A structurally stable scaffold assembly and method of use thereof

Abstract

This application relates to the field of scaffolding technology, and provides a structurally stable scaffolding component and its usage method. The scaffolding component includes multiple support components and multiple connecting components. Each support component includes a base component and several stacked components sequentially stacked on top of the base component. The base components of adjacent support components have different heights, and are connected by several connecting components. Each stacked component includes splicing columns and multiple connecting flanges. The stacked components of adjacent support components have different heights, and are connected by connecting components to form a mesh structure. The height difference between adjacent support components improves overall stability and anti-overturning capacity, making the scaffolding less prone to swaying. Assembly and disassembly are convenient, improving the efficiency of scaffolding component assembly and disassembly.

Description

Technical Field

[0001] This invention belongs to the field of scaffolding technology, specifically relating to a structurally stable scaffolding component and its usage method. Background Technology

[0002] Scaffolding, as a temporary working platform, is widely used on construction sites. Existing scaffolding has poor stability and is prone to swaying, especially during strong winds, severe weather, or when lifting heavy objects. Over time, this swaying can lead to loosening and safety accidents. Furthermore, prolonged swaying and uneven stress can cause deformation and jamming at scaffolding connections, hindering disassembly. Therefore, providing a structurally stable scaffolding system that is easy to assemble and disassemble has become an urgent technical problem to solve. Summary of the Invention

[0003] To address the problems in the prior art, this application proposes a structurally stable scaffolding component and its usage method, which can effectively improve the stability of scaffolding, facilitate assembly and disassembly, and improve construction efficiency.

[0004] In a first aspect, the present invention proposes a structurally stable scaffolding assembly, comprising multiple support components and multiple connecting components; the support components include a base component and a plurality of stacking components sequentially stacked on top of the base component; the base components of adjacent support components have different heights, and the base components of adjacent support components are connected by a plurality of connecting components; the stacking components include splicing columns and a plurality of connecting flanges; the connecting flanges are hexagonal flanges arranged horizontally with six outer side walls; the splicing columns are erected vertically, and the plurality of connecting flanges are arranged vertically at intervals on the splicing columns; the stacking components of adjacent support components have different heights, and the plurality of connecting flanges of adjacent stacking components are connected by connecting components to form a mesh structure.

[0005] Furthermore, the connecting assembly includes a first connecting part, a second connecting part, and a fastening assembly; the end of the first connecting part is provided with a V-shaped connector, and the V-shaped connector is connected to two adjacent outer sidewalls of the hexagonal flange through the fastening assembly; the end of the second connecting part is provided with a straight connector, and the straight connector is connected to one outer sidewall of the hexagonal flange through the fastening assembly.

[0006] Furthermore, the fastening assembly includes a fastening bracket, connecting bolt posts, and an outer insert; both the V-shaped connector and the straight connector have mating interfaces at their ends; each of the six outer sidewalls of the connecting flange has an inner groove; a portion of the outer insert is inserted into the mating interface, and another portion is inserted into the inner groove; the fastening bracket is fixedly connected to the connecting flange, and one or more connecting bolt posts are connected to the fastening bracket; the connecting bolt posts pass through the connecting flange and connect to the outer insert in the inner groove, or the connecting bolt posts pass through the first connecting part / second connecting part and connect to the outer insert in the mating interface.

[0007] Furthermore, the fastening assembly also includes a nut and a spring; the nut is connected to the connecting bolt post and is located above the fastening bracket, and the spring is disposed between the nut and the fastening bracket and is fitted onto the connecting bolt post.

[0008] Furthermore, the connecting flange, the first connecting part, the second connecting part, and the outer insert are each provided with mounting holes for the connecting bolt post to pass through from bottom to top; the fastening assembly also includes a slot block, the upper end of which is connected to the lower end of the connecting bolt post, the upper area of ​​which is smaller than the lower area, and the sidewall of which is provided with a guide slope; the slot block is inserted into the mounting hole from below the connecting flange, the first connecting part, or the second connecting part, and the upper end of which abuts against the outer insert to limit its vertical displacement.

[0009] Furthermore, the fastening assembly also includes a fastening band; the fastening band is inserted into the gap between the connecting bolt post and the mounting hole.

[0010] Furthermore, the foot assembly includes a foot base, a supporting foot disposed on the foot base, and an extended supporting leg disposed at the upper end of the supporting foot; the extended supporting legs of adjacent foot assemblies have different lengths; the upper end of the extended supporting leg is connected to the stacking assembly.

[0011] Furthermore, the support assembly also includes a transition sleeve, and the upper and lower ends of the splicing column are respectively provided with inner positioning stops, and the transition sleeve is inserted into the inner positioning stops.

[0012] Furthermore, the scaffolding assembly also includes a lifting assembly; the lifting assembly is located on one side of the lowest stacked assembly; the lifting assembly includes a lifting base, a lifting drive unit, a lifting frame, a swing hinge shaft, a swing support, and a return spring; the lifting base is provided with a lifting slide, and the lifting drive unit drives the lifting frame to move up and down along the lifting slide; the upper end of the lifting frame is connected to the swing support through the swing hinge shaft, one side of the swing support is connected to the lifting frame through the return spring, and the other side of the swing support is provided with a bracket arm for supporting the lowest stacked assembly.

[0013] Furthermore, the scaffolding assembly also includes a fall protection net laid on the connecting assembly.

[0014] Furthermore, the support assembly also includes a top leveling assembly disposed at the top end of the uppermost stacked assembly.

[0015] Secondly, the present invention also proposes a method for using the above-mentioned structurally stable scaffolding assembly, comprising the following steps:

[0016] The foundation components of the scaffolding assembly are constructed such that adjacent foundation components have different heights;

[0017] Connect adjacent foot components using connecting components;

[0018] Several stacked components are stacked sequentially on top of the base component, so that adjacent stacked components have different heights;

[0019] Several connecting flanges of adjacent stacked components are connected by connecting components, so that the stacked components and connecting components form a mesh structure.

[0020] The beneficial effects of this invention are as follows: By sequentially stacking components on the foundation assembly, and connecting several connecting flanges of each stacked component using connecting components, the scaffolding components form a mesh structure. Simultaneously, adjacent stacked components are limited to different heights, and the height difference between adjacent support components enhances overall stability and anti-overturning capacity, making the scaffolding less prone to swaying. Furthermore, the connecting flanges enable the connection of splicing columns, facilitating the sequential stacking of components, making assembly and disassembly convenient, and improving the efficiency of scaffolding component assembly and disassembly. Additionally, the connecting flanges are hexagonal, with all six outer walls capable of connecting to the connecting components, resulting in balanced force distribution, greatly improving structural stability, preventing loose connections that could lead to safety accidents, ensuring safety, reliability, and ease of operation. Attached Figure Description

[0021] Figure 1 This is a partial three-dimensional structural diagram of the structurally stable scaffolding component of the present invention.

[0022] Figure 2 This is a schematic diagram of the structure of the three support components of the scaffolding assembly with stable structure according to the present invention, which are connected by multiple connecting components.

[0023] Figure 3 for Figure 2 A schematic diagram of the structure after the three stacked components are connected by a connecting component.

[0024] Figure 4 for Figure 2 A schematic diagram of the base assembly of the three supporting components.

[0025] Figure 5 for Figure 2 A schematic diagram illustrating the distribution height principle of the base assembly, stacking assembly, and top leveling assembly of the medium scaffolding system.

[0026] Figure 6 for Figure 3 A schematic diagram of the structure of a stacked component with its splicing column and transition sleeve separated.

[0027] Figure 7 for Figure 6 A three-dimensional structural schematic diagram of one embodiment of a fastening component.

[0028] Figure 8 for Figure 6 A three-dimensional structural schematic diagram of another embodiment of a fastening component.

[0029] Figure 9 This is a partial structural diagram of a stacking component and a connecting component of the scaffolding assembly of the present invention after disassembly.

[0030] Figure 10 This is a three-dimensional structural diagram of the lifting component of the scaffolding assembly of the present invention.

[0031] Figure 11 for Figure 10 Side view.

[0032] In the diagram: 1-Support assembly; 2-First connecting part; 3-Second connecting part; 4-Ladder; 5-Fall protection net; 6-Connecting assembly; 7-Lifting assembly; 8-Fastening assembly; 9-Foot assembly; 10-Stacking assembly; 11-Top leveling assembly; 12-Splicing column; 13-Foot base; 14-Support foot; 15-Extended support leg; 16-Mounting hole; 19-Hollow tube; 20-Connecting flange; 21-Inner groove; 22-Outer insert; 23-Inner positioning stop; 24-Mating interface; 26-Transition sleeve; 28-Fastening bracket; 29-Connecting bolt Column; 30-Slot block; 31-Guide slope; 32-Nut; 33-Spring component; 34-Fastening strap; 35-V-type connector; 36-Straight connector; 38-Transverse overlap plate; 39-Opening; 40-Railway base plate; 41-Limiting plate; 42-Rail; 43-Lifting base; 44-Lifting drive unit; 45-Lifting limit block; 46-Lifting frame; 47-Lifting slide; 48-Swing hinge shaft; 49-Swing support; 50-Oval hole; 51-Reset spring unit; 52-Slot arm; 53-Counterweight block; 54-Swing limit block. Detailed Implementation

[0033] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0034] like Figure 1 , Figure 2 The structurally stable scaffolding assembly shown includes multiple support components 1, multiple connecting components 6, lifting components 7, fall protection net 5, and human ladder 4, among other components.

[0035] like Figure 2 The diagram shows three support components 1, each of which includes a base component 9 and several stacked components 10 arranged sequentially on top of the base component 9.

[0036] In some embodiments, the three support components 1 are connected by multiple connecting components 6 to form a hollow triangular prism structure, and the scaffolding assembly includes multiple triangular prism structures, which are connected by connecting components 6 to form a multi-layer mesh structure.

[0037] The foot components 9 of adjacent support components 1 have different heights, and the foot components 9 of adjacent support components 1 are connected by a number of connecting components 6.

[0038] like Figure 4 As shown, the foot assembly 9 includes a foot base 13, a supporting foot 14 disposed on the foot base 13, and an extended supporting leg 15 disposed at the upper end of the supporting foot 14; the extended supporting legs 15 of adjacent foot assemblies 9 have different lengths; the upper end of the extended supporting leg 15 is connected to the stacking assembly 10. The foot base 13 is fixedly connected to the ground.

[0039] like Figure 4 As shown, the supporting feet 14 of the three foot components 9 are connected by three connecting components 6, which are arranged in a triangle, thus forming a stable triangular structure system. At the upper end of the supporting feet 14 of the three foot components 9, extended supporting legs 15 are provided with different heights, combined with... Figure 5 It can be seen that the upper surfaces of the three extended support legs 15 are not on the same horizontal plane. In some embodiments, it is sufficient to ensure that the upper end of at least one extended support leg 15 is not at the same height as the upper ends of the other two extended support legs 15.

[0040] like Figure 5 As shown, due to the different heights of the three foot components 9, there will be a height difference in the stacked components 10 installed on top of them. The support component 1 includes multiple stacked components 10 stacked sequentially. Therefore, the starting height and ending height of each layer of stacked components 10 of adjacent support components 1 are different. The connection nodes of the stacked components 10 of each support component 1 are not on the same horizontal plane. The overall structure has good stability and can effectively improve the overturning resistance of the scaffolding components.

[0041] Adjacent stacked components 10 are also connected by connecting components 6. Since there is a height difference between different stacked components 10 on the same layer, the connecting components 6 on the same layer do not necessarily have to be on the same horizontal plane, and can also be distributed in a staggered manner. In some embodiments, the connecting components 6 can be set at an angle.

[0042] like Figure 5 As shown, since the uppermost stacked components 10 are not at the same height or on the same horizontal plane, in order to facilitate the laying of the uppermost construction platform plate, the support component 1 also includes a top leveling component 11 set at the uppermost stacked component 10. The leveling principle is as follows: Figure 5 As shown, the height of the top leveling component 11 is determined based on the height difference at the top of the top stacked component 10.

[0043] In this embodiment, the foot assembly 9, stacking assembly 10, and top leveling assembly 11 of the support assembly 1 can adopt the same structure, all including hollow tubes 19 and connecting flanges 20 disposed on the hollow tubes 19, the difference being that the installation heights are different. In this embodiment, the stacking assembly 10 includes splicing columns 12 and multiple connecting flanges 20. The splicing columns 12 include multiple hollow tubes 19, which are vertically spliced ​​or welded together.

[0044] like Figure 6As shown, the support assembly 1 also includes a transition sleeve 26. The upper and lower ends of the splicing columns 12 are respectively provided with inner positioning stops 23, and the transition sleeve 26 is inserted into the inner positioning stops 23. When two splicing columns 12 are spliced, a transition sleeve 26 is provided between them. The lower end of the transition sleeve 26 is inserted into the inner positioning stop 23 at the upper end of the lower splicing column 12, and the upper end of the transition sleeve 26 is inserted into the inner positioning stop 23 at the lower end of the upper splicing column 12. The transition sleeve 26 and the inner positioning stops 23 are either clearance-fitted or interference-fitted. The transition sleeve 26 enhances the lateral resistance of the splicing nodes of each splicing column 12 in the support assembly 1. Since these splicing nodes are distributed at different heights, the overall lateral resistance of the scaffolding assembly is improved.

[0045] The connecting flange 20 is a horizontally arranged hexagonal flange with six outer side walls; the splicing column 12 is erected, and multiple connecting flanges 20 are arranged vertically at intervals on the splicing column 12; the stacked components 10 of adjacent support components 1 have different heights, and several connecting flanges 20 of adjacent stacked components 10 are connected by connecting components 6 to form a mesh structure. Figure 1 The image only shows a portion of the mesh structure; in reality, scaffolding components can be made using... Figure 1 The connection method forms a larger area of ​​mesh structure. Each stacked component 10's connecting flange 20 is connected to as many other stacked component 10's connecting flange 20s as possible through connecting components 6. Each connecting flange 20 can connect to a maximum of six connecting components 6, and each of the six connecting components 6 is then connected to a connecting flange 20 of a stacked component 10, thereby increasing the area of ​​the mesh structure and improving the stability of the scaffolding components.

[0046] Combination Figure 1 , Figure 9 As shown, the connecting assembly 6 includes a first connecting part 2, a second connecting part 3, and a fastening assembly 8. The first connecting part 2 has a V-shaped connector 35 at its end, which is connected to two adjacent outer walls of the hexagonal flange via the fastening assembly 8. The second connecting part 3 has a straight connector 36 at its end, which is connected to one outer wall of the hexagonal flange via the fastening assembly 8. The first connecting part 2 includes a first connecting plate, and the second connecting part 3 includes a second connecting plate. Both connecting plates are horizontally positioned, with the width of the first connecting plate being greater than the width of the second connecting plate, which can be used to support the construction platform plate.

[0047] like Figure 6As shown, the fastening assembly 8 includes a fastening bracket 28, connecting bolt posts 29, and an outer insert 22; both the V-shaped connector 35 and the straight connector 36 have mating interfaces 24 at their ends; each of the six outer side walls of the connecting flange 20 has an inner groove 21; a portion of the outer insert 22 is inserted into the mating interface 24, and another portion is inserted into the inner groove 21; the fastening bracket 28 is welded and fixed to the connecting flange 20, and the fastening bracket 28 includes an L-shaped bracket with a cantilever, on which one or more connecting bolt posts 29 are connected; the connecting bolt posts 29 pass through the connecting flange 20 and connect to the outer insert 22 in the inner groove 21, or the connecting bolt posts 29 pass through the first connecting part 2 / second connecting part 3 and connect to the outer insert 22 in the mating interface 24. The connecting flange 20, the first connecting part 2, the second connecting part 3, and the outer insert 22 are each provided with mounting holes 16 for the connecting bolt posts 29 to pass through from bottom to top. The mounting hole 16 can be a round hole or a strip hole, such as... Figure 3 As shown.

[0048] The outer insert 22 is provided with two mounting holes 16, one of which is used to mate with the connecting bolt post 29 passing through the connecting flange 20, and the other mounting hole 16 is used to mate with the connecting bolt post 29 passing through the first connecting part 2 or the second connecting part 3.

[0049] In some embodiments, the fastening assembly 8 includes two fastening brackets 28, each of which is provided with a connecting bolt post 29. Both fastening brackets 28 can be connected to the connecting flange 20, or one can be connected to the connecting flange 20 and the other to the first connecting part 2 or the second connecting part 3. In short, the position and number of the fastening brackets 28 and connecting bolts of the fastener are flexible, as long as a portion of the outer insert 22 is connected to the connecting flange 20 and the other portion is connected to the first connecting part 2 or the second connecting part 3.

[0050] The fastening assembly 8 also includes a nut 32, a spring 33, and a slot block 30. The nut 32 is connected to the connecting bolt post 29 and is located above the fastening bracket 28. The spring 33 is disposed between the nut 32 and the fastening bracket 28 and is fitted onto the connecting bolt post 29. The upper end of the slot block 30 is connected to the lower end of the connecting bolt post 29. The area of ​​the upper end of the slot block 30 is smaller than the area of ​​its lower end, and the side wall of the slot block 30 is provided with a guide slope 31. The slot block 30 passes through the mounting hole 16 from below the connecting flange 20, the first connecting part 2, or the second connecting part 3. The upper end of the slot block 30 abuts against the outer insert 22 to limit the vertical displacement of the outer insert 22. The guide slope 31 is tightly engaged with the side wall of the mounting hole 16.

[0051] like Figure 7As shown, a guide slope 31 is provided on one side wall of the slot block 30. The upper end of the guide slope 31 extends to the upper end of the slot block 30, and the lower end of the guide slope 31 extends to the lower end of the slot block 30. When the slot block 30, along with the connecting bolt post 29, passes through the mounting hole 16 below the first connecting part 2 or the second connecting part 3, the upper surface area of ​​the slot block 30 is smaller than the diameter of the mounting hole 16, allowing the upper end of the slot block 30 to extend into the interior of the mounting hole 16 or above the mounting hole 16 and abut against the lower end of the outer insert 22. As the slot block 30 rises, the spring member 33 continuously compresses and deforms until the guide slope 31 abuts against the inner wall of the mounting hole 16, and the slot block 30 is clamped in the mounting hole 16, restricting the vertical displacement of the outer insert 22 and preventing it from shaking. This also ensures the connection quality between the connecting flange 20 and the first connecting part 2 or the second connecting part 3. It should be noted that the purpose of the slot block 30 is to extend into the mounting hole 16 and simultaneously press against the outer insert 22 upwards, restricting the vertical displacement of the outer insert 22. The dimensions of the mounting hole 16, the outer insert 22, and the slot block 30 can be designed appropriately so that the slot block 30 presses against the outer insert 22 and is securely locked within the mounting hole 16. The tension of the spring 33 can be adjusted by turning the nut 32. Keeping the spring 33 compressed prevents the outer insert 22 from loosening.

[0052] like Figure 8 As shown, the slot block 30 can adopt another structural form. Figure 8 The slot block 30 shown is a conical structure with a smaller diameter at the top than at the bottom. The sidewall of this conical structure is a conical surface, which is a guide slope 31. The top end of the slot block 30 is welded and fixed to the bottom end of the connecting bolt post 29. The diameter of the top end of the slot block 30 is the same as the diameter of the connecting bolt post 29. Taking the fasteners on the connecting flange 20 as an example, when the slot block 30 is lifted along with the connecting bolt column 29, the upper end of the slot block 30 first passes through the mounting hole 16 at the lower end of the connecting flange 20, and then extends from the lower end of the outer insert 22 into the mounting hole 16 of the outer insert 22. However, since the diameter of the lower end of the slot block 30 is larger than the diameter of the mounting hole 16, the lower end of the slot block 30 cannot enter the mounting hole 16. The guide slope 31 of the slot block 30 is clamped at the lower end of the mounting hole 16 of the outer insert 22, and the outer insert 22 is clamped by the slot block 30, so it cannot move vertically.

[0053] like Figure 9 As shown, the fastening assembly 8 also includes a fastening band 34; the fastening band 34 is inserted into the gap between the connecting bolt post 29 and the mounting hole 16, thereby further fixing the connecting bolt post 29 in the mounting hole 16 to limit its vertical displacement and prevent shaking.

[0054] The scaffolding assembly also includes a fall arresting net 5 laid on the connecting assembly 6. In addition, the scaffolding assembly also includes a transverse overlapping plate 38 disposed above the first connecting part 2 or the second connecting part 3. The transverse overlapping plate 38 is laid on two parallel first connecting parts 2 or second connecting parts 3 and has an opening 39. The transverse overlapping plate 38 is used to install a hoist or other equipment.

[0055] Similar to the transverse overlap plate 38, the scaffolding assembly also includes a track base plate 40. The track base plate 40 is laid on the first connecting part 2 or the second connecting part 3. Limiting plates 41 can also be set at both ends of the track base plate 40. The limiting plates 41 are located on the sides of the first connecting part 2 or the second connecting part 3, and the limiting plates 41 restrict the track base plate 40 to the upper end of the first connecting part 2 or the second connecting part 3 to prevent lateral displacement of the track base plate 40. A track 42 is installed on the upper end of the track base plate 40, so that the trolley that cooperates with the track 42 can move on the scaffolding assembly, improving construction efficiency.

[0056] like Figure 10 , Figure 11 As shown, the scaffolding assembly also includes a lifting assembly 7, which is used to lift the stacked assembly 10 to facilitate the installation of the next layer of stacked assembly 10, thereby increasing the height of the support assembly 1.

[0057] The lifting assembly 7 is located on one side of the bottommost stacked assembly 10. The lifting assembly 7 includes a lifting base 43, a lifting drive unit 44, a lifting frame 46, a swing hinge shaft 48, a swing support 49, and a return spring 51. The lifting base 43 is provided with a lifting slide 47, and the lifting drive unit 44 drives the lifting frame 46 to move up and down along the lifting slide 47. The upper end of the lifting frame 46 is connected to the swing support 49 via the swing hinge shaft 48. One side of the swing support 49 is connected to the lifting frame 46 via the return spring 51, and the other side of the swing support 49 is provided with a retaining arm 52 for supporting the bottommost stacked assembly 10. A counterweight 53 is also provided at the lower end of the retaining arm 52 of the swing support 49. A swing limit block 54 is provided on the opposite side of the return spring 51 connecting the lifting frame 46. An oblong hole 50 for temporary connection with the stacked assembly 10 is provided near the retaining arm 52 of the swing support 49.

[0058] The lifting base 43 is also equipped with a lifting limit block 45, and the lifting frame 46 is equipped with a lifting guide block. The lifting limit block 45 is located above the lifting guide block, and the lifting guide block rises and falls together with the lifting frame 46. When the upper end of the lifting guide block touches the lifting limit block 45 during the rising process, it can no longer rise further.

[0059] Fix the lifting base 43 to the ground or connect it to the foot assembly 9. Disconnect the bottommost stacked assembly 10 from the foot assembly 9. Connect the lower end of the bottommost stacked assembly 10 to the slot 50 of the swing bracket 49. Activate the lifting drive unit 44, which can be a lifting motor. Use the lifting drive unit 44 to lift the lifting frame 46 and the stacked assembly 10 connected to the lifting frame 46 via the swing bracket 49 to a target height, which is the height of the stacked assembly 10 to be installed. Install the stacked assembly 10 to be installed above the foot assembly 9 and connect it to the stacked assembly 10 at the upper end of the swing bracket 49, thus adding a layer of stacked assembly 10 to the support assembly 1. The temporary fixation between the swing support 49 and the stacking assembly 10 is released, and the lifting frame 46 is driven to descend by the lifting drive unit 44, so that the swing support 49 descends to the initial position. During the descent, the lower part of the card holder arm 52 contacts the connecting flange 20 of the support assembly 1 and swings upward. Then, when the initial position is reached, the swing support 49 returns to the horizontal state under the action of the return spring unit 51 and the counterweight block 53, realizing the automatic buffer reset of the swing support 49.

[0060] The lifting component 7 of this invention can achieve automatic lifting and resetting. Of course, it is mainly applicable to the installation of the stacked component 10. During disassembly, the swing support 49 can be lifted upward by manual means or other equipment to avoid obstruction, and then reset under the action of the reset spring 51 and the counterweight 53.

[0061] When it is necessary to raise the stacked components 10, each of the lifting components 7 can be raised simultaneously, or the stacked components 10 can be raised one by one. When raising them one by one, the connecting components 6 between the stacked components 10 need to be temporarily disconnected first.

[0062] Based on the same inventive concept, the present invention also proposes a method for using the above-mentioned structurally stable scaffolding component, comprising the following steps:

[0063] The foundation components 9 of the scaffolding assembly are constructed, allowing adjacent foundation components 9 to have different heights. During the construction process, supporting feet 14 are first installed on the foundation base 13, and then extended supporting legs 15 are installed on the supporting feet 14, thus prefabricating the foundation components 9. Then, according to the required installation locations of the scaffolding assembly, the foundation components 9 are distributed in the corresponding installation areas, and the connecting components 6 are used to connect the various foundation components 9 into a unified structure.

[0064] Several stacking components 10 are sequentially stacked and installed on top of the base component 9, so that adjacent stacking components 10 have different heights. In this step, the number of stacking components 10 is determined according to the target height of the scaffolding assembly. First, a layer of stacking components 10 is erected on top of each base component 9, and then the connecting flanges 20 of adjacent stacking components 10 are connected by connecting components 6, so that the layer of stacking components 10 is connected to several connecting components 6 to form a mesh structure.

[0065] Then, a second layer of stacking assembly 10 is stacked on top of the first layer of stacking assembly 10, and the second layer of stacking assembly 10 is connected by the connecting assembly 6. Then, a third layer of stacking assembly 10 is stacked, and so on, to complete the stacking of all the stacking assemblies 10, so that the stacking assemblies 10 and the connecting assembly 6 form a multi-layer mesh structure. Then, the top leveling assembly 11 is placed on top of the topmost stacking assembly 10.

[0066] In some embodiments, after the first layer of the stacking assembly 10 is installed, a top leveling component 11 is installed on the upper end of the first layer of the stacking assembly 10. Then, multiple lifting components 7 are installed on one side of the first layer of the stacking assembly 10. After the connecting components 6 of the first layer of the stacking assembly 10 are connected to form the first layer of the mesh structure, all the support components 1 formed by the first layer of the stacking assembly 10 are lifted simultaneously using multiple lifting components 7 to install the second layer of the stacking assembly 10 and the second layer of the connecting components 6. Again, all the support components 1 formed by the first layer of the stacking assembly 10 and the second layer of the stacking assembly 10 are lifted as a whole using multiple lifting components 7 to facilitate the installation of the third layer of the stacking assembly 10 and the third layer of the connecting components 6. The installation of all the stacking assemblies 10 of the support components 1 is completed in sequence. This method reduces the danger of working at heights with the stacking assembly 10.

[0067] The above are merely preferred embodiments of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions falling within the scope of the present invention's concept are within the scope of protection of the present invention. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of the present invention should also be considered within the scope of protection of the present invention.

Claims

1. A structurally stable scaffolding assembly, characterized in that, It includes multiple support components and multiple connecting components; the support components include base components and several stacked components stacked sequentially on top of the base components; the base components of adjacent support components have different heights, and the base components of adjacent support components are connected by several connecting components; the stacked components include splicing columns and multiple connecting flanges; the connecting flanges are horizontally arranged hexagonal flanges with six outer side walls; the splicing columns are erected, and the multiple connecting flanges are vertically spaced on the splicing columns; the stacked components of adjacent support components have different heights, and the multiple connecting flanges of adjacent stacked components are connected by connecting components to form a mesh structure; The connecting assembly includes a first connecting part, a second connecting part, and a fastening assembly; the first connecting part has a V-shaped connector at its end, and the V-shaped connector is connected to two adjacent outer sidewalls of the hexagonal flange through the fastening assembly; the second connecting part has a straight connector at its end, and the straight connector is connected to one outer sidewall of the hexagonal flange through the fastening assembly. The fastening assembly includes a fastening bracket, connecting bolt posts, and an outer insert; both the V-shaped connector and the straight connector have mating interfaces at their ends; each of the six outer sidewalls of the connecting flange has an inner groove; a portion of the outer insert is inserted into the mating interface, and another portion is inserted into the inner groove; the fastening bracket is fixedly connected to the connecting flange, and one or more connecting bolt posts are connected to the fastening bracket; the connecting bolt posts pass through the connecting flange and connect to the outer insert in the inner groove, or the connecting bolt posts pass through the first connecting part / second connecting part and connect to the outer insert in the mating interface; The fastening assembly further includes a nut and a spring; the nut is connected to the connecting bolt post and is located above the fastening bracket, and the spring is disposed between the nut and the fastening bracket and is fitted onto the connecting bolt post; The connecting flange, the first connecting part, the second connecting part, and the outer insert are each provided with mounting holes for the connecting bolt post to pass through from bottom to top; the fastening assembly also includes a slot block, the upper end of which is connected to the lower end of the connecting bolt post, the upper area of ​​which is smaller than the lower area, and the sidewall of which is provided with a guide slope; the slot block is inserted into the mounting hole from below the connecting flange, the first connecting part, or the second connecting part, and the upper end of which abuts against the outer insert to limit its vertical displacement; The scaffolding assembly also includes a lifting assembly; the lifting assembly is located on one side of the lowest stacked assembly; the lifting assembly includes a lifting base, a lifting drive unit, a lifting frame, a swing hinge shaft, a swing support, and a return spring; the lifting base is provided with a lifting slide, and the lifting drive unit drives the lifting frame to move up and down along the lifting slide; the upper end of the lifting frame is connected to the swing support through the swing hinge shaft, one side of the swing support is connected to the lifting frame through the return spring, and the other side of the swing support is provided with a bracket arm for supporting the lowest stacked assembly.

2. The structurally stable scaffolding assembly according to claim 1, characterized in that, The fastening assembly also includes a fastening band; the fastening band is inserted into the gap between the connecting bolt post and the mounting hole.

3. A structurally stable scaffolding assembly according to claim 1, characterized in that, The foot assembly includes a foot base, a supporting foot disposed on the foot base, and an extended supporting leg disposed at the upper end of the supporting foot; the extended supporting legs of adjacent foot assemblies have different lengths; the upper end of the extended supporting leg is connected to the stacking assembly.

4. A structurally stable scaffolding assembly according to claim 1, characterized in that, The support assembly also includes a transition sleeve, and the upper and lower ends of the splicing column are respectively provided with inner positioning stops, and the transition sleeve is inserted into the inner positioning stops.

5. A method of using a structurally stable scaffolding assembly as described in claim 1, characterized in that, Includes the following steps: The foundation components of the scaffolding assembly are constructed such that adjacent foundation components have different heights; Connect adjacent foot components using connecting components; Several stacked components are stacked sequentially on top of the base component, so that adjacent stacked components have different heights; Several connecting flanges of adjacent stacked components are connected by connecting components, so that the stacked components and connecting components form a mesh structure.

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