Fabricated steel structure intelligent building

Abstract

The utility model discloses an assembly type steel structure intelligent building which comprises a steel structure bottom frame and a steel structure top frame arranged above the steel structure bottom frame in parallel, and angle steel supporting frames A are connected to the outer portions of the two corners of the front end of the steel structure bottom frame and the outer portions of the two corners of the front end of the steel structure top frame. The outer portions of the two corners of the rear end of the steel structure bottom frame and the two corners of the rear end of the steel structure top frame are connected with angle steel supporting frames B. By additionally arranging a panel reinforcing anti-collision device between the centers of the left ends and the right ends of the front panel and the rear panel of the fabricated steel structure intelligent building, after adjustment is completed, longitudinal supporting can be formed between the front panel and the rear panel, and supporting can also be provided for the panels on the two sides; a traditional building panel is prone to deformation and falling off when impacted by external force, however, according to the device, the position of a reinforcing anti-collision supporting screw can be changed by adjusting a supporting force adjusting nut, the supporting force can be flexibly adjusted, the overall structural stability of a building can be enhanced, the side face anti-collision capacity can be improved, impact force can be effectively dispersed, panel deformation is reduced, and the panel and the angle steel supporting frame are prevented from falling off.

Description

Technical Field

[0001] This utility model belongs to the technical field of building engineering, specifically relating to a prefabricated steel structure intelligent building. Background Technology

[0002] With the rapid development of the construction industry, prefabricated steel structure intelligent buildings are gradually becoming a development trend in the construction field due to their numerous advantages such as high efficiency, environmental protection, and customizability. However, in practical applications, these buildings still face some problems, which are closely related to the research and development of panel reinforcement and impact-resistant devices. In prefabricated steel structure intelligent buildings, the stability of the connection between the various panels is crucial. As an important component of the building, the connection strength between the front and rear panels directly affects the overall stability and safety of the building. Traditional connection methods are often unable to cope with complex external environments and large external impacts. When subjected to wind, earthquake forces, or accidental impacts, the connection between the front and rear panels is prone to loosening, deformation, or even separation. This not only affects the normal use of the building but may also lead to serious safety accidents.

[0003] Meanwhile, the stability of building side panels under external forces is also a critical issue. As the protective structure on the sides of a building, the side panels need to withstand various forces from the sides. In existing building structural designs, the support and reinforcement measures for side panels are limited, making them prone to displacement and damage when subjected to impacts or large lateral forces, thus affecting the overall structural integrity of the building. Utility Model Content

[0004] The purpose of this utility model is to provide a prefabricated steel structure intelligent building to solve the problems mentioned in the background art, such as the traditional connection method between the front and rear panels of the building being prone to loosening, deformation or even separation under complex external force impacts, affecting the use and safety of the building, and the limited support and reinforcement of the side panels in the existing building structure, which makes the side panels prone to displacement and damage when subjected to impact or lateral force, affecting the integrity of the overall structure.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a prefabricated steel structure intelligent building, comprising a steel structure base frame and a steel structure top frame arranged parallel above the steel structure base frame. Angle steel support frames A are connected to the outer sides of the front two corners of both the steel structure base frame and the steel structure top frame. Angle steel support frames B are connected to the outer sides of the rear two corners of both the steel structure base frame and the steel structure top frame. A building front panel is connected between the rear inner walls of the two angle steel support frames A and B. A building rear panel is connected between the rear inner walls of the two angle steel support frames B. Building side panels A and B are respectively connected between the two angle steel support frames A and B. Building side panel A is located parallel to the left side of building side panel B. The building front panel, building side panel A, building rear panel, and building side panel B are respectively located around the steel structure base frame and the steel structure top frame. Panel reinforcement and anti-collision devices are connected between the center of the left and right ends of the building front panel and the building rear panel.

[0006] Preferably, the panel reinforcement and anti-collision device connecting the right ends of the front panel and the rear panel of the building includes a front panel fixing plate, a metal connecting cylinder, a rear panel fixing plate, a reinforcement and anti-collision support screw B, and a reinforcement and anti-collision support screw A. The reinforcement and anti-collision support screw A is inserted into the front side of the center of the metal connecting cylinder, and the reinforcement and anti-collision support screw B is inserted into the rear side of the center of the metal connecting cylinder. The front panel fixing plate is welded to the front end of the reinforcement and anti-collision support screw A, and the rear panel fixing plate is welded to the rear end of the reinforcement and anti-collision support screw B. The front panel fixing plate and the rear panel fixing plate are fixedly connected to the front panel and the rear panel of the building respectively by multiple screws.

[0007] Preferably, the panel reinforcement and impact-resistant device further includes a support force adjusting nut A and a support force adjusting nut B, which are respectively threaded onto the outside of the reinforcement and impact-resistant support screw A and the reinforcement and impact-resistant support screw B, and are located at the front end and rear end of the metal connecting cylinder, respectively. Both the reinforcement and impact-resistant support screw A and the reinforcement and impact-resistant support screw B can move back and forth inside the metal connecting cylinder.

[0008] Preferably, the panel reinforcement and impact-resistant device further includes a side panel fixing plate and a metal fixing sleeve. The front end of the reinforcement and impact-resistant support screw A and the rear end of the reinforcement and impact-resistant support screw B are both fitted with metal fixing sleeves, and the metal fixing sleeves are fixedly connected to the reinforcement and impact-resistant support screw A and the reinforcement and impact-resistant support screw B respectively by welding. The right end of each of the two metal fixing sleeves is welded with a side panel fixing plate, and the two side panel fixing plates are tightly attached to the inner wall of the left end of the building side panel B. The side panel fixing plates are fixedly connected to the building side panel B by multiple screws.

[0009] Preferably, when the support force adjusting nut A moves backward outside the reinforced impact-resistant support screw A, it can be pushed forward by the blocking effect of the metal connecting long cylinder. When the support force adjusting nut B moves forward outside the reinforced impact-resistant support screw B, it can be pushed backward by the blocking effect of the metal connecting long cylinder.

[0010] Preferably, the upper and lower ends of the angle steel support frame A and the angle steel support frame B are fixedly connected to the top frame and the bottom frame of the steel structure respectively by multiple screws, and the angle steel support frame A and the angle steel support frame B are fixed at a vertical angle to the top frame and the bottom frame of the steel structure.

[0011] Preferably, a double-layer building base plate is fixed inside the frame of the steel structure bottom frame, and the double-layer building base plate is flush with the outer wall of the top of the steel structure bottom frame. A double-layer building top plate is fixed inside the frame of the steel structure top frame, and the double-layer building top plate is flush with the outer wall of the bottom of the steel structure top frame.

[0012] Preferably, a glass window opening is provided on the right side of the center of the building's front panel. A transparent glass window is fixed inside the glass window opening, and the joint between the transparent glass window and the glass window opening is reinforced and densified with glass glue.

[0013] Preferably, an entrance door is provided on the left side of the center of the building's front panel. An aluminum alloy door frame is connected to the top and both sides of the entrance door. An exit door is provided inside the entrance door. The left end of the exit door is rotatably connected to the aluminum alloy door frame through multiple hinges.

[0014] Compared with the prior art, this utility model provides a prefabricated steel structure intelligent building, which has the following beneficial effects:

[0015] This invention incorporates a panel reinforcement and impact-resistant device at the center of the left and right ends of the front and rear panels of a building. Once adjusted, this device provides longitudinal support between the left and right ends of the front and rear panels, and also supports side panels A and B. In contrast, traditional building panels are prone to detachment from the angle steel support frame due to excessive deformation when subjected to external impact. The panel reinforcement and impact-resistant device, by adjusting the support force adjusting nut, can change the position of the reinforcement and impact-resistant support screw, thus flexibly adjusting the support force to adapt to different building stress requirements. Furthermore, the device provides longitudinal support between the front and rear panels, enhancing the overall structural stability of the building and supporting the side panels, improving their lateral impact resistance. When the building panels are impacted, it effectively disperses the impact force, reduces panel deformation, prevents the panels from detaching from the angle steel support frame, reduces the risk of building damage, extends the building's service life, ensures the safety of residents, and improves the safety and reliability of prefabricated steel structure intelligent buildings. Attached Figure Description

[0016] Figure 1 This is a cross-sectional three-dimensional structural diagram of a prefabricated steel structure intelligent building according to the present invention.

[0017] Figure 2 This is a schematic diagram of the external three-dimensional structure of a prefabricated steel structure intelligent building according to this utility model.

[0018] Figure 3 This is a front view schematic diagram of a prefabricated steel structure intelligent building according to the present invention.

[0019] Figure 4 This is a schematic three-dimensional structural diagram of the panel reinforcement and impact-resistant device of this utility model.

[0020] Figure 5 This is a three-dimensional disassembly diagram of the panel reinforcement and impact-resistant device of this utility model.

[0021] Figure 6 This is a schematic diagram of the connection between the panel reinforcement and impact-resistant device of this utility model and the building panel.

[0022] In the diagram: 1. Angle steel support frame A; 2. Steel structure bottom frame; 3. Pre-reserved opening for glass window; 4. Transparent glass window; 5. Front panel of building; 6. Pre-reserved opening for entrance door; 7. Doorway; 8. Side panel of building A; 9. Panel reinforcement and anti-collision device; 10. Rear panel of building; 11. Side panel of building B; 12. Angle steel support frame B; 13. Top frame of steel structure; 14. Double-layer roof slab of building; 15. Front panel fixing plate; 16. Support force adjusting nut A; 17. Metal connecting cylinder; 18. Support force adjusting nut B; 19. Rear panel fixing plate; 20. Side panel fixing plate; 21. Metal fixing sleeve; 22. Reinforced anti-collision support screw B; 23. Reinforced anti-collision support screw A. Detailed Implementation

[0023] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0024] This utility model provides, for example Figure 1-6The prefabricated steel structure intelligent building shown includes a steel structure base frame 2 and a steel structure top frame 13 arranged parallel above the steel structure base frame 2. Angle steel support frames A1 are externally connected to the front two corners of both the steel structure base frame 2 and the steel structure top frame 13, and angle steel support frames B12 are externally connected to the rear two corners of both the steel structure base frame 2 and the steel structure top frame 13. The upper and lower ends of angle steel support frames A1 and B12 are fixedly connected to the steel structure top frame 13 and the steel structure base frame 2 respectively by multiple screws. Furthermore, angle steel support frames A1 and B12 are connected to the steel structure top frame 13 and the steel structure base frame 2. The bottom frame 2 of the structure is fixed at a vertical angle. Angle steel support frames A1 and B12 are connected to the front and rear corners of the bottom frame 2 and the top frame 13 of the steel structure, respectively. Their role is crucial. Tightly fixed with screws and maintaining a vertical angle, they provide a stable support system for the entire building structure. This not only enhances the connection strength between the bottom frame 2 and the top frame, ensuring the stability of the building frame in the vertical and horizontal directions, but also effectively distributes various loads borne by the building, including its own weight, wind force, and seismic force, ensuring the building's stability under different environmental conditions. For safety, a front panel 5 is connected between the front and rear inner walls of two angle steel support frames A1, and a rear panel 10 is connected between the rear and front inner walls of two angle steel support frames B12. Side panels A8 and B11 are connected between the two angle steel support frames A1 and B12 respectively, with side panel A8 located parallel to the left of side panel B11. The front panel 5, side panel A8, rear panel 10, and side panel B11 are located around the steel structure bottom frame 2 and the steel structure top frame 13, respectively. The steel structure bottom frame 2... The frame contains a double-layered building base plate, which is flush with the top outer wall of the steel structure bottom frame 2. The steel structure top frame 13 contains a double-layered building top plate 14, which is flush with the bottom outer wall of the steel structure top frame 13. The double-layered structure design greatly improves the building's load-bearing capacity, enabling it to withstand greater weight and meet the load-bearing requirements of different functional spaces. At the same time, the flat double-layered base plate and top plate provide a good foundation for interior decoration and equipment installation, facilitating the laying of floor materials, installation of ceilings, etc., and improving the usability and aesthetics of the building's interior space.

[0025] like Figure 1 , Figure 2 and Figure 3As shown, a glass window opening 3 is provided on the right side of the center of the building's front panel 5. A transparent glass window 4 is fixed inside the glass window opening 3, and the joint between the transparent glass window 4 and the glass window opening 3 is reinforced and sealed with glass glue. The glass glue effectively enhances the window's sealing and waterproofing, preventing rainwater leakage and air infiltration, creating a comfortable and dry indoor environment. At the same time, the transparent glass window 4 ensures sufficient indoor lighting, improving the brightness and comfort of the interior. An entrance door opening 6 is provided on the left side of the center of the building's front panel 5. The top and both ends of the entrance door opening 6 are connected to... The aluminum alloy door frame houses the entrance door opening 6, which contains an exit door 7. The left end of the exit door 7 is connected to the aluminum alloy door frame via multiple hinges. The aluminum alloy door frame is not only sturdy and durable, protecting and decorating the entrance opening, but also provides a stable installation base for the exit door 7. The hinge connection allows the exit door 7 to open and close flexibly, facilitating entry and exit for personnel and meeting daily usage needs. It also ensures smooth door opening and closing, enhancing the user experience. This prefabricated steel structure intelligent building is constructed using a modular and standardized design concept. Angle steel support frames A1 and B12 are used to support the steel structure base frame. 2. The four corners of the steel structure top frame 13 are securely connected using screws and kept perpendicular, giving the entire building frame structure a stable spatial geometry and providing a reliable foundation for the installation of subsequent building components. The double-layer building base plate and double-layer building top plate 14 are respectively fixed inside the steel structure base frame 2 and the steel structure top frame 13, and are flush with the corresponding outer walls of the frames. This not only enhances the building's load-bearing capacity but also provides a flat base and top surface for the interior space, facilitating subsequent decoration and use. Regarding the installation of the enclosure structure, the front panel 5, side panel A8, rear panel 10, and side panel B... 11 are installed around the steel structure bottom frame 2 and the steel structure top frame 13 respectively, forming a closed building space. This prefabricated installation method simplifies the construction process and improves construction efficiency. For the installation of doors and windows, glass window reserved openings 3 and entrance door reserved openings 6 are reserved on the front panel 5 of the building. Transparent glass windows 4 and door openings 7 are installed respectively. The transparent glass windows 4 are reinforced and densified at the joint with the reserved opening with glass glue to ensure sealing and waterproofing. The door openings 7 are connected to the aluminum alloy door frame by hinges to realize flexible opening and closing functions, meeting the building's lighting, ventilation and personnel access needs.

[0026] like Figure 1 , Figure 4 , Figure 5 and Figure 6As shown, a panel reinforcement and anti-collision device 9 is connected between the center of each end of the front panel 5 and the rear panel 10 of the building. The panel reinforcement and anti-collision device 9 connecting the right end of the front panel 5 and the rear panel 10 includes a front panel fixing plate 15, a metal connecting cylinder 17, a rear panel fixing plate 19, a reinforcement and anti-collision support screw B22, and a reinforcement and anti-collision support screw A23. The reinforcement and anti-collision support screw A23 is inserted into the front side of the center of the metal connecting cylinder 17, and the reinforcement and anti-collision support screw B22 is inserted into the rear side of the center of the metal connecting cylinder 17. The front panel fixing plate 15 is welded to the front end of the reinforcement and anti-collision support screw A23, and the rear panel fixing plate 19 is welded to the rear end of the reinforcement and anti-collision support screw B22. Both the front panel fixing plate 15 and the rear panel fixing plate 19 are fixedly connected to the front panel 5 and the rear panel 10 of the building respectively by multiple screws. This ensures that the entire device is reliably connected to the main structure of the building. Rod A23 and reinforced impact-resistant support screw B22 are welded to the front panel fixing plate 15 and the rear panel fixing plate 19, respectively. The reinforced impact-resistant support screw A23 and reinforced impact-resistant support screw B22 are inserted into the front and rear sides of the metal connecting cylinder 17. This connection method forms a stable force transmission path, enabling effective force transmission and support between the front panel 5 and the rear panel 10 of the building through this device. The panel reinforcement and impact-resistant device 9 also includes a support force adjusting nut A16 and a support force adjusting nut B18. The support force adjusting nut A16 and the support force adjusting nut B18 are threaded onto the outside of the reinforced impact-resistant support screw A23 and the reinforced impact-resistant support screw B22, respectively. The support force adjusting nut A16 and the support force adjusting nut B18 are located at the front and rear ends of the metal connecting cylinder 17, respectively. Both the reinforced impact-resistant support screw A23 and the reinforced impact-resistant support screw B22 can move back and forth inside the metal connecting cylinder 17.

[0027] like Figure 1 , Figure 4 , Figure 5 and Figure 6As shown, the panel reinforcement and impact-resistant device 9 also includes a side panel fixing plate 20 and a metal fixing sleeve 21. The front end of the reinforcement and impact-resistant support screw A23 and the rear end of the reinforcement and impact-resistant support screw B22 are both fitted with metal fixing sleeves 21. The metal fixing sleeves 21 are fixedly connected to the reinforcement and impact-resistant support screw A23 and the reinforcement and impact-resistant support screw B22 by welding, respectively. The right end of each of the two metal fixing sleeves 21 is welded with a side panel fixing plate 20, and the two side panel fixing plates 20 are tightly attached to the inner wall of the left end of the building side panel B11. The side panel fixing plates 20 are fixedly connected to the building side panel B11 by multiple screws. This allows the panel reinforcement and impact-resistant device 9 to provide longitudinal support for the front panel 5 and the rear panel 10 of the building, while also providing lateral support for the building side panel B11. When the building is impacted by external forces, this lateral support can effectively restrain the deformation of the building side panel B11, preventing it from shifting or being damaged due to excessive force, and further enhancing the stability and impact resistance of the overall building structure.

[0028] like Figure 1 , Figure 4 , Figure 5 and Figure 6 As shown, when the support force adjusting nut A16 moves backward outside the reinforced impact-resistant support screw A23, it can push the reinforced impact-resistant support screw A23 forward through the blocking effect of the metal connecting long cylinder 17. When the support force adjusting nut B18 moves forward outside the reinforced impact-resistant support screw B22, it can push the reinforced impact-resistant support screw B22 backward through the blocking effect of the metal connecting long cylinder 17. In this way, the support force of the reinforced impact-resistant support screws A23 and B22 on the front panel 5 and the rear panel 10 of the building can be flexibly adjusted according to actual needs to adapt to the stress requirements under different building structures and usage scenarios. The entire panel reinforcement and impact-resistant device 9 is connected by the front panel fixing plate 15 and the metal connecting long cylinder 17. 7. The cooperation of the rear panel fixing plate 19 and the reinforcing and impact-resistant support screws A23 and B reliably connects the front panel 5 and the rear panel 10 of the building, improving the connection strength between the two and ensuring the overall structural stability of the building. The support force adjusting nuts A16 and B can adjust the support force of the reinforcing and impact-resistant support screws A23 and B respectively. According to actual needs and the external forces on the building, the support force between the front panel 5 and the rear panel can be flexibly adjusted to adapt to different usage scenarios and stress requirements. The device forms lateral support for the side panel B11 of the building through the side panel fixing plate 20 and the metal fixing sleeve 21, preventing it from being displaced or damaged when subjected to external impact, further enhancing the impact resistance of the overall building structure and ensuring the safety of the building.

[0029] Finally, it should be noted that the above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Although the present utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A prefabricated steel structure intelligent building, comprising a steel structure base frame (2) and a steel structure top frame (13) arranged parallel above the steel structure base frame (2), wherein angle steel support frames A (1) are externally connected to the front two corners of the steel structure base frame (2) and the steel structure top frame (13), and angle steel support frames B (12) are externally connected to the rear two corners of the steel structure base frame (2) and the steel structure top frame (13), characterized in that: A building front panel (5) is connected between the front and rear inner walls of the two angle steel support frames A (1), and a building rear panel (10) is connected between the rear and front inner walls of the two angle steel support frames B (12). Building side panels A (8) and B (11) are respectively connected between the two angle steel support frames A (1) and the two angle steel support frames B (12). The building side panel A (8) is located on the left side parallel to the building side panel B (11). The building front panel (5), building side panel A (8), building rear panel (10) and building side panel B (11) are respectively located between the bottom frame (2) of the steel structure and the top frame (13) of the steel structure. A panel reinforcement and anti-collision device (9) is connected between the center of the left and right ends of the building front panel (5) and the building rear panel (10). The panel reinforcement and anti-collision device (9) connecting the right end of the front panel (5) and the rear panel (10) of the building includes a front panel fixing plate (15), a metal connecting cylinder (17), a rear panel fixing plate (19), a reinforcement and anti-collision support screw B (22) and a reinforcement and anti-collision support screw A (23). The reinforcement and anti-collision support screw A (23) is inserted into the front side of the center of the metal connecting cylinder (17), and the reinforcement and anti-collision support screw B (22) is inserted into the rear side of the center of the metal connecting cylinder (17). The front panel fixing plate (15) is welded to the front end of the reinforcement and anti-collision support screw A (23), and the rear panel fixing plate (19) is welded to the rear end of the reinforcement and anti-collision support screw B (22). The front panel fixing plate (15) and the rear panel fixing plate (19) are fixedly connected to the front panel (5) and the rear panel (10) of the building respectively by multiple screws.

2. The prefabricated steel structure intelligent building according to claim 1, characterized in that: The panel reinforcement and anti-collision device (9) also includes a support force adjusting nut A (16) and a support force adjusting nut B (18). The support force adjusting nut A (16) and the support force adjusting nut B (18) are respectively threaded onto the outside of the reinforcement and anti-collision support screw A (23) and the reinforcement and anti-collision support screw B (22). The support force adjusting nut A (16) and the support force adjusting nut B (18) are respectively located at the front end and the rear end of the metal connecting cylinder (17). The reinforcement and anti-collision support screw A (23) and the reinforcement and anti-collision support screw B (22) can move back and forth inside the metal connecting cylinder (17).

3. A prefabricated steel structure intelligent building according to claim 2, characterized in that: The panel reinforcement and anti-collision device (9) also includes a side panel fixing plate (20) and a metal fixing sleeve (21). The front end of the reinforcement and anti-collision support screw A (23) and the rear end of the reinforcement and anti-collision support screw B (22) are both fitted with metal fixing sleeves (21). The metal fixing sleeves (21) are fixedly connected to the reinforcement and anti-collision support screw A (23) and the reinforcement and anti-collision support screw B (22) respectively by welding. The right end of the two metal fixing sleeves (21) is welded with a side panel fixing plate (20). The two side panel fixing plates (20) are tightly attached to the inner wall of the left end of the building side panel B (11). The side panel fixing plates (20) are fixedly connected to the building side panel B (11) by multiple screws.

4. A prefabricated steel structure intelligent building according to claim 3, characterized in that: When the support force adjusting nut A (16) moves backward outside the reinforced anti-collision support screw A (23), it can push the reinforced anti-collision support screw A (23) forward through the blocking effect of the metal connecting long cylinder (17). When the support force adjusting nut B (18) moves forward outside the reinforced anti-collision support screw B (22), it can push the reinforced anti-collision support screw B (22) backward through the blocking effect of the metal connecting long cylinder (17).

5. A prefabricated steel structure intelligent building according to claim 1, characterized in that: The angle steel support frame A (1) and angle steel support frame B (12) are fixedly connected to the top frame (13) and bottom frame (2) of the steel structure respectively by multiple screws at both ends, and the angle steel support frame A (1) and angle steel support frame B (12) are fixed at a vertical angle to the top frame (13) and bottom frame (2) of the steel structure respectively.

6. A prefabricated steel structure intelligent building according to claim 5, characterized in that: The steel structure bottom frame (2) has a double-layer building base plate fixed inside the frame, and the double-layer building base plate is flush with the top outer wall of the steel structure bottom frame (2). The steel structure top frame (13) has a double-layer building top plate (14) fixed inside the frame, and the double-layer building top plate (14) is flush with the bottom outer wall of the steel structure top frame (13).

7. A prefabricated steel structure intelligent building according to claim 1, characterized in that: A glass window opening (3) is provided on the right side of the center of the building front panel (5). A transparent glass window (4) is fixed inside the glass window opening (3), and the joint between the transparent glass window (4) and the glass window opening (3) is reinforced and densified with glass glue.

8. A prefabricated steel structure intelligent building according to claim 7, characterized in that: An entrance door reserved opening (6) is provided on the left side of the center of the front panel (5) of the building. An aluminum alloy door frame is connected to the top and left and right ends of the entrance door reserved opening (6). An exit door (7) is provided inside the entrance door reserved opening (6). The left end of the exit door (7) is rotatably connected to the aluminum alloy door frame through multiple hinges.

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