Oversized hyperbolic unit type glass curtain wall based on BIM (Building Information Modeling) technology

Abstract

The invention discloses an oversized hyperbolic unit type glass curtain wall based on a BIM technology, and relates to the related field of glass curtain walls. The unit type structure with the multiple layers of outer glass, the inner steel keel and the outer steel keel cooperatively stressed serves as a core, multi-point connection and a graded force transmission path are formed through the upper supporting structure, the lower supporting structure and the middle connecting, fixing and stabilizing mechanism, and all the layers of glass are reliably supported in the vertical direction, the transverse direction and the in-plane direction; concentrated stress generated by the super-large double-curved-surface curtain wall under the action of self weight, wind load and temperature difference can be effectively dispersed, and the risks of glass breakage and node fatigue are reduced; meanwhile, a multi-stage hanging and lifting structure is matched with a waterproof and drainage structure, so that the structural stability and the sealing performance are synchronously improved, the hidden danger of leakage is reduced, the method is suitable for being applied to high-rise and large-span complex curved surface buildings, and three-dimensional collaborative design and construction simulation are carried out with the assistance of the BIM technology; and the curved glass partitioning, keel positioning and node assembly relation can be checked and optimized in advance.

Description

A super-large hyperbolic unitized glass curtain wall based on BIM technology Technical Field

[0001] This invention relates to the field of glass curtain walls, and in particular to an ultra-large hyperbolic unitized glass curtain wall based on BIM technology. Background Technology

[0002] As urban architectural designs evolve towards complex curved surfaces and ultra-large scales, hyperboloid and free-form glass curtain walls are increasingly being used in commercial complexes, transportation hubs, and public cultural buildings. These curtain walls typically employ large-size glass units combined with spatial steel keels, placing higher demands on component processing precision, node connection strength, and overall stress coordination. Especially under ultra-large hyperboloid structures, the glass segmentation is diverse, the keel spatial positioning is complex, and the connection structure has multiple layers, making construction and installation significantly more difficult than conventional curtain wall systems.

[0003] In existing technologies, some curtain wall structures still rely on single or simplified support and connection methods, resulting in an unreasonable stress path and a tendency for stress concentration at local nodes, affecting glass safety and structural durability. Meanwhile, traditional construction methods relying on two-dimensional drawings and on-site layout cannot accurately reflect the true spatial form of hyperbolic surfaces. Assembly errors and node conflicts easily occur between components, leading to repeated on-site adjustments. This not only increases construction time and costs but also raises the risk of inconsistent waterproofing node treatment and subsequent leakage. Although some projects have begun to introduce BIM technology for design assistance, it is mostly limited to visualization or simple layout guidance and has not yet been deeply integrated with the curtain wall structure node design and unit assembly system, making it difficult to fully leverage its technical advantages in the refined design and construction coordination of complex curved curtain walls. Summary of the Invention

[0004] Therefore, in order to overcome the above-mentioned shortcomings, the present invention provides an ultra-large hyperbolic unitized glass curtain wall based on BIM technology.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a super-large hyperbolic unitized glass curtain wall based on BIM technology, comprising a first outer glass layer, a second outer glass layer, and a third outer glass layer, arranged in three groups from top to bottom. The backs of these three layers are connected to an outer steel keel. An upper support structure and a lower support structure are installed on the upper end of the back of the outer steel keel, and their backs are connected to an inner steel keel via a steel frame. The back of the inner steel keel is connected to a steel structure. Four sets of connecting structures are installed from top to bottom inside the outer steel keel, connecting the first outer glass layer, the second outer glass layer, and the third outer glass layer. The back-side connection structure is used for support. The first outer glass and the second outer glass are connected by a fixing structure. The back of the fixing structure is connected to a bracket through a support mechanism. The back of the bracket is connected to an inner steel keel. The lower end of the front face of the bracket is connected to an outer steel keel through a connecting structure. A stabilizing mechanism is installed at the lower inner end of the outer steel keel. The back of the stabilizing mechanism is connected to the inner steel keel through a bracket. A connector for connecting the outer steel keel is installed below the stabilizing mechanism. A connecting mechanism is installed at the lower end of the outer steel keel. The back of the connecting mechanism is fixed to the inner steel keel through a base frame.

[0006] Preferably, the upper support structure includes a first aluminum alloy bracket connecting to the steel frame, a base plate at the bottom of the first aluminum alloy bracket, a bracket installed at the left end of the first aluminum alloy bracket, a connector on the left side of the bracket, an aluminum alloy horizontal frame installed at the top of the connector, a first aluminum alloy sub-frame connecting the left end of the aluminum alloy horizontal frame, a first waterproof membrane at the top right end of the first aluminum alloy sub-frame, and a first galvanized angle steel installed at the other end of the first waterproof membrane. The upper end of the first waterproof membrane is connected to the inner steel keel through the first galvanized angle steel, and the connector is connected to the outer steel keel by bolts. The left end of the first aluminum alloy sub-frame is attached to the top of the first outer glass layer.

[0007] Preferably, the lower support structure includes a fixing member connecting the outer steel keel, a connecting support member connecting the right end of the fixing member, a fixing connector located at the right end of the support member, a base plate installed at the right end of the fixing connector, a steel base plate locked to the bottom of the base plate, and a first galvanized channel steel and a second galvanized channel steel located at the right end of the steel base plate. The other ends of the first galvanized channel steel and the second galvanized channel steel are both connected to the front end steel frame of the inner steel keel.

[0008] Preferably, the lower support structure and the connecting structure have the same structure.

[0009] Preferably, the connecting structure includes an aluminum alloy column disposed inside the outer steel keel, a steel keel core installed in the middle of the aluminum alloy column, a second aluminum alloy sub-frame disposed at the upper and lower positions of the left end of the aluminum alloy column, an aluminum alloy pressure plate connecting the left ends of the two sets of second aluminum alloy sub-frames, and an aluminum alloy pressure plate assembly disposed at the bottom of the upper aluminum alloy pressure plate. The right end of the steel keel core is fixed to the aluminum alloy column by bolts, and the left end is locked to the second aluminum alloy sub-frame by bolts. The upper and lower aluminum alloy pressure plates are respectively connected to the upper and lower sets of outer glass.

[0010] Preferably, the fixing structure includes a first aluminum alloy upper horizontal frame, a first aluminum alloy water tank bracket located at the lower end of the first aluminum alloy upper horizontal frame, a first aluminum alloy lower horizontal frame connected to the upper end of the first aluminum alloy upper horizontal frame, and a third aluminum alloy sub-frame located at the upper and lower left ends of the first aluminum alloy upper horizontal frame. The left end of the third aluminum alloy sub-frame is connected to an outer steel keel, and the right side of the first aluminum alloy upper horizontal frame is connected to a support mechanism.

[0011] Preferably, the support mechanism has the same structure as the first aluminum alloy mounting bracket, the base plate, and the card holder.

[0012] Preferably, the stabilizing mechanism includes a second aluminum alloy bracket connecting the bracket, an aluminum alloy bracket located at the left end of the second aluminum alloy bracket, and a lifting member locked to the left end of the aluminum alloy bracket. The top of the lifting member is connected to another set of fixing structures, the left end of which is connected to an outer steel keel. The left end of the lifting member is fixed to the outer steel keel by bolts.

[0013] Preferably, the bottom connecting mechanism includes a galvanized steel bracket, the lower end of which is fixedly connected to the base frame by bolts. The upper end of the galvanized steel bracket is bolted to the second aluminum alloy upper horizontal frame. A second aluminum alloy water tank bracket is provided at the lower end of the second aluminum alloy upper horizontal frame. A second aluminum alloy lower horizontal frame is embedded and locked at the upper end of the second aluminum alloy upper horizontal frame. A top plate is fixed at the top of the second aluminum alloy lower horizontal frame. A set of fourth aluminum alloy sub-frames is locked at the upper and lower positions of one end of the second aluminum alloy lower horizontal frame. The fourth aluminum alloy sub-frames are connected to the bottom of the third outer glass. A stabilizing component is provided at the bottom of the fourth aluminum alloy sub-frames. The stabilizing component is connected to the second waterproof membrane by aluminum angle brackets. The other end of the second waterproof membrane is connected to a second galvanized angle steel to form a bottom waterproof sealing structure.

[0014] The beneficial effects of this invention are:

[0015] This invention centers on a unitized structure where multi-layered outer glass and inner and outer steel keels work together to bear loads. Through upper and lower support structures and a central connection, fixing, and stabilizing mechanism, it forms multi-point connections and graded force transmission paths, ensuring reliable support for each layer of glass in the vertical, horizontal, and in-plane directions. This effectively disperses concentrated stresses generated by the self-weight, wind load, and temperature differences of the ultra-large hyperboloid curtain wall, reducing the risk of glass breakage and joint fatigue. Simultaneously, the multi-level hanging and supporting structure, combined with waterproofing and drainage features, simultaneously improves structural stability and sealing performance, reducing leakage risks. Suitable for high-rise and large-span complex curved building applications, this invention utilizes BIM technology for three-dimensional collaborative design and construction simulation. This allows for advance verification and optimization of curved glass segmentation, keel positioning, and joint assembly relationships, reducing on-site adjustments and rework, and improving component prefabrication accuracy and overall assembly efficiency. Attached Figure Description

[0016] Figure 1 is a schematic diagram of the main structure of the present invention;

[0017] Figure 2 is a schematic cross-sectional view of the present invention;

[0018] Figure 3 is a schematic diagram of the upper support structure of the present invention;

[0019] Figure 4 is a schematic diagram of the lower support structure of the present invention;

[0020] Figure 5 is a schematic diagram of the connection structure of the present invention;

[0021] Figure 6 is a schematic diagram of the fixing structure of the present invention;

[0022] Figure 7 is a schematic diagram of the stabilizing mechanism of the present invention;

[0023] Figure 8 is a schematic diagram of the bottom connecting mechanism of the present invention;

[0024] Figure 9 is a three-dimensional structural schematic diagram of the present invention.

[0025] Among them: First outer glass layer-1, Second outer glass layer-2, Third outer glass layer-3, Outer steel keel-4, Upper support structure-5, Lower support structure-6, Connecting structure-7, Inner steel keel-8, Steel structure-9, Fixing structure-10, Supporting mechanism-11, Connecting structure-12, Bracket-13, Stabilizing mechanism-14, Connector-15, Bracket-16, Bottom connecting mechanism-17, Base frame-18, First aluminum alloy hanging bracket-51, Base plate-52, Card seat-53, Connector-54, First aluminum alloy sub-frame-55, Aluminum alloy horizontal frame-56, First waterproof membrane-57, First galvanized angle steel-58, Fixing component-61, Connecting support component-62, Fixing connecting component-63, Base plate-64, Steel base plate-65, First galvanized Channel steel-66, second galvanized channel steel-67, aluminum alloy column-71, steel keel core-72, second aluminum alloy sub-frame-73, aluminum alloy pressure plate-74, aluminum alloy pressure plate assembly-75, first aluminum alloy upper horizontal frame-101, first aluminum alloy water tank bracket-102, first aluminum alloy lower horizontal frame-103, third aluminum alloy sub-frame-104, second aluminum alloy hanging bracket-141, aluminum alloy bracket-142, lifting component-143, galvanized steel bracket-171, second aluminum alloy upper horizontal frame-172, second aluminum alloy water tank bracket-173, second aluminum alloy lower horizontal frame-174, top plate-175, fourth aluminum alloy sub-frame-176, stabilizing component-177, aluminum angle bracket-178, second waterproof membrane-179, second galvanized angle steel-1710. Detailed Implementation

[0026] To further explain the technical solution of the present invention, a detailed description is provided below through specific embodiments.

[0027] Please refer to Figures 1-2 and 9. This invention provides an ultra-large hyperbolic unitized glass curtain wall based on BIM technology, including a first outer glass layer 1, a second outer glass layer 2, and a third outer glass layer 3, distributed from top to bottom. The backs of all three are connected to an outer steel keel 4. An upper support structure 5 and a lower support structure 6 are provided at the upper end of the back of the outer steel keel 4. The backs of these two structures are connected to an inner steel keel 8 via a steel frame. The back of the inner steel keel 8 is installed at the front end of a steel structure 9. Connecting structures 7 are installed inside the outer steel keel 4 from top to bottom. The upper two sets of connecting structures 7 connect to the back of the first outer glass layer 1, and the lower two sets of connecting structures 7 connect to the backs of the second outer glass layer 2 and the third outer glass layer 3, respectively. A fixed... Fixed structure 10 is used to connect the first outer glass layer 1 and the second outer glass layer 2. The back of fixed structure 10 is connected to bracket 13 through support mechanism 11. Bracket 13 is fixed to the front end of inner steel keel 8. The lower end of the front end face of inner steel keel 8 is connected to outer steel keel 4 through connecting structure 12. A stabilizing mechanism 14 is installed at the lower end of outer steel keel 4. Stabilizing mechanism 14 is used to connect the second outer glass layer 2 and the third outer glass layer 3. The rear end of stabilizing mechanism 14 is connected to inner steel keel 8 through bracket 16. A connector 15 is installed at the lower end of outer steel keel 4, below stabilizing mechanism 14. A bottom connecting mechanism 17 is installed at the lower end of outer steel keel 3. The back of bottom connecting mechanism 17 is connected to inner steel keel 8 through base frame 18.

[0028] Please refer to Figure 3. The upper support structure 5 includes a first aluminum alloy bracket 51 connecting the steel frame. The two ends of the first aluminum alloy bracket 51 are connected to the base plate 52 by bolts. The left end of the first aluminum alloy bracket 51 is fixed to the card seat 53 by bolts. The left end of the card seat 53 is locked with a connector 54 by two sets of bolts. The top of the connector 54 is locked with an aluminum alloy horizontal frame 56. The left end of the aluminum alloy horizontal frame 56 is locked with a first aluminum alloy sub-frame 55. The top two ends of the aluminum alloy horizontal frame 56 are each locked with a first waterproof membrane 57. The upper end of the first waterproof membrane 57 is connected to the inner steel keel 8 by a first galvanized angle steel 58. The connector 54 is connected to the outer steel keel 4 by bolts. The left end of the first aluminum alloy sub-frame 55 is attached to the top of the first outer glass 1.

[0029] Please refer to Figure 4. The lower support structure 6 is the same as the connecting structure 12. The lower support structure 6 includes a fixing member 61 whose front end is locked to the outer steel keel. The upper ends of the back of the fixing member 61 are connected to the support member 62 and the fixing connector 63 for locking. The lower end of the back of the fixing connector 63 is inserted into the upper end of the base plate 64. A steel base plate 65 is locked to the bottom of the base plate 64. A first galvanized channel steel 66 and a second galvanized channel steel 67 are welded to the middle and rear ends of the steel base plate 65. The other ends of the first galvanized channel steel 66 and the second galvanized channel steel 67 are welded and fixed to the front steel frame of the inner steel keel 8.

[0030] Please refer to Figure 5. The connecting structure 7 includes an aluminum alloy column 71 located inside the outer steel keel 4. A steel keel core 72 is provided in the middle of the aluminum alloy column 71. The right end of the steel keel core 72 is fixed to the aluminum alloy column 71 by bolts, and the left end is locked with a second aluminum alloy sub-frame 73 by bolts. The left end of the second aluminum alloy sub-frame 73 is connected to the aluminum alloy column 71. Aluminum alloy pressure plates 74 are fixed at the upper and lower ends of the left side of the second aluminum alloy sub-frame 73. An aluminum alloy pressure plate assembly 75 is fixed at the bottom of the upper aluminum alloy pressure plate 74. The upper and lower aluminum alloy pressure plates 74 are respectively connected to the upper and lower sets of outer glass.

[0031] Please refer to Figure 6. The fixing structure 10 includes a first aluminum alloy upper horizontal frame 101. A first aluminum alloy water tank bracket 102 is installed at the lower end of the first aluminum alloy upper horizontal frame 101. A first aluminum alloy lower horizontal frame 103 is locked into the top of the first aluminum alloy upper horizontal frame 101. A set of third aluminum alloy sub-frames 104 are locked into the upper and lower positions of the left end of the first aluminum alloy lower horizontal frame 103. The left end of the third aluminum alloy sub-frames 104 is connected to the outer steel keel 4. The right side of the first aluminum alloy upper horizontal frame 101 is connected to the support mechanism 11. The support mechanism 11 has the same structure as the first aluminum alloy hanging bracket 51, the base plate 52 and the card seat 53.

[0032] Please refer to Figure 7. The stabilizing mechanism 14 includes a second aluminum alloy bracket 141 bolted to the bracket 16. An aluminum alloy bracket 142 is locked to the left side of the second aluminum alloy bracket 141. The left end of the aluminum alloy bracket 142 is locked to the lifting member 143 by bolts. Another set of fixing structures 10 is connected to the top of the lifting member 143. The left end of the fixing structure 10 is connected to the outer steel keel 4. The left end of the lifting member 143 is fixed to the outer steel keel 4 by bolts.

[0033] Please refer to Figure 8. The bottom connecting mechanism 17 includes a galvanized steel bracket 171. The lower end of the galvanized steel bracket 171 is fixed to the base frame 18 by bolts. The upper end of the galvanized steel bracket 171 is bolted to the second aluminum alloy upper horizontal frame 172. The lower end of the second aluminum alloy upper horizontal frame 172 is provided with a second aluminum alloy water tank bracket 173. The upper end of the second aluminum alloy upper horizontal frame 172 is embedded and locked with a second aluminum alloy lower horizontal frame 174. The top plate 175 is fixed to the top of the second aluminum alloy lower horizontal frame 174. A set of fourth aluminum alloy sub-frames 176 are locked in at the upper and lower positions on the left side of the second aluminum alloy lower horizontal frame 174. The left end of the fourth aluminum alloy sub-frame 176 is connected to the bottom of the third outer glass 3. A stabilizing component 177 is installed at the bottom left end of the fourth aluminum alloy sub-frame 176. The bottom of the stabilizing component 177 is connected to the second waterproof membrane 179 through an aluminum angle bracket 178. The other end of the second waterproof membrane 179 is connected to the second galvanized angle steel 1710.

[0034] The specific implementation process is as follows:

[0035] First, an inner steel keel 8 is installed at the front end of the steel structure 9, and the first galvanized channel steel 66 and the second galvanized channel steel 67 are fixed to the front steel frame of the inner steel keel 8 by welding to form a stable main load-bearing frame. Then, an upper support structure 5 and a lower support structure 6 are installed at the upper and lower ends of the back of the outer steel keel 4, respectively. The upper support structure 5 consists of a first aluminum alloy bracket 51, a base plate 52, a bracket 53, a connector 54, an aluminum alloy horizontal frame 56, a first aluminum alloy sub-frame 55, a first waterproof membrane 57, and a first galvanized angle steel 58 connected in sequence and fixed to the outer steel keel 4 and the inner steel keel 8. The lower support structure 6 consists of a fixing component 61, a supporting component 62, a fixing connector 63, a base plate 64, a steel base plate 65, a first galvanized channel steel 66, and a second galvanized channel steel 67, and is welded to the inner steel keel 8. At the same time, a connecting element is installed from top to bottom inside the outer steel keel 4. The connecting structure 7 includes an aluminum alloy column 71, a steel keel core 72, a second aluminum alloy sub-frame 73, an aluminum alloy pressure plate 74, and an aluminum alloy pressure plate assembly 75, forming a vertical connection system with the outer steel keel 4 capable of supporting glass. A fixing structure 10 is installed at the upper middle part of the outer steel keel 4, which consists of a first aluminum alloy upper horizontal frame 101, a first aluminum alloy water tank bracket 102, a first aluminum alloy lower horizontal frame 103, a third aluminum alloy sub-frame 104, and a support mechanism 11. The support mechanism 11, after cooperating with the first aluminum alloy hanging bracket 51, the base plate 52, and the card seat 53, is fixed to the front end of the inner steel keel 8 through the bracket 13. At the same time, a stabilizing mechanism 14 is installed at the lower end of the outer steel keel 4 through the bracket 16, and a bottom connecting mechanism 17 and a base frame 18 are set at the lower end of the outer steel keel 4 to provide multiple points of support at the top, bottom, and middle for subsequent glass installation.

[0036] After completing the keel and all supporting and connecting components, the top of the first outer glass 1 is first attached to the first aluminum alloy sub-frame 55, and the first outer glass 1 is fixed to the frame formed by the aluminum alloy column 71 and the steel keel core 72 through the aluminum alloy pressure plate 74 and aluminum alloy pressure plate assembly 75 of the two sets of connecting structures 7 at the upper end. At the same time, the third aluminum alloy sub-frame 104 in the fixing structure 10 is used to horizontally connect the junction of the first outer glass 1 and the second outer glass 2. Then, the second outer glass 2 is lifted and locked by the corresponding connecting structure 7 at the lower end and the second aluminum alloy hanging bracket 141, aluminum alloy bracket 142 and lifting component 143 in the stabilizing mechanism 14, so that it forms a stable connection with the outer steel keel 4 and the inner steel keel 8. Force transmission path; then the bottom of the third outer glass 3 is connected to the bottom connecting mechanism 17, which includes the fourth aluminum alloy sub-frame 176, stabilizer 177, aluminum angle bracket 178, second waterproof membrane 179 and second galvanized angle steel 1710 in sequence. The bottom sealing and support are completed by the galvanized steel bracket 171, second aluminum alloy upper horizontal frame 172, second aluminum alloy water channel bracket 173, second aluminum alloy lower horizontal frame 174 and top plate 175. Finally, the first outer glass 1, second outer glass 2 and third outer glass 3 are connected to the outer steel keel 4, inner steel keel 8 and steel structure 9 through the connecting structure 7, fixing structure 10, stabilizing mechanism 14 and bottom connecting mechanism 17 to form a multi-level connected overall super-large hyperbolic unitized glass curtain wall system.

[0037] BIM technology was introduced into the design and construction of this super-large hyperbolic unitized glass curtain wall. Three-dimensional parametric modeling was performed on all components, including the first outer glass layer 1, the second outer glass layer 2, the third outer glass layer 3, the outer steel keel 4, the inner steel keel 8, the upper support structure 5, the lower support structure 6, the connecting structure 7, the fixing structure 10, the stabilizing mechanism 14, and the bottom connecting mechanism 17. A precise spatial curvature model was established to collaboratively verify the dimensions of the hyperbolic glass segments, the installation angle of the aluminum alloy sub-frame, and the position of the steel keel nodes, enabling pre-assembly and assembly sequence simulation. Simultaneously, BIM was used for collision detection and stress path analysis to identify spatial conflicts and installation interference between the outer steel keel 4 and the inner steel keel 8, brackets 16, supports 13, and various hanging brackets, water channel brackets, waterproof membranes, and galvanized angle steel. The optimized node construction methods were then used to guide factory prefabrication and on-site assembly, ensuring high-precision alignment and installation of the glass units, keel system, and waterproof structure, thereby improving overall construction efficiency, structural safety, and the curtain wall's airtightness, watertightness, and wind resistance.

[0038] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention 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 invention should be included within the protection scope of the present invention.

Claims

1. A super-large hyperbolic unitized glass curtain wall based on BIM technology, characterized in that: The system comprises three outer glass layers: a first outer glass layer, a second outer glass layer, and a third outer glass layer, arranged from top to bottom. The backs of these three layers are connected to an outer steel keel. An upper support structure and a lower support structure are installed on the upper back of the outer steel keel, and their backs are connected to an inner steel keel via a steel frame. The back of the inner steel keel is connected to a steel structure. Four connecting structures are installed inside the outer steel keel from top to bottom. The connecting structures on the backs of the first, second, and third outer glass layers provide support. The first and second outer glass layers are connected by a fixing structure. The back of the fixing structure is connected to a bracket via a support mechanism. The back of the bracket is connected to the inner steel keel, and the lower end of the front face of the bracket is connected to the outer steel keel via a connecting structure. A stabilizing mechanism is installed at the lower end of the outer steel keel. The back of the stabilizing mechanism is connected to the inner steel keel via a bracket. A connector for the outer steel keel is installed below the stabilizing mechanism. A connecting mechanism is installed at the lower end of the outer steel keel, and the back of the connecting mechanism is fixed to the inner steel keel via a base frame.

2. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 1, characterized in that: The upper support structure includes a first aluminum alloy bracket connecting to the steel frame, a base plate at the bottom of the first aluminum alloy bracket, a bracket installed at the left end of the first aluminum alloy bracket, a connector on the left side of the bracket, an aluminum alloy horizontal frame installed at the top of the connector, a first aluminum alloy sub-frame connecting the left end of the aluminum alloy horizontal frame, a first waterproof membrane at the top right end of the first aluminum alloy sub-frame, and a first galvanized angle steel installed at the other end of the first waterproof membrane. The upper end of the first waterproof membrane is connected to the inner steel keel through the first galvanized angle steel, and the connector is connected to the outer steel keel by bolts. The left end of the first aluminum alloy sub-frame is attached to the top of the first outer glass layer.

3. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 1, characterized in that: The lower support structure includes a fixing member connecting the outer steel keel, a connecting support member connecting the right end of the fixing member, a fixing connector located at the right end of the support member, a base plate installed at the right end of the fixing connector, a steel base plate locked to the bottom of the base plate, and a first galvanized channel steel and a second galvanized channel steel located at the right end of the steel base plate. The other ends of the first galvanized channel steel and the second galvanized channel steel are both connected to the front end steel frame of the inner steel keel.

4. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 3, characterized in that: The lower support structure is identical to the connecting structure.

5. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 1, characterized in that: The connecting structure includes an aluminum alloy column inside the outer steel keel, a steel keel core installed in the middle of the aluminum alloy column, a second aluminum alloy sub-frame located at the upper and lower left ends of the aluminum alloy column, an aluminum alloy pressure plate connecting the left ends of the two sets of second aluminum alloy sub-frames, and an aluminum alloy pressure plate assembly located at the bottom of the upper aluminum alloy pressure plate. The right end of the steel keel core is fixed to the aluminum alloy column by bolts, and the left end is locked to the second aluminum alloy sub-frame by bolts. The upper and lower aluminum alloy pressure plates are respectively connected to the upper and lower sets of outer glass.

6. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 1, characterized in that: The fixing structure includes a first aluminum alloy upper horizontal frame, a first aluminum alloy water tank bracket located at the lower end of the first aluminum alloy upper horizontal frame, a first aluminum alloy lower horizontal frame connected to the upper end of the first aluminum alloy upper horizontal frame, and a third aluminum alloy sub-frame located at the upper and lower left ends of the first aluminum alloy upper horizontal frame. The left end of the third aluminum alloy sub-frame is connected to an outer steel keel, and the right side of the first aluminum alloy upper horizontal frame is connected to a support mechanism.

7. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 6, characterized in that: The supporting mechanism has the same structure as the first aluminum alloy mounting bracket, base plate and card slot.

8. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 6, characterized in that: The stabilizing mechanism includes a second aluminum alloy bracket connecting the bracket, an aluminum alloy bracket located at the left end of the second aluminum alloy bracket, and a lifting member locked to the left end of the aluminum alloy bracket. The top of the lifting member is connected to another set of fixing structures, the left end of which is connected to an outer steel keel. The left end of the lifting member is fixed to the outer steel keel by bolts.

9. The ultra-large hyperbolic unitized glass curtain wall based on BIM technology according to claim 8, characterized in that: The bottom connecting mechanism includes a galvanized steel bracket. The lower end of the galvanized steel bracket is fixedly connected to the base frame by bolts. The upper end of the galvanized steel bracket is bolted to the second aluminum alloy upper horizontal frame. The lower end of the second aluminum alloy upper horizontal frame is provided with a second aluminum alloy water tank bracket. The upper end of the second aluminum alloy upper horizontal frame is embedded and locked with a second aluminum alloy lower horizontal frame. A top plate is fixed to the top of the second aluminum alloy lower horizontal frame. A set of fourth aluminum alloy sub-frames is locked into the upper and lower positions of one end of the second aluminum alloy lower horizontal frame. The fourth aluminum alloy sub-frames are connected to the bottom of the third outer glass. The bottom of the fourth aluminum alloy sub-frames is provided with a stabilizing component. The stabilizing component is connected to the second waterproof membrane through aluminum angle brackets. The other end of the second waterproof membrane is connected to a second galvanized angle steel to form a bottom waterproof sealing structure.

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