Prefabricated power generation building box-type house
By adopting a prefabricated assembly design that combines photovoltaic power generation with photovoltaic glass in building construction, the problems of long installation time and safety of solar panels have been solved, achieving efficient power supply and energy saving.
Patent Information
- Application Number
- CN202423001676.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-05
- Publication Date
- 2025-10-31
- Estimated Expiration
- 2034-12-05
AI Technical Summary
In existing buildings, installing solar panels requires long hours of work at height and poses a safety threat to workers. At the same time, the demand for mains electricity is high, and solar power supply is insufficient.
The building utilizes photovoltaic power generation combined with photovoltaic glass as the wall surface, and is a prefabricated modular building. The photovoltaic power generation modules are pre-assembled in the factory and fixed with embedded parts, reducing the time spent working at heights.
It improves solar energy utilization, reduces high-altitude work time, lowers installation costs, and achieves energy conservation through the thermal insulation effect of the power-generating glass.
Smart Images
Figure CN223497329U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of container houses, specifically prefabricated assembled power generation container houses. Background Technology
[0002] In existing buildings, most are powered by the mains electricity. Although some use solar panels to generate electricity, this method can only provide a small amount of power, and the demand for mains electricity is still very high. In addition, if multiple solar panels are to be spliced and installed on the roof, the solar panels need to be transported to the roof and then spliced and installed one by one. The high-altitude work time is long, and long-term high-altitude work poses a certain threat to the personal safety of workers. Utility Model Content
[0003] The purpose of this utility model is to overcome the shortcomings of the existing technology and provide a prefabricated assembled power generation building container house. By adopting the form of photovoltaic power generation combined with power generation glass, the power generation glass is used as the wall surface. In addition to the photovoltaic power generation panels generating electricity, the entire wall of one side of the house can generate electricity through the power generation glass, thereby achieving a low-carbon lifestyle. At the same time, due to the good thermal insulation properties of the power generation glass itself, it can further save energy. Furthermore, by setting embedded parts on the main body of the container house, the power generation components can be spliced together first and then directly fixed to the main body of the container house through the embedded parts, thereby greatly reducing the time for workers to work at heights.
[0004] The objective of this utility model is mainly achieved through the following technical solutions:
[0005] A prefabricated modular power generation building container house includes a container house body, the container house body includes a photovoltaic power generation module, the top of the container house body has pre-set bolt holes, the photovoltaic power generation module includes a first power generation glass frame and a first power generation glass component that are fixedly connected, the first power generation glass frame is threadedly connected to the bolt holes by bolts to fix the photovoltaic power generation module to the top of the container house body;
[0006] A glass curtain wall assembly, the glass curtain wall assembly including a second power-generating glass assembly, the main body of the container house having a steel plate pre-embedded therein, the second power-generating glass assembly being fixed to the main body of the container house by being fixedly connected to the steel plate.
[0007] In this application, in addition to the photovoltaic power generation modules on the roof, one side of the container house is composed of glass curtain wall components, including a second photovoltaic glass component, enabling the glass curtain wall components to generate photovoltaic power, thereby enhancing the utilization rate of solar energy. Simultaneously, bolt holes are pre-installed on the roof of the container house. When installing the photovoltaic power generation modules, the first photovoltaic glass component and the first photovoltaic glass frame can be pre-connected, and then hoisted as a whole to the top of the container house. Afterwards, the photovoltaic power generation modules are simply fixed to the top of the container house with bolts, significantly reducing the time spent by workers at heights. Furthermore, steel plates are pre-embedded within the container house at the installation locations of the glass curtain wall components. When installing the glass curtain wall components, they can be pre-assembled, then hoisted as a whole to the installation location, and the second photovoltaic glass component is fixed to the steel plate to complete the installation. Installation is convenient and quick, and the glass curtain wall components can be assembled in the factory.
[0008] Furthermore, the first power-generating glass assembly includes a plurality of first power-generating glass units, which are fixedly connected in pairs via first connecting components. The first power-generating glass assembly is also fixedly connected to a first power-generating glass frame via the first connecting components. In this application, the first power-generating glass assembly includes a plurality of first power-generating glass units, each capable of generating photovoltaic power to supply electricity to the interior of the container house. The first power-generating glass units are fixed in pairs via the first connecting components and to the first power-generating glass frame. After the first power-generating glass assembly is assembled, it can be further installed onto the first power-generating glass frame via the connecting components, thus ensuring that the photovoltaic power-generating assembly is a single unit at the time of manufacture and can be directly hoisted.
[0009] Furthermore, the first power-generating glass frame includes a plurality of crisscrossing square tubes and at least four support columns. The at least four support columns secure the first power-generating glass frame to the top of the container house main body using bolts. The crisscrossing square tubes form several first power-generating glass installation areas that match the size and number of the first power-generating glass units. In this application, the crisscrossing square tubes form the first power-generating glass installation areas, and the support columns support the square tubes and the first power-generating glass units. It should be noted that the lengths of the horizontally arranged square tubes are not necessarily the same, the lengths of the vertically arranged square tubes are not necessarily the same, and the lengths of the horizontally arranged square tubes and the vertically arranged square tubes are not necessarily the same; the specific calculations are based on the length, width, and number of the first power-generating glass units. For example, if there are six first-generation power-generating glass panels, with three arranged horizontally and two arranged vertically, then the horizontally arranged square tubes are of the same length, and the vertically arranged square tubes are of the same length. If there are seven first-generation power-generating glass panels, arranged in a 2-3-2 pattern horizontally, then the two vertically arranged inner square tubes are longer than the two vertically arranged outer square tubes, while the horizontally arranged square tubes located at the protruding parts are shorter than the other horizontally arranged square tubes. It should be noted that to ensure the horizontally and vertically arranged square tubes are of the same length, their lengths must match the length and width of a single first-generation power-generating glass panel. More specifically, the horizontally and vertically arranged square tubes are connected by threaded connections or welding.
[0010] Furthermore, the first connecting assembly includes a first π-shaped pressure plate and two sets of J-shaped sub-frames. The left and right sides of the first π-shaped pressure plate are respectively inserted into the barbs of the two sets of J-shaped sub-frames, and the long sides of the two sets of J-shaped sub-frames are located at the upper end of the first π-shaped pressure plate. A threaded through hole is provided in the middle of the first π-shaped pressure plate. The first π-shaped pressure plate is fixed to the intersection of the square tubes with bolts, and the J-shaped sub-frames are also fixed to the intersection of the square tubes. The first power-generating glass is fixedly connected to the long side of the J-shaped sub-frames with structural adhesive. In this application, the first connecting assembly is configured as a combination of the first π-shaped pressure plate and the two sets of J-shaped sub-frames, allowing for assembly via mechanical connection during installation. This simplifies installation, eliminates the need for welding, and reduces costs. In this application, the lengths of the first π-shaped pressure plate and the J-shaped sub-frame can be set to be relatively short. During installation, the first π-shaped pressure plate and the J-shaped sub-frame are installed at the four corners of the first power-generating glass, thereby connecting the first power-generating glass pieces in pairs. The π-shaped pressure plate is fixed to the square tube with bolts, thereby fixing the J-shaped sub-frame. The first power-generating glass is then fixed to the J-shaped sub-frame with structural adhesive, thus fixing the first power-generating glass to the first power-generating glass frame. It should be noted that, to make the first power-generating glass more securely fixed, multiple first connecting components can be set along the length or width direction of the first power-generating glass. Furthermore, both the first π-shaped pressure plate and the J-shaped sub-frame can be set as long strips, with their lengths equal to the length or width of the first power-generating glass.
[0011] Furthermore, a foam rod is fixedly disposed between the two sets of J-shaped sub-frames, and the opening formed by the two sets of J-shaped sub-frames is sealed at the foam rod using sealant. In this application, the foam rod is fixedly disposed between the J-shaped sub-frames, and the opening squeezed out by the foam rod is sealed with sealant, making the first power-generating glass assembly more aesthetically pleasing overall.
[0012] Furthermore, the second power-generating glass assembly includes a plurality of second power-generating glasses, each of which is fixed by a second connecting assembly disposed on opposite sides of the second power-generating glass. In this application, the second power-generating glass is fixed by a second connecting assembly disposed on both sides of its length direction, or by a second connecting assembly disposed on both sides of its width direction. It should be noted that in this application, the first power-generating glass and the second power-generating glass may have the same model and size, or they may be different.
[0013] Furthermore, the second connecting assembly includes a second π-shaped pressure plate, two sets of first concave sub-frames, and two sets of second concave sub-frames. The two ends of the second π-shaped pressure plate are respectively inserted into the notches of the first concave sub-frames. A third concave sub-frame is provided on one side of the first concave sub-frame located at the upper end of the second π-shaped pressure plate. The two sets of second concave sub-frames are respectively inserted into the grooves of the two sets of third concave sub-frames. One side of the second power-generating glass is inserted into the third concave sub-frame and connected to the third concave sub-frame by structural adhesive. In this application, the second power-generating glass units are connected in pairs via a second connecting assembly. Unlike the first connecting assembly, in the first power-generating glass assembly, the first power-generating glass is placed horizontally, so it is only necessary to place and fix the first power-generating glass on the first power-generating glass frame. However, in the second power-generating glass assembly, since the second power-generating glass is used as a curtain wall, if the second power-generating glass is fixed via the first connecting assembly, it is easy for the second power-generating glass to misalign with the first connecting assembly under the action of gravity. Therefore, in this application, the second connecting assembly is spliced together by a second π-shaped pressure plate, two sets of first concave sub-frames, and two sets of second concave sub-frames. At the same time, a third concave sub-frame is provided on the side of the first concave sub-frame located at the upper end of the second π-shaped pressure plate. The second power-generating glass is inserted into the third concave sub-frame, and the second power-generating glass and the third concave sub-frame are fixed with structural adhesive to prevent the power-generating glass from misaligning with the second connecting assembly under the action of gravity. Optionally, the second π-shaped pressure plate, the two sets of first concave sub-frames, and the two sets of second concave sub-frames can be set to be relatively short, so that the second light-emitting glass is connected to each other through the second connecting components set at the four corners of the second light-emitting glass; the second π-shaped pressure plate, the two sets of first concave sub-frames, and the two sets of second concave sub-frames can also be set to be elongated, so that the opposite sides of the second light-emitting glass are inserted into the second connecting components for connection. Preferably, in order to make the fixation more secure, the second π-shaped pressure plate, the two sets of first concave sub-frames, and the two sets of second concave sub-frames are set to be elongated.
[0014] Furthermore, the second power-generating glass assembly also includes a second power-generating glass frame, which comprises several vertical frames and several horizontal frames. These vertical and horizontal frames are staggered to form a second power-generating glass mounting area that matches the size and quantity of the power-generating glass units. The second power-generating glass assembly is fixedly connected to the steel plate via the horizontal and vertical frames on the outer side of the second power-generating glass frame. In this application, the second power-generating glass is installed on the second power-generating glass frame and fixed to the steel plate via the horizontal and vertical frames on the outer side of the second power-generating glass frame, thereby securing the second power-generating glass assembly to the main body of the container house.
[0015] Furthermore, a threaded hole is provided in the middle of the second π-shaped pressure plate, and a nut is provided in the vertical frame. The second π-shaped pressure plate is connected to the nut in the vertical frame by bolts, so that the second power-generating glass is fixedly connected to the second power-generating glass frame. In this application, the second power-generating glass is connected to the vertical frame by the second π-shaped pressure plate, and the connection method is a threaded connection, which is firm and lower in cost than welding.
[0016] Furthermore, a foam rod is fixedly disposed between the two sets of the second concave sub-frames, and the opening formed by the two sets of the second concave sub-frames is sealed at the foam rod with sealant.
[0017] In summary, compared with the prior art, this utility model has the following advantages: This utility model uses photovoltaic glass as the long wall glass on one side of the main body of the container house. While meeting the requirements for normal glass use, it can also generate electricity. Furthermore, due to the good heat insulation effect of the photovoltaic glass itself, it can also play an energy-saving role. The photovoltaic power generation components and glass curtain wall components of this utility model are pre-installed in the factory, and embedded parts are set on the main body of the container house, allowing the photovoltaic power generation components and glass curtain wall components to be hoisted and installed as a whole during installation, reducing the time spent by workers working at heights. When installing the photovoltaic power generation components and glass curtain wall components in the factory, this utility model uses a mechanical connection method for assembly, which is convenient and cost-effective. Attached Figure Description
[0018] The accompanying drawings, which are included to provide a further understanding of the embodiments of the present invention and form part of this application, do not constitute a limitation thereof. In the drawings:
[0019] Figure 1 This is a schematic diagram of the overall structure of this utility model;
[0020] Figure 2 for Figure 1 A schematic diagram of the other side of the wall;
[0021] Figure 3 This is a schematic diagram of the first power generation glass frame structure of this utility model;
[0022] Figure 4 This is a schematic diagram of the structure of the first power-generating glass component of this utility model;
[0023] Figure 5 This is a schematic diagram of the glass curtain wall component structure of this utility model.
[0024] The names corresponding to the reference numerals in the attached drawings are as follows: 1. Container house main body; 2. Photovoltaic power generation module; 201. First power generation glass frame; 2011. Square tube; 2012. Support column; 202. First power generation glass assembly; 2021. First power generation glass; 2022. First π-shaped pressure plate; 2023. J-shaped sub-frame; 2024. Structural adhesive; 2025. Foam rod; 2026. Sealant; 3. Glass curtain wall assembly; 301. Second power generation glass assembly; 3011. Second power generation glass; 3012. Second π-shaped pressure plate; 3013. First concave sub-frame; 3014. Second concave sub-frame; 3015. Third concave sub-frame; 302. Second power generation glass frame; 3021. Vertical frame; 3022. Horizontal frame. Detailed Implementation
[0025] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the embodiments and accompanying drawings. The illustrative embodiments and descriptions of this utility model are only used to explain this utility model and are not intended to limit this utility model.
[0026] Example:
[0027] like Figures 1-5 As shown, a prefabricated modular power generation building includes a main body 1, which includes a photovoltaic power generation module 2. The top of the main body 1 has pre-set bolt holes. The photovoltaic power generation module 2 includes a first power generation glass frame 201 and a first power generation glass 2021 assembly 202 that are fixedly connected. The first power generation glass frame 201 is connected to the bolt holes by bolts to fix the photovoltaic power generation module 2 to the top of the main body 1.
[0028] The glass curtain wall assembly 3 includes a second power-generating glass 3011 assembly 301. The main body 1 of the container house has a steel plate embedded in it. The second power-generating glass 3011 assembly 301 is fixed to the main body 1 of the container house by being fixedly connected to the steel plate.
[0029] In this application, in addition to the photovoltaic power generation module 2 on the top of the container house body 1, one side of its wall is composed of a glass curtain wall module 3, and the glass curtain wall module 3 includes a second power generation glass module 3011, enabling the glass curtain wall module 3 to generate photovoltaic power, thereby enhancing the utilization rate of solar energy. Meanwhile, bolt holes are pre-set on the roof of the container house body 1. When installing the photovoltaic power generation module 2, the first power generation glass module 2021 and the first power generation glass frame 201 can be pre-connected. Then, the first power generation glass module 2021 and the first power generation glass frame 201 are hoisted to the top of the container house body 1 as a whole. Afterwards, the photovoltaic power generation module 2 is simply fixed to the top of the container house body 1 with bolts to complete the installation, greatly reducing the time spent by workers at heights. In addition, at the installation location of the glass curtain wall component 3, a steel plate is pre-embedded in the main body 1 of the container house. When installing the glass curtain wall component 3, the glass curtain wall component 3 can be spliced together first, and then the whole assembly can be hoisted to the installation location of the glass curtain wall component 3. The installation of the glass curtain wall component 3 can be completed by fixing the second power generation glass 3011 component 301 to the steel plate. The installation is convenient and quick, and the assembly of the glass curtain wall component 3 can be completed in the factory.
[0030] Furthermore, the first power-generating glass 2021 assembly 202 includes a plurality of first power-generating glass 2021s, which are fixedly connected in pairs by a first connecting component, and the first power-generating glass 2021 assembly 202 is fixedly connected to the first power-generating glass frame 201 by the first connecting component. In this application, the first power-generating glass 2021 assembly 202 includes a plurality of first power-generating glass 2021s, which are capable of generating photovoltaic power, thereby providing power to the interior of the container house. The first power-generating glass 2021s are fixed in pairs by the first connecting component and fixed to the first power-generating glass frame 201 by the first connecting component. After the first power-generating glass 2021 assembly 202 is assembled, it can be further installed onto the first power-generating glass frame 201 by the connecting component, so that the photovoltaic power generation assembly 2 is formed as a whole at the time of manufacture and can be directly hoisted.
[0031] Furthermore, the first power-generating glass frame 201 includes a plurality of crisscrossing square tubes 2011 and at least four support columns 2012. The at least four support columns 2012 secure the first power-generating glass frame 201 to the top of the container house body 1 using bolts. The plurality of square tubes 2011 crisscross to form a plurality of first power-generating glass 2021 installation areas that match the size and number of the first power-generating glass 2021. In this application, the plurality of square tubes 2011 crisscross to form the first power-generating glass 2021 installation areas, and the support columns 2012 are used to support the square tubes 2011 and the first power-generating glass 2021. It should be noted that the lengths of the horizontally arranged square tubes 2011 are not necessarily the same, the lengths of the vertically arranged square tubes 2011 are not necessarily the same, and the lengths of the horizontally arranged square tubes 2011 and the vertically arranged square tubes 2011 are not necessarily the same; the specific lengths are calculated based on the length, width, and number of the first power-generating glass 2021. For example, if there are six first power-generating glass panels 2021, with three panels arranged horizontally and two panels arranged vertically, then the horizontally arranged square tubes 2011 have the same length, and the vertically arranged square tubes 2011 have the same length. If there are seven first power-generating glass panels 2021, arranged in a horizontal sequence of 2, 3, 2, then the two vertically arranged inner square tubes 2011 must be longer than the two vertically arranged outer square tubes 2011, while the horizontally arranged square tubes 2011 located at the protruding parts must be shorter than the other horizontally arranged square tubes 2011. It should be noted that to ensure the horizontally arranged square tubes 2011 and the vertically arranged square tubes have the same length, the lengths of the horizontally arranged square tubes 2011 and the vertically arranged square tubes 2011 must match the length and width of a single first power-generating glass panel 2021. Preferably, when setting up the photovoltaic power generation module 2, the photovoltaic power generation module 2 can be set slightly tilted to improve power generation efficiency and prevent snow accumulation. The tilt angle is calculated based on the actual latitude of the local area, while also taking into account the ability to allow the snow to slide off. The calculation method is existing technology and will not be elaborated on here.
[0032] Furthermore, the first connecting assembly includes a first π-shaped pressure plate 2022 and two sets of J-shaped sub-frames 2023. The left and right sides of the first π-shaped pressure plate 2022 are respectively inserted into the barbs of the two sets of J-shaped sub-frames 2023, and the long sides of the two sets of J-shaped sub-frames 2023 are located at the upper end of the first π-shaped pressure plate 2022. A threaded through hole is provided in the middle of the first π-shaped pressure plate 2022. The first π-shaped pressure plate 2022 is fixed to the intersection of the square tube 2011 with bolts, and the J-shaped sub-frames 2023 are also fixed to the intersection of the square tube 2011. The first power-generating glass 2021 is fixedly connected to the long side of the J-shaped sub-frames 2023 with structural adhesive 2024. In this application, the first connecting assembly is configured to have the first π-shaped pressure plate 2022 and the two sets of J-shaped sub-frames 2023 installed together, allowing for assembly to be completed mechanically during installation. This simplifies installation, eliminates the need for welding and other operations, and reduces costs. In this application, the lengths of the first π-shaped pressure plate 2022 and the J-shaped sub-frame 2023 can be set to be relatively short. During installation, the first π-shaped pressure plate 2022 and the J-shaped sub-frame 2023 are installed at the four corners of the first power-generating glass 2021, thereby connecting the first power-generating glass 2021s in pairs. The π-shaped pressure plate is fixed to the square tube 2011 with bolts, thereby fixing the J-shaped sub-frame 2023. The first power-generating glass 2021 and the J-shaped sub-frame 2023 are then fixed with structural adhesive 2024, thereby fixing the first power-generating glass 2021 to the first power-generating glass frame 201. It should be noted that, to make the first power-generating glass 2021 more securely fixed, multiple first connecting components can be provided along the length or width direction of the first power-generating glass 2021. Furthermore, both the first π-shaped pressure plate 2022 and the J-shaped sub-frame 2023 can be set as long strips, with their lengths equal to the length or width of the first power-generating glass 2021.
[0033] Furthermore, a foam rod 2025 is fixedly disposed between the two sets of J-shaped sub-frames 2023, and the opening formed by the two sets of J-shaped sub-frames 2023 is sealed at the foam rod 2025 with sealant 2026. In this application, the foam rod 2025 is fixedly disposed between the J-shaped sub-frames 2023, and the opening squeezed out by the foam rod 2025 is sealed with sealant 2026, making the first power-generating glass 2021 assembly 202 more aesthetically pleasing overall.
[0034] Furthermore, the second power-generating glass 3011 assembly 301 includes a plurality of second power-generating glasses 3011, which are respectively fixed by second connecting components disposed on opposite sides of the second power-generating glass 3011. In this application, the second power-generating glass 3011 is fixed by second connecting components disposed on both sides of its length direction, or by second connecting components disposed on both sides of its width direction. It should be noted that in this application, the first power-generating glass 2021 and the second power-generating glass 3011 may have the same model and size, or they may be different.
[0035] Furthermore, the second connecting assembly includes a second π-shaped pressure plate 3012, two sets of first concave sub-frames 3013 and two sets of second concave sub-frames 3014. The two ends of the second π-shaped pressure plate 3012 are respectively inserted into the notches of the first concave sub-frames 3013. A third concave sub-frame 3015 is provided on one side of the first concave sub-frame 3013 located at the upper end of the second π-shaped pressure plate 3012. The two sets of second concave sub-frames 3014 are respectively inserted into the grooves of the two sets of third concave sub-frames 3015. One side of the second power-generating glass 3011 is inserted into the third concave sub-frame 3015 and connected to the third concave sub-frame 3015 by structural adhesive 2024. In this application, the second power-generating glass 3011s are connected in pairs via a second connecting assembly. Unlike the first connecting assembly, in the first power-generating glass 2021 assembly 202, the first power-generating glass 2021 is placed horizontally; therefore, it is only necessary to place and fix the first power-generating glass 2021 onto the first power-generating glass frame 201. However, in the second power-generating glass 3011 assembly 301, since the second power-generating glass 3011 is used as a curtain wall, if the second power-generating glass 3011 is fixed via the first connecting assembly, under gravity, the second power-generating glass 3011 will... The second connecting component is prone to misalignment with the first connecting component. Therefore, in this application, the second connecting component is assembled by splicing a second π-shaped pressure plate 3012, two sets of first concave sub-frames 3013 and two sets of second concave sub-frames 3014. At the same time, a third concave sub-frame 3015 is provided on the side of the first concave sub-frame 3013 located above the second π-shaped pressure plate 3012. The second power generation glass 3011 is inserted into the third concave sub-frame 3015, and the second power generation glass 3011 and the third concave sub-frame 3015 are fixed by structural adhesive 2024 to prevent the power generation glass from misaligning with the second connecting component due to gravity. Optionally, the second π-shaped pressure plate 3012, the two sets of first concave sub-frames 3013, and the two sets of second concave sub-frames 3014 can be set to be relatively short, so that the second light-emitting glass is connected to each other through the second connecting components set at the four corners of the second light-emitting glass; the second π-shaped pressure plate 3012, the two sets of first concave sub-frames 3013, and the two sets of second concave sub-frames 3014 can also be set to be elongated, so that the opposite sides of the second light-emitting glass are inserted into the second connecting components for connection. Preferably, in order to make the fixation more secure, the second π-shaped pressure plate 3012, the two sets of first concave sub-frames 3013, and the two sets of second concave sub-frames 3014 are set to be elongated.
[0036] Furthermore, the second power-generating glass 3011 assembly 301 also includes a second power-generating glass frame 302. The second power-generating glass frame 302 includes several vertical frames 3021 and several horizontal frames 3022. The vertical frames 3021 and horizontal frames 3022 are arranged in a crisscross pattern to form a second power-generating glass 3011 mounting area that matches the size and quantity of the several power-generating glass units. The second power-generating glass 3011 assembly 301 is fixedly connected to the steel plate via the horizontal frames 3022 and vertical frames 3021 on the outer side of the second power-generating glass frame 302. In this application, the second power-generating glass 3011 is installed on the second power-generating glass frame 302 and fixed to the steel plate via the horizontal frames 3022 and vertical frames 3021 on the outer side of the second power-generating glass frame 302, so that the second power-generating glass 3011 assembly 301 is fixed to the container house body 1. It should be noted that the connection and setting method of the second power-generating glass frame 302 is the same as that of the first power-generating glass frame 201, and will not be described in detail here. Specifically, in this embodiment, the horizontal frame 3022 and the vertical frame 3021 are connected by a threaded connection.
[0037] Furthermore, a threaded hole is provided in the middle of the second π-shaped pressure plate 3012, and a nut is provided in the vertical frame 3021. The second π-shaped pressure plate 3012 is connected to the nut in the vertical frame 3021 by bolts, so that the second power-generating glass 3011 is fixedly connected to the second power-generating glass frame 302. In this application, the second power-generating glass 3011 is connected to the vertical frame 3021 by the second π-shaped pressure plate 3012, and the connection method is a threaded connection, which is firm and lower in cost than welding.
[0038] Furthermore, a foam rod 2025 is fixedly disposed between the two sets of the second concave sub-frames 3014, and the opening formed by the two sets of the second concave sub-frames 3014 is sealed at the foam rod 2025 by sealant 2026.
[0039] The specific embodiments described above further illustrate the purpose, technical solution, and beneficial effects of this utility model. It should be understood that the above description is only a specific embodiment of this utility model and is not intended to limit the scope of protection of this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the scope of protection of this utility model.
Claims
1. A prefabricated modular power generation building container house, comprising a container house main body (1), characterized in that, The main body (1) of the container house includes a photovoltaic power generation module (2). The top of the main body (1) of the container house has a pre-set bolt hole. The photovoltaic power generation module (2) includes a first power generation glass frame (201) and a first power generation glass component (202) that are fixedly connected. The first power generation glass frame (201) is connected to the bolt hole by bolts to fix the photovoltaic power generation module (2) to the top of the main body (1) of the container house. The glass curtain wall assembly (3) includes a second power generation glass assembly (301). The main body of the container house (1) has a steel plate embedded in it. The second power generation glass assembly (301) is fixed to the main body of the container house (1) by being fixedly connected to the steel plate.
2. The prefabricated modular power generation building according to claim 1, characterized in that, The first power-generating glass assembly (202) includes a plurality of first power-generating glass (2021), the plurality of first power-generating glass (2021) are fixedly connected to each other by a first connecting component, and the first power-generating glass assembly (202) is fixedly connected to the first power-generating glass frame (201) by the first connecting component.
3. The prefabricated modular power generation building according to claim 2, characterized in that, The first power generation glass frame (201) includes several crisscrossing square tubes (2011) and at least four support columns (2012). The at least four support columns (2012) fix the first power generation glass frame (201) to the top of the container house body (1) by bolts. The several square tubes (2011) are crisscrossed to form several first power generation glass installation areas that match the size and number of the first power generation glass (2021).
4. The prefabricated modular power generation building according to claim 3, characterized in that, The first connecting assembly includes a first π-shaped pressure plate (2022) and two sets of J-shaped sub-frames (2023). The left and right sides of the first π-shaped pressure plate (2022) are respectively inserted into the barbs of the two sets of J-shaped sub-frames (2023), and the long sides of the two sets of J-shaped sub-frames (2023) are set at the upper end of the first π-shaped pressure plate (2022). The first π-shaped pressure plate (2022) is provided with a threaded through hole in the middle. The first π-shaped pressure plate (2022) is fixed to the intersection of the square tube (2011) by bolts, and the J-shaped sub-frames (2023) are fixed to the intersection of the square tube (2011). The first power-generating glass (2021) is fixedly connected to the long side of the J-shaped sub-frames (2023) by structural adhesive (2024).
5. The prefabricated modular power generation building according to claim 4, characterized in that, A foam rod (2025) is fixedly disposed between the two sets of J-shaped sub-frames (2023), and the opening formed by the two sets of J-shaped sub-frames (2023) is sealed at the foam rod (2025) with sealant (2026).
6. The prefabricated modular power generation building according to claim 1, characterized in that, The second power generation glass assembly (301) includes a plurality of second power generation glasses (3011), and the plurality of second power generation glasses (3011) are respectively fixed by second connecting assemblies disposed on opposite sides of the second power generation glasses (3011).
7. The prefabricated modular power generation building according to claim 6, characterized in that, The second connecting assembly includes a second π-shaped pressure plate (3012), two sets of first concave sub-frames (3013) and two sets of second concave sub-frames (3014). The two ends of the second π-shaped pressure plate (3012) are respectively inserted into the notches of the two sets of first concave sub-frames (3013). A third concave sub-frame (3015) is provided on one side of the first concave sub-frame (3013) located at the upper end of the second π-shaped pressure plate (3012). The two sets of second concave sub-frames (3014) are respectively inserted into the grooves of the two sets of third concave sub-frames (3015). One side of the second power-generating glass (3011) is inserted into the third concave sub-frame (3015) and connected to the third concave sub-frame (3015) by structural adhesive (2024).
8. The prefabricated modular power generation building according to claim 7, characterized in that, The glass curtain wall assembly (3) further includes a second power-generating glass frame (302), which includes a plurality of vertical frames (3021) and a plurality of horizontal frames (3022). The plurality of vertical frames (3021) and the plurality of horizontal frames (3022) are interwoven to form a second power-generating glass installation area that matches the size and number of the plurality of second power-generating glasses (3011). The second power-generating glass assembly (301) is fixedly connected to the steel plate through the horizontal frames (3022) and vertical frames (3021) on the outside of the second power-generating glass frame (3022).
9. The prefabricated modular power generation building according to claim 8, characterized in that, The second π-shaped pressure plate (3012) is provided with a threaded hole in the middle, and the vertical frame (3021) is provided with a nut. The second π-shaped pressure plate (3012) is connected to the nut in the vertical frame (3021) by bolts so that the second power generation glass (3011) is fixedly connected to the second power generation glass frame (302).
10. The prefabricated modular power generation building according to claim 7, characterized in that, A foam rod (2025) is fixedly disposed between the two sets of the second concave sub-frames (3014), and the opening formed by the two sets of the second concave sub-frames (3014) is sealed at the foam rod (2025) by sealant (2026).