block, a moving rod, a wedge block, a first spring shaft, a second spring shaft, and an integral block. The upper, left, right, and lower arc-shaped blocks have an arc-shaped structure and are coaxially arranged on the outside of the fixed gear ring, allowing them to abut against the irregularly shaped block. The upper rod has a C-shaped structure, with its upper end connected to the upper arc-shaped block via one of the first spring shafts in a spring-like manner. The lower end of the upper rod is slidably inserted into a slanted groove at one end of the groove block. The groove block is spring-likely set in the mounting box via the integral block and the other end of the groove block is fixedly connected to one of the wedge blocks. The wedge-shaped surface of one of the wedge blocks faces the lower arc-shaped block, and the other first spring shaft is spring-likely set on the fixed seat, allowing the other... One end of the first spring shaft is fixedly connected to the bottom of the lower arc-shaped block, and the other end of the other first spring shaft is slidably abutting against the wedge-shaped surface of one of the wedge-shaped blocks; one of the second spring shafts is spring-loadedly mounted on the fixed base, with one end of the second spring shaft fixedly connected to the outer side of the middle of the left arc-shaped block, and the other end of the second spring shaft is connected to one end of the rotating rod, which is rotatably mounted in the mounting box. The other end of the rotating rod is connected to one side of one of the wedge-shaped blocks via a moving rod, and the other side of one of the wedge-shaped blocks is slidably connected to the clamping assembly via the moving rod and another wedge-shaped block; one end of the other second spring shaft is spring-loadedly mounted on the fixed base and connected to the connection node between the moving rod and another wedge-shaped block, and the other end of the other second spring shaft is fixedly connected to the middle of the outer side of the right arc-shaped block.

[0011] The clamping assembly includes a movable shaft, a movable block, a fixed block, and a sliding block; one end of the movable shaft slidably abuts against the wedge-shaped surface of another wedge block, and the other end of the movable shaft is connected to one end of the movable block; the fixed block is disposed in the mounting box, and the other end of the movable block can be pressed against the fixed block; an insert groove is formed on the surfaces of the movable block and the fixed block opposite each other, so that the lifting rope can be pressed between the movable block and the fixed block through the insert groove; a pair of sliding blocks are respectively fixedly installed in the mounting box, and each end of the movable block has a plug rod, and the two plug rods pass through both ends of the fixed block and are retractably inserted into the pair of sliding blocks.

[0012] The bottom of the mounting box is connected to the curved glass by a sling.

[0013] The safety components include hollow side rods, helical rods, a first drive shaft, a second motor, a first gear, a second gear, an incomplete gear, and a fixing rod. The second motor is located at the bottom of the hollow box. The first gear is coaxially fixed to the output shaft of the second motor, and the second gear is coaxially fixed to the first drive shaft, with the second gear meshing with the first gear. Both ends of the first drive shaft are inserted into the two hollow side rods, which are symmetrically arranged on the outer sides of the two end faces of the hollow box. A pair of helical rods mesh with both ends of the first drive shaft, and the two hollow side rods are screwed onto the pair of helical rods. A fixing rod is provided on the outer side of each hollow side rod, and a pair of incomplete gears is provided at the top of each fixing rod. The pair of incomplete gears mesh with each other and are coaxially fixed to one end of a pair of hooks. The other end of the pair of hooks is claw-shaped and can be clamped onto the outer frame of the building structure by rotating through the incomplete gears. Lighting fixtures are installed on the outer surface of the hollow side rods.

[0014] The rotating assembly includes a third motor, a second drive shaft, and an extension structure; the third motor is mounted on the bottom plate of the hollow box, the second drive shaft is rotatably mounted on the bottom plate of the hollow box, and the output shaft of the third motor is meshed with the middle part of the second drive shaft for transmission; extension structures are symmetrically installed at both ends of the second drive shaft.

[0015] Each extension structure includes a second belt, a third gear, a fourth gear, a third belt, a fifth gear, a sixth gear, a fourth belt, a seventh gear, an eighth gear, a driving rod, a connecting rod, and a right-angle rod. One end of the first connecting rod is connected to the bottom of the hollow box, and the other end of the first connecting rod is rotatably connected to one end of the first right-angle rod. The other end of the first right-angle rod is rotatably connected to one end of the second connecting rod. The third gear and the fourth gear are rotatably mounted on the middle and other ends of the first right-angle rod, respectively, and the third gear and the fourth gear are meshed together. The third gear is connected to the second drive shaft via the second belt. The other end of the second connecting rod is rotatably connected to one end of the second right-angle rod. Next, the other end of the second right-angle rod is rotatably connected to one end of the third connecting rod; the fifth gear and the sixth gear are rotatably mounted on the middle and the other end of the second right-angle rod, respectively, and the fifth gear and the sixth gear are meshed together. The fifth gear is driven by the fourth gear through the third belt; the other end of the third connecting rod is rotatably connected to one end of the third right-angle rod, and the other end of the third right-angle rod is rotatably connected to one end of the driving rod; the seventh gear and the eighth gear are rotatably mounted on the middle and the other end of the third right-angle rod, respectively, and the seventh gear and the eighth gear are meshed together. The sixth gear is driven by the seventh gear through the fourth belt; the other end of the driving rod is rotatably connected to the second suction cup.

[0016] Compared with the prior art, the present invention has the following advantages:

[0017] 1. Due to the protective component, the present invention can engage and abut against one of the arc-shaped blocks when the integrated shaft accelerates its rotation. The displacement of the arc-shaped block triggers the linkage component and pushes the clamping component, so that the moving block presses the suspension rope tightly against the fixed block, thereby locking the suspension rope and preventing the curved glass from falling accidentally. This invention achieves effective control of curved glass that is out of control at high altitudes, preventing the curved glass from falling and causing accidents.

[0018] 2. Because the present invention is equipped with a clamping component and a safety component, the clamping component can push the first suction cup to the curved glass and firmly adhere the curved glass. After the curved glass is lifted to a specified height, the safety component clamps it to the outer frame of the building structure, thereby improving the wind load resistance of the entire mechanism and the stability of the curved glass, preventing shaking and falling, and improving the construction safety of the curved glass.

[0019] 3. Because the present invention is equipped with a rotating component, the extension structure can be rotated and extended or retracted through the rotating component, thereby adsorbing the second suction cup on the extension structure onto the installed curved glass, thereby further improving the wind load resistance of the entire mechanism and the stability of the curved glass, realizing the effective positioning and fixing of the curved glass, and effectively preventing accidental falls. Attached Figure Description

[0020] Figure 1 This is a side view of the suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass in curtain walls according to the present invention;

[0021] Figure 2 This is a perspective view of the suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass on curtain walls according to the present invention;

[0022] Figure 3 This is a schematic diagram of the lifting mechanism and the prevention mechanism in the hanging, raising, fixing and anti-swaying mechanism for installing curved glass on curtain walls of the present invention;

[0023] Figure 4 This is a schematic diagram of the clamping component in the hanging, raising, fixing, and anti-swaying mechanism for installing curved glass on curtain walls according to the present invention;

[0024] Figure 5 yes Figure 4 Enlarged view of point A in the middle;

[0025] Figure 6 This is a schematic diagram of the rotating component and safety component in the hanging, raising, fixing, and anti-swaying mechanism for installing curved glass on curtain walls according to the present invention;

[0026] Figure 7 yes Figure 6 Enlarged view of point B in the middle;

[0027] Figure 8 yes Figure 6 Enlarged view of point C in the middle;

[0028] Figure 9 This is a schematic diagram of the protective components in the hanging, raising, fixing, and anti-swaying mechanism for installing curved glass on curtain walls according to the present invention;

[0029] Figure 10 yes Figure 9 Enlarged view of point D in the middle;

[0030] Figure 11 This is a schematic diagram of the linkage components, irregular blocks, and fixing gear ring in the hanging, raising, fixing, and anti-swaying mechanism for installing curved glass on curtain walls according to the present invention.

[0031] In the diagram, 1-Safety mechanism; 2-Curved glass; 3-Lifting mechanism; 4-Prevention mechanism; 101-Mounting box; 102-Lifting rope; 103-Lifting sling; 104-Fixing seat; 105-Upper arc block; 106-Left arc block; 107-Right arc block; 108-Lower arc block; 109-Rotating rod; 110-Upper rod; 111-Spring; 112-Groove block; 113-Moving rod; 114-Wedge block; 115-Moving... Shaft; 116-First spring shaft; 117-Second spring shaft; 118-Moving block; 119-Fixed block; 120-Sliding block; 121-Fixed plate; 122-Irregularly shaped block; 123-Integral block; 124-Integral shaft; 125-Fixed gear ring; 301-Hollow box; 302-First suction cup; 303-Suction pipe; 304-Vacuum machine; 305-First motor; 306-First vertical rod; 307-First bevel gear; 308-Second bevel gear; 309-Third bevel gear; 310-Second vertical rod; 311-Third vertical shaft; 312-First belt; 313-Horizontal rod; 314-Push-pull block; 315-Cam; 316-Push block; 401-Claw; 402-Placement block; 403-Side hollow rod; 404-Helical rod; 405-First transmission shaft; 406-Second motor; 407-First gear; 408-Second gear; 40 9 - Incomplete gear; 410 - Fixed rod; 411 - Third motor; 412 - Second drive shaft; 413 - Second suction cup; 414 - Second belt; 415 - Third gear; 416 - Fourth gear; 417 - Third belt; 418 - Fifth gear; 419 - Sixth gear; 420 - Fourth belt; 421 - Seventh gear; 422 - Eighth gear; 423 - Drive rod; 424 - Linking rod; 425 - Right-angle rod. Detailed Implementation

[0032] The present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0033] Please see the appendix Figure 1 and attached Figure 2A suspension and lifting mechanism for installing curved glass curtain walls to prevent swaying includes a safety mechanism 1, a lifting mechanism 3, and a prevention mechanism 4. The safety mechanism 1 includes a mounting box 101, a lifting rope 102, and a protective assembly. The lifting mechanism 3 includes a hollow box 301, first suction cups 302, and a clamping assembly. The protective assembly is disposed inside the mounting box 101. One end of the lifting rope 102 is wrapped around the protective assembly, and the other end of the rope 102 passes through the bottom of the mounting box 101 and connects to the hollow box 301. Several first suction cups 302 are retractably mounted on the hollow box 301 via the clamping assembly. On one side of the hollow box 301, several first suction cups 302 are arranged to adhere to the curved glass 2. The prevention mechanism 4 includes a hook 401, a rotating component, a safety component, and a second suction cup 413. The safety component is installed on the hollow box 301 and connected to the hook 401. Two sets of hooks 401 are arranged on the top two sides of the hollow box 301 and can be clamped to the outer frame of the building structure by the safety component. The rotating component is installed at the bottom of the hollow box 301. Several second suction cups 413 are telescopically installed below the other end of the hollow box 301 through the rotating component and adhere to the curved glass 2 that has been installed and fixed.

[0034] The mounting box 101 can be fixedly installed on the building structure or hoisted onto a lifting device. The curved glass 2 can be attached to the hollow box 301 by the first suction cup 302. The hollow box 301 is suspended below the mounting box 101 by the hoisting rope 102, thereby lifting the curved glass 2 to a designated height by the rope 102 winding around the protective component. If the curved glass 2 falls, the hoisting rope 102 can be clamped by the protective component to achieve a safety protection function. The second suction cup 413 extends to the installed curved glass by rotating the component. The second suction cup 413 can assist in the safe and efficient hoisting of the curved glass 2 by adhering to the installed glass. Each set of hooks 401 is equipped with a pair of hooks 401. The pair of hooks 401 can be opened and closed by rotating the safety component to clamp onto the outer frame of the building structure, which can play a reinforcing role in special circumstances such as strong winds. The number of first suction cups 302 and second suction cups 413 can be adjusted according to the actual situation. Preferably, there are four first suction cups 302 and two second suction cups 413.

[0035] Please see the appendix Figure 4 and attached Figure 5The clamping assembly includes a suction pipe 303, a vacuum machine 304, a crossbar 313, push-pull blocks 314, and a push-pull drive assembly. The vacuum machine 304 and the push-pull drive assembly are disposed inside the hollow box 301. The vacuum machine 304 is connected to several first suction cups 302 through several suction pipes 303, so that a vacuum is formed inside the several first suction cups 302 and they are adhered to the curved glass 2, or the several first suction cups 302 are separated from the curved glass 2 by air injection. Several crossbars 313 are fixedly installed inside the hollow box 301. Several push-pull blocks 314 are slidably installed on several crossbars 313 through sliding grooves and sliders. One end of several push-pull blocks 314 is connected to several first suction cups 302 respectively, and the other end of several push-pull blocks 314 is connected to the push-pull drive assembly.

[0036] The vacuum machine 304 can use a small gas extraction and degassing device with existing technology. It extracts air through the suction pipe 303 to create a vacuum between the first suction cup 302 and the curved glass 2, ensuring that the curved glass 2 is reliably adsorbed by the first suction cup 302. After the curved glass 2 is installed, it releases air through the suction pipe 303 to separate the first suction cup 302 from the curved glass 2.

[0037] Please see the appendix Figure 4 and attached Figure 5 The push-pull drive assembly includes a first motor 305, a first vertical rod 306, a first bevel gear 307, a second bevel gear 308, a third bevel gear 309, a second vertical rod 310, a third vertical shaft 311, a first belt 312, a cam 315, and a push block 316. Each of the cams 315 has a push block 316 at one end. A push-pull groove is formed on the push-pull block 314, and the push block 316 is slidably embedded in the push-pull groove. The first bevel gear 307 is coaxially fixed to the output shaft of the first motor 305, and its top and bottom are respectively meshed with the second bevel gear 308 and the third bevel gear 309. One end of the first vertical rod 306 is rotated via a bracket. The bearing is rotatably installed in the hollow box 301. The other end of the first vertical rod 306 is coaxially fixed to the second bevel gear 308 via a synchronous pulley. One end of the second vertical rod 310 is rotatably installed in the hollow box 301 via a bracket and a rotating bearing. The other end of the second vertical rod 310 is coaxially fixed to the third bevel gear 309 via a synchronous pulley. The other end of the cam 315 located on the same side of the first motor 305 is coaxially fixed to the same third vertical shaft 311. Both third vertical shafts 311 are equipped with synchronous pulleys. The synchronous pulleys on the two third vertical shafts 311 are respectively connected to the synchronous pulleys on the second bevel gear 308 and the third bevel gear 309 via the first belt 312.

[0038] The number of cams 315 can preferably be four. The cams 315 can adopt an elliptical structure with one end larger than the other end. When the cams 315 rotate, they drive the push block 316 to make a circular motion, so that it pushes the push block 314 to slide along the width direction of the crossbar 313 through the push-pull groove. At the same time, the push block 314 slides along the length direction of the crossbar 313 through the slide groove and the slider, so that the first suction cup 302 is pulled outward to the curved glass 2 or away from the curved glass 2.

[0039] Please see the appendix Figure 9 To be continued Figure 11 The protective assembly includes a fixed base 104, a fixed plate 121, a shaped block 122, a linkage assembly, a clamping assembly, an integrated shaft 124, and a fixed gear ring 125. The fixed base 104 has an inverted U-shaped structure. The integrated shaft 124 is rotatably mounted inside the fixed base 104 via a rotating bearing, so that one end of the suspension rope 102 is fixedly connected to the integrated shaft 124 and rotatably wound around the fixed base 104. One end of the integrated shaft 124 passes through one end of the fixed base 104 and is perpendicularly fixed to the fixed plate 121. The fixed gear ring 125 has an annular structure and is fixedly mounted on the outer wall of one end of the fixed base 104. Limiting teeth are evenly distributed on the inner wall of the fixed gear ring 125. The other end of the integrated shaft 124 passes through the other end of the fixed base 104. It is coaxially fixed to the output shaft of the drive motor; the irregular block 122 is set between the outer wall of one end of the fixed base 104 and the fixed plate 121. One end of the fixed plate 121 is in frictional contact with the irregular inner ring of the irregular block 122 through the friction block. The irregular outer ring of the irregular block 122 forms a limiting tooth, so that the irregular outer ring of the irregular block 122 can be engaged with the inner ring of the fixed tooth ring 125 through the limiting tooth; the linkage component is set on the fixed base 104. One end of the linkage component is located outside the fixed tooth ring 125. When the irregular block 122 is engaged with the fixed tooth ring 125, it abuts against the linkage component synchronously. The other end of the linkage component is movably connected to the clamping component. The other end of the suspension rope 102 passes through the clamping component and can be clamped and locked by the clamping component.

[0040] The two sides of the irregular block 122 are attached to the fixed base 104 and the fixed plate 121. At the same time, a friction block is provided at the end of the fixed plate 121 for insertion into the irregular inner ring of the irregular block 122, so that the irregular block 122 can rotate synchronously with the fixed plate 121 under the friction force and the pushing action of the friction block. The shape and size of the irregular inner ring of the irregular block 122 can be designed according to the actual rotation state. The friction between the irregular block 122 and the fixed plate 121 can be adjusted according to the actual working conditions such as the hoisting speed of the hoisting rope 102, so as to ensure that the irregular block 122 and the fixed plate 121 rotate synchronously when the hoisting rope 102 is hoisted at a normal and uniform speed. When the hoisting rope 102 is pulled out quickly, it drives the fixed plate 121 to rotate quickly to resist the friction force, so that the irregular block 122 is thrown out of the deviation by centrifugal force, so that the irregular block 122 and the fixed tooth ring 125 are engaged by the limiting teeth and then abut against the linkage component. The position and number of the limiting teeth on the irregular block 122 can be adjusted according to the actual situation. The irregular block 122 triggers the movement of the linkage component and causes the clamping component to clamp and lock the hoisting rope 102, so as to prevent the curved glass 2 from falling accidentally.

[0041] Preferably, the drive motor can also be mounted on the hollow box 301. A winding shaft is rotatably mounted inside the hollow box 301 via bearings. The output shaft of the drive motor is connected to the winding shaft and drives it to rotate synchronously. The other end of the suspension rope 102 is wound around the winding shaft inside the hollow box 301. The drive motor controls the winding shortening and release elongation of the suspension rope 102, thereby achieving the lifting and lowering of the curved glass 2. The installation position of the drive motor can be adjusted according to actual needs to ensure stable and safe lifting and lowering of the curved glass 2.

[0042] Please see the appendix Figure 9 and attached Figure 11The linkage assembly includes an upper arc-shaped block 105, a left arc-shaped block 106, a right arc-shaped block 107, a lower arc-shaped block 108, a rotating rod 109, an upper rod 110, a spring 111, a groove block 112, a moving rod 113, a wedge block 114, a first spring shaft 116, a second spring shaft 117, and an integral block 123. The upper arc-shaped block 105, the left arc-shaped block 106, the right arc-shaped block 107, and the lower arc-shaped block 108 have an arc-shaped structure and can be spliced ​​to form a circular ring structure. The upper arc-shaped block 105, the left arc-shaped block 106, the right arc-shaped block 107, and the lower arc-shaped block 108 are coaxially arranged on the fixed gear ring 12. The outer side of 5 can abut against the irregular block 122; the upper rod 110 has a C-shaped structure, and the upper end of the upper rod 110 is flexibly connected to the upper arc block 105 through one of the first spring shafts 116. The lower end of the upper rod 110 is slidably inserted into the inclined sliding groove at one end of the slot block 112; the slot block 112 is flexibly set in the mounting box 101 through the integrated block 123 via the spring 111, so as to facilitate the reset of the sliding slot block 112 by the spring 111. The other end of the slot block 112 is fixedly connected to one of the wedge blocks 114; the wedge-shaped surface of one of the wedge blocks 114 is set to the lower arc block 108, and the other... A first spring shaft 116 is movably mounted on a fixed base 104 via a bracket, with one end of another first spring shaft 116 fixedly connected to the bottom of the lower arc-shaped block 108, and the other end of the other first spring shaft 116 slidably abutting against the wedge-shaped surface of one of the wedge-shaped blocks 114; a second spring shaft 117 is movably mounted on a fixed base 104 via a bracket, with one end of one second spring shaft 117 fixedly connected to the outer side of the middle of the left arc-shaped block 106, and the other end of one second spring shaft 117 connected to one end of a rotating rod 109. The middle part is rotatably mounted in the mounting box 101 via a rotating shaft. The other end of the rotating rod 109 is connected to one side of one of the wedge blocks 114 via a moving rod 113. The other side of one of the wedge blocks 114 is slidably connected to the clamping assembly via the moving rod 113 and another wedge block 114. One end of another second spring shaft 117 is springily mounted on the fixed seat 104 via a bracket and connected to the connection node of the moving rod 113 and the other wedge block 114 via a connecting rod. The other end of the other second spring shaft 117 is fixedly connected to the outer middle of the right arc block 107.

[0043] Since the upper arc block 105, left arc block 106, right arc block 107 and lower arc block 108 may be subjected to lateral, vertical or oblique forces, and the U-shaped structure formed between the rotating rod 109, the two moving rods 113, one of the wedge blocks 114 and the connecting rod is a rigid connection, when installing the two first spring shafts 116 and the two second spring shafts 117, a certain gap should be reserved between them and the bracket to ensure that they can have a certain range of rotation and tilting. This ensures that when the shaft of the first spring shaft 116 at the bottom of the lower arc block 108 moves downward, it can push the entire U-shaped structure to the right through the wedge surface of one of the wedge blocks 114, thereby using the wedge surface of the other wedge block 114 to push the clamping assembly. Springs are mounted on the shafts of the two first spring shafts 116 and the two second spring shafts 117. The springs are located between the bracket and the outer wall of the arc-shaped block. The springs are compressed or stretched when the shafts of the first spring shafts 116 and the second spring shafts 117 move. The elastic force of the springs helps the shafts of the first spring shafts 116 and the second spring shafts 117 to return to their original positions, thereby causing the upper arc-shaped block 105, the left arc-shaped block 106, the right arc-shaped block 107 and the lower arc-shaped block 108 to push the irregular block 122 to return to its original position.

[0044] Please see the appendix Figure 10 The clamping assembly includes a movable shaft 115, a movable block 118, a fixed block 119, and a sliding block 120. One end of the movable shaft 115 slidably abuts against the wedge-shaped surface of another wedge block 114, and the other end of the movable shaft 115 is connected to one end of the movable block 118. The fixed block 119 is disposed in the mounting box 101, and the other end of the movable block 118 can be pressed against the fixed block 119. An insert groove is formed on the surfaces of the movable block 118 and the fixed block 119 opposite to each other, so that the lifting rope 102 can be pressed between the movable block 118 and the fixed block 119 through the insert groove. A pair of sliding blocks 120 are respectively fixedly installed in the mounting box 101. Insert rods are formed at both ends of the movable block 118, and the two insert rods pass through both ends of the fixed block 119 and are retractably inserted into the pair of sliding blocks 120.

[0045] When the movable shaft 115 is pushed by the wedge-shaped surface of the wedge block 114, the movable block 118 is brought closer to the fixed block 119, thereby pressing the lifting rope 102 onto the fixed block 119 through the movable block 118. The diameter of the fitting groove is slightly smaller than the diameter of the lifting rope 102, thus ensuring that the movable block 118 and the fixed block 119 effectively clamp the lifting rope 102. The insertion rod ensures the linearity of the movement of the movable block 118, thereby ensuring that the movable block 118 can press the lifting rope 102 onto the fixed block 119, and that the lifting rope 102 is locked in the fitting groove.

[0046] Please see the appendix Figure 1 and attached Figure 2The bottom of the mounting box 101 is connected to the curved glass 2 by a sling 103, which can prevent the curved glass 2 from falling directly in the event of a breakage of the sling 102, thereby improving safety.

[0047] Please see the appendix Figure 3 Appendix Figure 6 and attached Figure 7 The safety components include a side hollow rod 403, a helical rod 404, a first transmission shaft 405, a second motor 406, a first gear 407, a second gear 408, an incomplete gear 409, and a fixing rod 410. The second motor 406 is located at the bottom of the hollow box 301. The first gear 407 is coaxially fixed to the output shaft of the second motor 406, and the second gear 408 is coaxially fixed to the first transmission shaft 405, and the second gear 408 meshes with the first gear 407. Both ends of the first transmission shaft 405 are respectively inserted into the two side hollow rods 403, and the two side hollow rods 403 are symmetrically arranged in the hollow box 301. On the outer sides of both ends of 01, a pair of spiral rods 404 are respectively connected to the two ends of the first transmission shaft 405 through bevel gears. Two hollow rods 403 are respectively screwed onto the pair of spiral rods 404. Each hollow rod 403 has a fixing rod 410 on its outer side. The top of the fixing rod 410 is provided with a pair of incomplete gears 409 through the placement block 402 via a motor. The pair of incomplete gears 409 are connected in mesh. The pair of incomplete gears 409 are coaxially fixed to one end of a pair of hooks 401. The other end of the pair of hooks 401 is claw-shaped and can be rotated and clamped on the outer frame of the building structure through the incomplete gears 409.

[0048] The threaded drive fixing rod 410 is raised and lowered, which in turn drives a pair of hooks 401 to rise and fall. This allows the hollow box 301 to be clamped onto the outer frame of the building structure or other fixed components by the two sets of hooks 401, improving the stability of the hollow box 301 and the entire mechanism, and enhancing its wind load resistance. The pair of hooks 401 are opened by rotating a pair of incomplete gears 409, facilitating their placement on the outer frame of the building structure. They are then closed by rotating the pair of incomplete gears 409, facilitating their clamping onto the outer frame of the building structure.

[0049] The outer surface of the hollow side rod 403 is equipped with a lamp (not shown in the figure), which can be lit by powering on the lamp to serve as a warning, improve construction safety, and also have a certain lighting function.

[0050] Please see the appendix Figure 6 and attached Figure 8The rotating assembly includes a third motor 411, a second transmission shaft 412, and an extension structure. The third motor 411 is mounted on the bottom plate of the hollow box 301, and the second transmission shaft 412 is rotatably mounted on the bottom plate of the hollow box 301 via a mounting plate and a rotating bearing. The output shaft of the third motor 411 and the middle part of the second transmission shaft 412 are connected by two meshing bevel gears. Extension structures are symmetrically mounted at both ends of the second transmission shaft 412.

[0051] The extension structure can be rotated by the third motor 411 via the second transmission shaft 412, thereby causing the extension structure to rotate, extend, open, or retract, and move the second suction cup 413 to the installed and fixed glass curtain wall, ensuring that the hollow box 301 is adsorbed onto the installed curved glass by the second suction cup 413, thus ensuring the firmness of the entire mechanism and strong wind load resistance.

[0052] Please see the appendix Figure 8Each set of extension structures includes a second belt 414, a third gear 415, a fourth gear 416, a third belt 417, a fifth gear 418, a sixth gear 419, a fourth belt 420, a seventh gear 421, an eighth gear 422, a driving rod 423, a connecting rod 424, and a right-angle rod 425; one end of the first connecting rod 424 is connected to the bottom of the hollow box 301, and the other end of the first connecting rod 424 is rotatably connected to one end of the first right-angle rod 425 via a pivot. The other end of the right-angle rod 425 is rotatably connected to one end of the second connecting rod 424 via a rotating shaft; the middle and other ends of the first right-angle rod 425 are respectively rotatably mounted with a third gear 415 and a fourth gear 416 via axles, and the third gear 415 and the fourth gear 416 are meshed together. The axle of the third gear 415 is connected to the second transmission shaft 412 via a second belt 414; the other end of the second connecting rod 424 is rotatably connected to one end of the second right-angle rod 425 via a rotating shaft. The other end of the second right-angle rod 425 is rotatably connected to one end of the third connecting rod 424 via a pivot. A fifth gear 418 and a sixth gear 419 are rotatably mounted on the middle and other ends of the second right-angle rod 425 via axles, respectively, with the fifth gear 418 and sixth gear 419 meshing. The axle of the fifth gear 418 is connected to the axle of the fourth gear 416 via a third belt 417. The other end of the third connecting rod 424 is rotatably connected to one end of the third right-angle rod 425 via a pivot. The third right-angle rod 425 is rotatably connected to one end of the driving rod 423 via a rotating shaft. The middle and other ends of the third right-angle rod 425 are respectively rotatably mounted with a seventh gear 421 and an eighth gear 422 via axles, and the seventh gear 421 and the eighth gear 422 are meshed together. The axle of the sixth gear 419 is connected to the axle of the seventh gear 421 via a fourth belt 420. The other end of the driving rod 423 is rotatably connected to the second suction cup 413 via a rotating shaft.

[0053] The number of connecting rods 424 and right-angle rods 425 in the extension structure can be increased or decreased according to actual needs, and the number of gears can also be increased or decreased accordingly, so as to ensure that the extension length of the extension structure can reach the distance between the hollow box 301 and the installed curved glass, and between the curved glass 2 and the outer frame of the building structure, so as to ensure the stable setting of the entire mechanism and the curved glass 2.

[0054] Please see the appendix Figure 1 To be continued Figure 11 The working principle of this invention is as follows:

[0055] When the first motor 305 is powered on and started, the output shaft of the first motor 305 drives the first bevel gear 307 to rotate synchronously. The first bevel gear 307 synchronously transmits the second bevel gear 308 and the third bevel gear 309. The second bevel gear 308 and the third bevel gear 309 respectively drive the first vertical rod 306 and the second vertical rod 310 to rotate. The first vertical rod 306 and the second vertical rod 310 respectively drive the two third vertical shafts 311 to rotate through the first belt 312. The two third vertical shafts 311 drive the four cams 315 to rotate synchronously. This causes the push block 316 on the cam 315 to move circumferentially and push the push block 314 through the slide groove of the push block 314. This causes the push block 314 to slide laterally relative to the crossbar 313 through the slider slide groove and move outward synchronously. The push-pull block 314 pushes the first suction cup 302 outward and attaches it to the surface of the curved glass 2. The vacuum machine 304 is powered on and starts, and the air is extracted from the connection between the four first suction cups 302 and the curved glass 2 through the four suction pipes 303, ensuring that the four first suction cups 302 are firmly attached to the four corners of the curved glass 2, thus ensuring the lifting stability of the curved glass 2.

[0056] The drive motor on the fixed base 104 drives the integrated shaft 124 to rotate, thereby causing the suspension rope 102 to be wound around the integrated shaft 124, lifting the curved glass 2 and the hollow box 301 to the specified height.

[0057] When the wind speed is too high at high-rise buildings, the second motor 406 and the third motor 411 start simultaneously. After the second motor 406 is powered on, its output shaft drives the first gear 407 to rotate synchronously. The first gear 407 drives the second gear 408 to rotate synchronously, and the second gear 408 drives the first transmission shaft 405 to rotate synchronously. Through the bevel gear at the end of the first transmission shaft 405 and the spiral rod 404, the spiral rod 404 rotates within the side hollow rod 403 via a thread. This threaded transmission causes the spiral rod 404 to move up and down axially along the side hollow rod 403, pushing the fixed rod 410 to move up and down synchronously, thus moving the light fixture up and down for a warning purpose. The two motors on the placement block 402 are powered on and, through their output shafts, drive a pair of incomplete gears 409 to rotate relative to each other. The two incomplete gears 409 partially mesh, causing a pair of hooks 401 to rotate closer or further apart. When the hooks 401 move closer together, they can grip the outer frame of the building structure, providing reinforcement in special circumstances such as high wind speeds.

[0058] After the third motor 411 is powered on and started, it drives the second transmission shaft 412 to rotate synchronously through the meshing of two bevel gears via its output shaft. The second transmission shaft 412 drives the third gear 415 to rotate via the second belt 414. The third gear 415 drives the fourth gear 416 to rotate. The fourth gear 416 drives the fifth gear 418 to rotate via the third belt 417. The fifth gear 418 drives the sixth gear 419 to rotate. The sixth gear 419 drives the seventh gear 421 to rotate via the fourth belt 420. The seventh gear 421 drives the eighth gear 422 to rotate. The eighth gear 422 drives the rod 423 to rotate. The rod 423 drives the second suction cup 413 to move. The three connecting rods 424 rotate, extend and open, moving the second suction cup 413 and adsorbing it onto the glass surface that has been hoisted to the lower layer, thereby fixing the hollow box 301 and further fixing the entire mechanism and the curved glass 2, providing reinforcement in special situations such as high wind speed.

[0059] When the integrated shaft 124 rotates normally via the drive motor, it drives the fixed plate 121 to rotate. Utilizing the frictional contact between the shaped block 122 and the fixed plate 121, the fixed plate 121 drives the shaped block 122 to rotate normally under the action of friction and the friction block. When the curved glass 2 falls accidentally, the output shaft of the drive motor can be used to prevent it from falling. However, if the integrated shaft 124 rotates too fast, causing the coupling between the integrated shaft 124 and the output shaft of the drive motor to fail, it cannot prevent the curved glass 2 from falling. The suspension rope 102 descends rapidly, causing the integrated shaft 124 to rotate rapidly. The frictional force between the fixed plate 121 and the shaped block 122 cannot meet the synchronous rotation requirements of the fixed plate 121 and the shaped block 122, causing the shaped block 122 to slide relative to the fixed plate 121 under centrifugal force. The shaped block 122 engages with the limiting teeth within the tooth profile of the fixed gear ring 125. At this point, three situations arise:

[0060] 1. When the irregular block 122 slides down and abuts against the lower arc block 108, the lower arc block 108 causes the first spring shaft 116 at the bottom of the lower arc block 108 to compress, causing the lower end of the first spring shaft 116 to move downward and push the wedge surface of the wedge block 114 below the lower arc block 108, thereby causing the wedge block 114 to move laterally to the right and push the moving rod 113. The wedge surface of another wedge block 114 pushes the moving shaft 115 during the process of moving laterally in sync with the moving rod 113. The moving shaft 115 pushes the moving block 118 closer to the fixed block 119 and presses it, and clamps the suspension rope 102 between the moving block 118 and the fixed block 119.

[0061] 2. When the irregular block 122 slides to the left and abuts against the left arc-shaped block 106, the left arc-shaped block 106 pushes the upper end of the rotating rod 109 through the second spring shaft 117 on the left side, causing the rotating rod 109 to rotate counterclockwise around the middle. The lower end of the rotating rod 109 rotates and pushes the moving rod 113 to move laterally to the right, thereby pushing the moving shaft 115 through another wedge block 114. The moving shaft 115 pushes the moving block 118 closer to the fixed block 119 and presses it tightly, and clamps the suspension rope 102 between the moving block 118 and the fixed block 119.

[0062] 3. When the irregular block 122 slides to the right and abuts against the right arc block 107, the second spring shaft 117 on the right side moves to the right and drives the moving rod 113 to move laterally to the right, pushing another wedge block 114 to the right, thereby pushing the moving shaft 115. The moving shaft 115 pushes the moving block 118 closer to the fixed block 119 and presses it, and clamps the suspension rope 102 between the moving block 118 and the fixed block 119.

[0063] After the hoisting rope 102 is clamped by the moving block 118 and the fixed block 119, the rotation speed of the integrated shaft 124 decreases and returns to synchronism with the rotation shaft of the drive motor. The rotation speed of the integrated shaft 124 can be controlled by the drive motor. The left arc block 106, the right arc block 107 and the lower arc block 108 are reset under the action of the springs of the two first spring shafts 116 and the two second spring shafts 117, so that the irregular block 122 is reset and rotates synchronously with the fixed plate 121 through friction and friction block, thereby ensuring that the curved glass 2 resumes normal hoisting.

[0064] The above are merely preferred embodiments of the present invention and are not intended to limit the scope of protection of the invention. Therefore, any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass curtain walls, characterized in that: The system includes a safety mechanism (1), a lifting mechanism (3), and a prevention mechanism (4). The safety mechanism (1) includes a mounting box (101), a lifting rope (102), and a protective assembly. The lifting mechanism (3) includes a hollow box (301), a first suction cup (302), and a clamping assembly. The protective assembly is installed inside the mounting box (101). One end of the lifting rope (102) is wrapped around the protective assembly, and the other end of the lifting rope (102) passes through the bottom of the mounting box (101) and is connected to the hollow box (301). Several first suction cups (302) are telescopically installed on the outside of one end of the hollow box (301) through the clamping assembly, allowing several... The first suction cup (302) can adsorb the curved glass (2); the prevention mechanism (4) includes a hook (401), a rotating component, a safety component, and a second suction cup (413). The safety component is installed on the hollow box (301) and connected to the hook (401). The two sets of hooks (401) are set on the top two sides of the hollow box (301) and can be clamped to the outer frame of the building structure by the safety component. The rotating component is installed at the bottom of the hollow box (301). Several second suction cups (413) are telescopically installed below the other end of the hollow box (301) by the rotating component and adsorbed on the installed and fixed curved glass (2). The protective assembly includes a fixed base (104), a fixed plate (121), a shaped block (122), a linkage assembly, a clamping assembly, an integrated shaft (124), and a fixed gear ring (125). The fixed base (104) has an inverted U-shaped structure, and the integrated shaft (124) is rotatably disposed within the fixed base (104), so that one end of the suspension rope (102) is fixedly connected to the integrated shaft (124) and rotatably wound around the fixed base (104). One end of the integrated shaft (124) passes through one end of the fixed base (104) and is perpendicularly fixed to the fixed plate (121). The fixed gear ring (125) has an annular structure and is fixedly disposed on the outer wall of one end of the fixed base (104). Limiting teeth are evenly distributed on the inner wall of the fixed gear ring (125). The other end of the integrated shaft (124) passes through the fixed base (104). The other end is coaxially fixed to the output shaft of the drive motor; the irregular block (122) is set between the outer wall of one end of the fixed seat (104) and the fixed plate (121), and one end of the fixed plate (121) is in frictional contact with the irregular inner ring of the irregular block (122) through the friction block, and a limiting tooth is formed on the irregular outer ring of the irregular block (122), so that the irregular outer ring of the irregular block (122) can be engaged with the inner ring of the fixed tooth ring (125) through the limiting tooth; the linkage component is set on the fixed seat (104), one end of the linkage component is located outside the fixed tooth ring (125), and when the irregular block (122) is engaged with the fixed tooth ring (125), it abuts against the linkage component synchronously, and the other end of the linkage component is movably connected to the clamping component, and the other end of the suspension rope (102) passes through the clamping component and can be clamped and locked by the clamping component; The linkage assembly includes an upper arc-shaped block (105), a left arc-shaped block (106), a right arc-shaped block (107), a lower arc-shaped block (108), a rotating rod (109), an upper rod (110), a spring (111), a groove block (112), a moving rod (113), a wedge block (114), a first spring shaft (116), a second spring shaft (117), and an integral block (123); the upper arc-shaped block (105), the left arc-shaped block (106), the right arc-shaped block (107), and the lower arc-shaped block (108) have an arc-shaped structure, and the upper arc-shaped block (105), the left arc-shaped block (106), the right arc-shaped block (107), and the lower arc-shaped block (108) have an arc-shaped structure. The upper rod (110) is coaxially positioned on the outside of the fixed gear ring (125) and can abut against the irregular block (122); the upper rod (110) has a C-shaped structure, and the upper end of the upper rod (110) is flexibly connected to the upper arc block (105) through one of the first spring shafts (116), and the lower end of the upper rod (110) is slidably inserted into the inclined groove at one end of the slot block (112); the slot block (112) is flexibly positioned in the mounting box (101) through the spring (111) and the integral block (123), and the other end of the slot block (112) is fixedly connected to one of the wedge blocks (114); the wedge surface of one of the wedge blocks (114) faces the lower arc block (108). The system is configured such that another first spring shaft (116) is spring-loaded on the fixed base (104), with one end of the other first spring shaft (116) fixedly connected to the bottom of the lower arc-shaped block (108), and the other end of the other first spring shaft (116) slidably abutting against the wedge-shaped surface of one of the wedge-shaped blocks (114); one second spring shaft (117) is spring-loaded on the fixed base (104), with one end of the second second spring shaft (117) fixedly connected to the outer side of the middle of the left arc-shaped block (106), and the other end of the second second spring shaft (117) connected to one end of the rotating rod (109), which rotates... The rod (109) is rotatably mounted in the mounting box (101). The other end of the rotating rod (109) is connected to one side of one of the wedge blocks (114) via the moving rod (113). The other side of one of the wedge blocks (114) is slidably connected to the clamping assembly via the moving rod (113) and another wedge block (114). One end of another second spring shaft (117) is springily mounted on the fixed seat (104) and connected to the connection node between the moving rod (113) and the other wedge block (114). The other end of the other second spring shaft (117) is fixedly connected to the outer middle of the right arc block (107). The clamping assembly includes a movable shaft (115), a movable block (118), a fixed block (119), and a sliding block (120); one end of the movable shaft (115) is slidably abutted against the wedge surface of another wedge block (114), the other end of the movable shaft (115) is connected to one end of the movable block (118), the fixed block (119) is disposed in the mounting box (101), and the other end of the movable block (118) can be pressed against the fixed block (119); A mounting groove is formed on the surface of the movable block (118) and the fixed block (119) facing each other, so that the lifting rope (102) can be pressed between the movable block (118) and the fixed block (119) through the mounting groove; a pair of sliding blocks (120) are fixedly installed in the mounting box (101), and two rods are formed at both ends of the movable block (118), and the two rods can be telescopically inserted into the pair of sliding blocks (120) after passing through both ends of the fixed block (119); The rotating assembly includes a third motor (411), a second drive shaft (412), and an extension structure; the third motor (411) is mounted on the bottom plate of the hollow box (301), and the second drive shaft (412) is rotatably mounted on the bottom plate of the hollow box (301). The output shaft of the third motor (411) is meshed with the middle part of the second drive shaft (412) for transmission; extension structures are symmetrically mounted at both ends of the second drive shaft (412). Each set of extension structures includes a second belt (414), a third gear (415), a fourth gear (416), a third belt (417), a fifth gear (418), a sixth gear (419), a fourth belt (420), a seventh gear (421), an eighth gear (422), a drive rod (423), a connecting rod (424), and a right-angle rod (425); one end of the first connecting rod (424) is connected to the bottom of the hollow box (301), and the other end of the first connecting rod (424) is connected to the first right-angle rod (425). One end of the first right-angle rod (425) is rotatably connected to the other end of the second connecting rod (424); the middle part and the other end of the first right-angle rod (425) are respectively rotatably mounted with a third gear (415) and a fourth gear (416), and the third gear (415) and the fourth gear (416) are meshed together. The third gear (415) is connected to the second transmission shaft (412) through a second belt (414); the other end of the second connecting rod (424) is connected to the second right-angle rod (425) at one end of the first right-angle rod (425). 5) One end of the second right-angle rod (425) is rotatably connected to the other end of the third connecting rod (424); the middle part and the other end of the second right-angle rod (425) are respectively rotatably mounted with the fifth gear (418) and the sixth gear (419), and the fifth gear (418) and the sixth gear (419) are meshed together. The fifth gear (418) is connected to the fourth gear (416) through the third belt (417); the other end of the third connecting rod (424) is connected to the third right-angle rod (425) at one end of the third right-angle rod (425). 5) One end is rotatably connected, and the other end of the third right-angle rod (425) is rotatably connected to one end of the driving rod (423); the middle part and the other end of the third right-angle rod (425) are respectively rotatably mounted with the seventh gear (421) and the eighth gear (422), and the seventh gear (421) and the eighth gear (422) are meshed and connected, and the sixth gear (419) is connected to the seventh gear (421) through the fourth belt (420); the other end of the driving rod (423) is rotatably connected to the second suction cup (413).

2. The suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass in curtain walls according to claim 1, characterized in that: The clamping assembly includes a suction pipe (303), a vacuum machine (304), a crossbar (313), a push-pull block (314), and a push-pull drive assembly. The vacuum machine (304) and the push-pull drive assembly are installed inside the hollow box (301). The vacuum machine (304) is connected to several first suction cups (302) through several suction pipes (303) to form a vacuum inside the several first suction cups (302) and adhere to the curved glass (2), or to separate the several first suction cups (302) from the curved glass (2) by air injection. Several crossbars (313) are fixedly installed inside the hollow box (301). Several push-pull blocks (314) are slidably installed on several crossbars (313). One end of several push-pull blocks (314) is connected to several first suction cups (302) respectively, and the other end of several push-pull blocks (314) is connected to the push-pull drive assembly.

3. The suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass in curtain walls according to claim 2, characterized in that: The push-pull drive assembly includes a first motor (305), a first vertical rod (306), a first bevel gear (307), a second bevel gear (308), a third bevel gear (309), a second vertical rod (310), a third vertical shaft (311), a first belt (312), a cam (315), and a push block (316); one end of each of the cams (315) is provided with a push block (316), and a push-pull groove is formed on the push-pull block (314), and the push block (316) is slidably embedded in the push-pull groove; the first bevel gear (307) is coaxially fixed to the output shaft of the first motor (305), and the top and bottom of the first bevel gear (307) are respectively meshed with the second bevel gear (308) and the third bevel gear (309); the first vertical rod (310) is connected to the output shaft of the first motor (305), the first vertical rod (306) is connected to the output shaft of the first motor (305), the first vertical rod (307 ... One end of the first vertical rod (306) is rotatably installed in the hollow box (301), and the other end of the first vertical rod (306) is coaxially fixed to the second bevel gear (308) through a synchronous pulley; one end of the second vertical rod (310) is rotatably installed in the hollow box (301), and the other end of the second vertical rod (310) is coaxially fixed to the third bevel gear (309) through a synchronous pulley; the other end of the cam (315) located on the same side of the first motor (305) is coaxially fixed to the same third vertical shaft (311), and both third vertical shafts (311) are equipped with synchronous pulleys. The synchronous pulleys on the two third vertical shafts (311) are respectively connected to the synchronous pulleys on the second bevel gear (308) and the third bevel gear (309) through the first belt (312).

4. The suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass in curtain walls according to claim 1, characterized in that: The bottom of the mounting box (101) is connected to the curved glass (2) by a sling (103).

5. The suspension, lifting, fixing, and anti-swaying mechanism for installing curved glass in curtain walls according to claim 1, characterized in that: The safety components include a side hollow rod (403), a helical rod (404), a first transmission shaft (405), a second motor (406), a first gear (407), a second gear (408), an incomplete gear (409), and a fixing rod (410); the second motor (406) is located at the bottom of the hollow box (301), the first gear (407) is coaxially fixed to the output shaft of the second motor (406), the second gear (408) is coaxially fixed to the first transmission shaft (405), and the second gear (408) meshes with the first gear (407); both ends of the first transmission shaft (405) are respectively inserted into the two side hollow rods (403), and the two side hollow rods (403) are symmetrically arranged in the hollow box (301). On the outer sides of both end faces of the core box (301), a pair of spiral rods (404) are respectively meshed and connected to the two ends of the first transmission shaft (405). Two side hollow rods (403) are respectively screwed onto the pair of spiral rods (404). Each side hollow rod (403) is provided with a fixing rod (410) on its outer side. The top of the fixing rod (410) is provided with a pair of incomplete gears (409). The pair of incomplete gears (409) are meshed and connected. The pair of incomplete gears (409) are respectively coaxially fixed to one end of a pair of hooks (401). The other end of the pair of hooks (401) is claw-shaped and can be rotated and clamped on the outer frame of the building structure through the incomplete gears (409). A lamp is installed on the outer surface of the side hollow rod (403).

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