Green curtain wall for subway ground building in hot area
By adopting a photovoltaic glass curtain wall system in subway ground buildings, using solar energy to generate electricity and reducing heat entry, the high energy and heat consumption problems of subway ground buildings in hot areas are solved, and energy and materials are saved and assembly aesthetics are achieved.
Patent Information
- Application Number
- CN202420877661.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-04-25
- Publication Date
- 2025-01-14
- Estimated Expiration
- 2034-04-25
AI Technical Summary
Subway ground buildings in hot areas have a large energy consumption due to the lack of natural light and the high heat consumption of traditional glass curtain walls.
Using a green curtain wall system composed of multiple groups of photovoltaic glass, aluminum alloy beams and columns, the photovoltaic technology uses solar energy to generate electricity and reduce heat entry, combined with a combination of aluminum alloy, stainless steel and sealing materials to achieve energy and material conservation and assembly aesthetics. sex.
Effectively reduce dependence on external power, reduce energy consumption of building air conditioners, save material costs, and improve the convenience of installation and maintenance and overall appearance.
Smart Images

Figure CN222350016U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of subway ground buildings, in particular to a green curtain wall used for subway ground buildings in hot areas. Background Art
[0002] Subway projects are generally located underground, and natural light cannot enter the interior during the day, so the internal area also requires a large amount of electricity for power lighting during the day. The traditional method uses municipal electricity, which consumes a lot of electricity. In addition, in hot areas, subway ground buildings such as entrances and exits with traditional glass curtain walls as the outer protective structure have a large heat gain surface and high energy consumption. Utility Model Content
[0003] The utility model aims to provide a green curtain wall for subway ground buildings in hot areas. The traditional method uses municipal electricity, which consumes a lot of electricity. At the same time, the traditional glass curtain wall is the entrance and exit of the outer protective structure of the subway ground building, which gains a lot of heat and consumes a lot of energy.
[0004] To achieve the above-mentioned purpose, a green curtain wall for subway ground buildings in hot areas is provided, which includes a surface material component, a support component, a connection component and a sealing material component. The surface material component is composed of a plurality of groups of photovoltaic glass, and the support component is respectively composed of an aluminum alloy beam and an aluminum alloy column. The top and bottom of one side of the inner part of the aluminum alloy column are provided with insulating protective sleeve wire holes, and the top of the aluminum alloy column near the insulating protective sleeve wire hole is provided with a wiring groove, and the wiring groove is provided with a photovoltaic cable that passes through the insulating protective sleeve wire hole to the inside of the aluminum alloy column, and one end of the photovoltaic cable extends to the inside of the photovoltaic glass, and the end of the photovoltaic cable near the photovoltaic glass is plugged with a photovoltaic junction box that cooperates with it and is connected to the photovoltaic glass.
[0005] The connection components are respectively composed of indoor aluminum alloy buckle covers, photovoltaic cables, aluminum alloy pressure plates, outdoor aluminum alloy buckle covers, stainless steel bolt groups, aluminum alloy glass pressure blocks, external hexagonal drill nails and aluminum alloy glass sub-frames, and the indoor aluminum alloy buckle covers are installed indoors and cooperate with aluminum alloy columns, while the outdoor aluminum alloy buckle covers and aluminum alloy pressure plates are installed outdoors and cooperate with photovoltaic glass. The sealing material components include insulating rubber gaskets, photovoltaic junction boxes, EPDM sealing strips, weather-resistant sealants, structural sealants and double-sided tapes, and the indoor aluminum alloy buckle covers and EPDM sealing strips are sealed with photovoltaic glass, which facilitates the construction of green curtain walls, improves the energy and material savings used and the aesthetics of assembly.
[0006] According to the green curtain wall for subway ground buildings in hot areas, the photovoltaic glass adopts a three-layer structure design with CdTe cells sandwiched between two sides of tempered glass, and a cable gap is reserved between the cell and the surface tempered glass, and the gap is later filled with pvb, which facilitates the later installation of photovoltaic cables and the anti-leakage function.
[0007] According to the green curtain wall for subway ground buildings in hot areas, the bottom of the aluminum alloy column is interconnected with the photovoltaic cable, and the bottom of the outer side of the photovoltaic cable is connected to an external keel, and the bottom of the external keel is connected to a stainless steel bolt group matching it and fixedly installed with the photovoltaic glass, and the external keel and the aluminum alloy column are sealed by an insulating rubber gasket, which makes it easy to improve the stability and tightness of the fixed installation of the photovoltaic glass and achieve the sealing performance of the connection.
[0008] According to the green curtain wall for subway ground buildings in hot areas, the bottom of the outer side of the stainless steel bolt group is connected with an aluminum alloy pressure plate and an outdoor aluminum alloy buckle cover, and both sides of the top of the aluminum alloy pressure plate and both sides of the inside of the external keel and both sides of the inner top are provided with EPDM sealing strips and weather-resistant sealant sealed with photovoltaic glass, so as to further realize the installation of photovoltaic glass and the sealing performance of the connection.
[0009] According to the green curtain wall for subway ground buildings in hot areas, the indoor aluminum alloy buckle cover is fixedly installed with the aluminum alloy column by external bolts, which facilitates the fixed connection between the indoor aluminum alloy buckle cover and the aluminum alloy column.
[0010] The above scheme has the beneficial effects of: it can effectively save energy. Hot areas are rich in solar energy resources. This green curtain wall uses photovoltaic glass as the curtain wall surface. By utilizing the characteristics of photovoltaic technology with high power generation during sunshine hours, it can reduce dependence on external electricity, provide electricity for the public area lighting in the subway, and take into account the small power loads such as entrance escalators and elevators. At the same time, ground buildings such as subway entrances and exits, elevators and elevator halls are mainly used for personnel transportation, and the lighting demand is relatively small. The traditional glass curtain wall is the outer protective structure of the subway entrance and exit and other ground buildings. The heat gain surface is large and the energy consumption is high. This green curtain wall uses photovoltaic glass with a certain light transmittance to effectively reduce the solar radiation heat in hot areas from entering the room, and significantly reduce the energy consumption of building air conditioning;
[0011] It can effectively save materials. This green curtain wall system uses photovoltaic glass as the surface material of the outer curtain wall system of subway entrances and exits, elevators and elevator lobbies, replacing traditional materials such as stone and glass, and realizing the organic integration of solar energy utilization and building envelope structure. At the same time, compared with the secondary structure system of traditional photovoltaic systems, this curtain wall realizes building photovoltaic integration, which not only saves material costs, but also takes into account the overall appearance and effect of the building facade. In addition, this curtain wall can be applied to various locations such as subway entrances and exits, elevators and elevator lobbies, and has a wide range of application and promotion prospects.
[0012] Beautiful assembly, this patented innovation divides each piece of photovoltaic glass on the curtain wall system into independent small units, and forms a complete curtain wall by evenly arranging multiple photovoltaic curtain wall components on the exterior wall; and connecting components are arranged to connect with the keel beams, which is simple and convenient to install, and can be disassembled separately, and inspection and maintenance are very convenient; at the same time, the photovoltaic glass cables are cleverly hidden in the curtain wall columns and beams, so that no changes can be seen from the outside, achieving perfect integration.
[0013] Additional aspects and advantages of the present invention will be given in part in the following description, and in part will become apparent from the following description, or will be learned through the practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS
[0014] The utility model is further described below in conjunction with the accompanying drawings and embodiments;
[0015] Figure 1 This is an enlarged plan view of the aluminum alloy beam of the utility model for a green curtain wall of a subway ground building in hot areas;
[0016] Figure 2 This is an enlarged cross-sectional view of an aluminum alloy beam used for a green curtain wall of a subway ground building in a hot area according to the utility model;
[0017] Figure 3 This is a cross-sectional view of a green curtain wall for ground buildings of subways in hot areas according to the utility model;
[0018] Figure 4 This is a plan view of a green curtain wall for ground buildings of subways in hot areas according to the utility model;
[0019] Figure 5 This is a schematic diagram of the installation of a green curtain wall subway entrance and exit for subway ground buildings in hot areas according to the utility model;
[0020] Figure 6 This is a schematic diagram of the installation of a green curtain wall subway high wind pavilion for subway ground buildings in hot areas according to the utility model;
[0021] Figure 7 The utility model is a schematic diagram of the installation of a green curtain wall entrance and exit elevator and an entrance and exit elevator lobby for subway ground buildings in hot areas.
[0022] Legend:
[0023] 1. Aluminum alloy crossbeam; 2. Aluminum alloy column; 3. Indoor aluminum alloy buckle cover; 4. Wire trough; 5. Wire hole for insulating protective cover; 6. Photovoltaic cable; 7. Insulating rubber gasket; 8. Photovoltaic junction box; 9. EPDM sealing strip; 10. Stainless steel bolt set; 11. Outdoor aluminum alloy buckle cover; 12. Aluminum alloy pressure plate; 13. Weather-resistant sealant; 14. Photovoltaic glass; 15. Aluminum alloy glass block; 16. External hexagonal drill nail; 17. Aluminum alloy glass sub-frame; 18. Structural sealant; 19. Double-sided tape. DETAILED DESCRIPTION
[0024] This section will describe in detail the specific embodiments of the utility model. The preferred embodiments of the utility model are shown in the accompanying drawings. The purpose of the accompanying drawings is to supplement the description of the text part of the specification with graphics, so that people can intuitively and vividly understand each technical feature and the overall technical solution of the utility model, but it cannot be understood as a limitation on the protection scope of the utility model.
[0025] Reference Figure 1-7 The utility model embodiment is a green curtain wall for subway ground buildings in hot areas, which includes a surface material component, a support component, a connection component and a sealing material component. The surface material component is composed of a plurality of groups of photovoltaic glass 14, and the support component is composed of an aluminum alloy beam 1 and an aluminum alloy column 2. The top and bottom of one side of the inner part of the aluminum alloy column 2 are provided with insulating protective sleeve wire holes 5, and the top of the aluminum alloy column 2 near the insulating protective sleeve wire hole 5 is provided with a wiring groove 4, and the wiring groove 4 is provided with a photovoltaic cable 6 that passes through the insulating protective sleeve wire hole 5 to the inside of the aluminum alloy column 2, and one end of the photovoltaic cable 6 extends to the inside of the photovoltaic glass 14, and the end of the photovoltaic cable 6 near the photovoltaic glass 14 is plugged with a photovoltaic junction box 8 that cooperates with it and is connected to the photovoltaic glass 14;
[0026] The connection components are respectively composed of an indoor aluminum alloy buckle cover 3, a photovoltaic cable 6, an aluminum alloy pressure plate 12, an outdoor aluminum alloy buckle cover 11, a stainless steel bolt group 10, an aluminum alloy glass pressure block 15, an external hexagonal drill nail 16 and an aluminum alloy glass sub-frame 17, and the indoor aluminum alloy buckle cover 3 is installed indoors and cooperates with the aluminum alloy column 2, while the outdoor aluminum alloy buckle cover 11 and the aluminum alloy pressure plate 12 are installed outdoors and cooperate with the photovoltaic glass 14. The sealing material component includes an insulating rubber gasket 7, a photovoltaic junction box 8, an EPDM sealing strip 9, a weather-resistant sealant 13, a structural sealant 18 and a double-sided tape 19, and the indoor aluminum alloy buckle cover 3 and the EPDM sealing strip 9 are sealed with the photovoltaic glass 14.
[0027] Reference Figure 1-7 Photovoltaic glass 14 adopts a three-layer structure design with CdTe cells sandwiched between two sides of tempered glass, and a cable gap is reserved between the cell and the surface tempered glass, and the gap is filled with pvb later.
[0028] The bottom of the aluminum alloy column 2 is interconnected with the photovoltaic cable 6, and the bottom of the outer side of the photovoltaic cable 6 is connected to an external keel, and the bottom of the external keel is connected to a stainless steel bolt group 10 that matches it and is fixed to the photovoltaic glass 14, and the external keel and the aluminum alloy column 2 are sealed by an insulating rubber gasket 7.
[0029] The bottom of the outer side of the stainless steel bolt group 10 is connected with an aluminum alloy pressure plate 12 and an outdoor aluminum alloy buckle cover 11, and both sides of the top of the aluminum alloy pressure plate 12 and both sides of the inside of the external keel and both sides of the inner top are provided with EPDM sealing strips 9 and weather-resistant sealant 13 that are sealed with the photovoltaic glass 14.
[0030] The indoor aluminum alloy buckle cover 3 is fixedly installed with the aluminum alloy column 2 by external bolts.
[0031] Working principle: When in use, firstly, independent aluminum alloy columns 2 and aluminum alloy beams 1 can be erected around the designated position, and grounded, and then the external keel system can be connected to the civil structure by using external connecting anchor bolts, embedded parts, etc., and then the photovoltaic glass 14 can be fixed and installed by the cooperation of the stainless steel bolt group 10, the external hexagonal drill nails 16 and the external keel, so as to realize the connection between the photovoltaic glass 14 and the aluminum alloy column 2 and seal it with the insulating rubber gasket 7, and the sides where the multiple groups of photovoltaic glass 14 are close to each other are sealed with weather-resistant sealant 13, EPDM sealing strips 9, structural sealant 18 and double-sided tape 19, and the sides where the multiple groups of photovoltaic glass 14 are close to each other are all sealed with the indoor aluminum alloy buckle cover 3, aluminum alloy glass sub-frame 17 and aluminum alloy glass pressing block 15 structural design, which can realize the fixed connection work of the multiple groups of photovoltaic glass 14 in the assembly;
[0032] The photovoltaic glass 14 adopts a three-layer structure design, with CdTe cells sandwiched between two sides of tempered glass, and a photovoltaic junction box 8 is reserved between the photovoltaic cells and the surface glass. After installation, the gap is filled with pvb to realize that each piece of photovoltaic glass 14 is an independent small unit. Later, the photovoltaic cable 6 is led out from the inside of the photovoltaic junction box 8 by means of a plug-in, and the positive and negative terminal ends pass through the insulating protective cover wire hole 5 set on the aluminum alloy column 2, and then enter the inside of the wiring trough 4 to ensure that the entire curtain wall structure system has no leakage hazards, and an outdoor aluminum alloy buckle cover 11 and an aluminum alloy pressure plate 12 are provided on the outermost side of the indoor side keel to facilitate later maintenance. While ensuring the safety of the cables, they can also be hidden to enhance the overall visual effect of the interior. The cables of each independent small unit are gathered at the connection at the end and connected in parallel to the terminal inverter.
[0033] Promotion prospects: The forces between the curtain wall components of this patent are clear, and the strength of the component panels can be fully utilized under normal use. The structures of the components of the photovoltaic curtain wall components are relatively simple, and batch production can be carried out with low production difficulty, thereby ensuring the processing accuracy of each component, and ultimately ensuring the installation accuracy of the curtain wall, avoiding material damage and component power generation efficiency loss caused by on-site construction errors. This type of curtain wall can be widely used in ground buildings such as subway entrances and exits, barrier-free elevators, and has good promotion prospects.
[0034] The embodiments of the present invention are described in detail above in conjunction with the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of ordinary technicians in the relevant technical field without departing from the purpose of the present invention.
Claims
1. A green curtain wall for subway ground buildings in hot areas, comprising a surface material component, a support component, a connection component and a sealing material component, characterized in that: The surface material assembly is composed of a plurality of groups of photovoltaic glass (14) assembled together, and the support assembly is respectively composed of an aluminum alloy crossbeam (1) and an aluminum alloy column (2), and the top and bottom of one side of the interior of the aluminum alloy column (2) are provided with insulating protective sleeve wire holes (5), and the top of the aluminum alloy column (2) near the insulating protective sleeve wire holes (5) is provided with a wiring groove (4), and the wiring groove (4) is provided with a photovoltaic cable (6) passing through the insulating protective sleeve wire holes (5) to the interior of the aluminum alloy column (2), and one end of the photovoltaic cable (6) extends to the interior of the photovoltaic glass (14), and the end of the photovoltaic cable (6) near the photovoltaic glass (14) is inserted with a photovoltaic junction box (8) that cooperates with it and is connected to the photovoltaic glass (14); The connection components are respectively composed of an indoor aluminum alloy buckle cover (3), a photovoltaic cable (6), an aluminum alloy pressure plate (12), an outdoor aluminum alloy buckle cover (11), a stainless steel bolt group (10), an aluminum alloy glass pressure block (15), an external hexagonal drill nail (16) and an aluminum alloy glass sub-frame (17), and the indoor aluminum alloy buckle cover (3) is installed indoors and cooperates with the aluminum alloy column (2), while the outdoor aluminum alloy buckle cover (11) and the aluminum alloy pressure plate (12) are installed outdoors and cooperate with the photovoltaic glass (14). The sealing material component includes an insulating rubber gasket (7), a photovoltaic junction box (8), an EPDM sealing strip (9), a weather-resistant sealant (13), a structural sealant (18) and a double-sided tape (19), and the indoor aluminum alloy buckle cover (3) and the EPDM sealing strip (9) are sealed with the photovoltaic glass (14).
2. The green curtain wall for ground buildings of subways in hot areas according to claim 1 is characterized in that: The photovoltaic glass (14) adopts a three-layer structure design, with CdTe cells sandwiched between two tempered glasses, and a gap for cables is reserved between the cells and the surface tempered glass, and the gap is filled with PVB later.
3. The green curtain wall for subway ground buildings in hot areas according to claim 1 is characterized in that: The bottom of the aluminum alloy column (2) is interconnected with the photovoltaic cable (6), and the bottom of the outer side of the photovoltaic cable (6) is connected to an external keel, and the bottom of the external keel is connected to a stainless steel bolt group (10) matching with it and fixedly installed with the photovoltaic glass (14), and the external keel and the aluminum alloy column (2) are sealed by an insulating rubber gasket (7).
4. The green curtain wall for ground buildings of subways in hot areas according to claim 1 is characterized in that: The bottom of the outer side of the stainless steel bolt group (10) is connected to an aluminum alloy pressure plate (12) and an outdoor aluminum alloy buckle cover (11), and both sides of the top of the aluminum alloy pressure plate (12), both sides of the inside of the external keel and both sides of the inner top are provided with EPDM sealing strips (9) and weather-resistant sealant (13) that are sealed with the photovoltaic glass (14).
5. The green curtain wall for ground buildings of subways in hot areas according to claim 1 is characterized in that: The indoor aluminum alloy buckle cover (3) is fixedly installed with the aluminum alloy column (2) by means of external bolts.
Citation Information
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