Photovoltaic shed energy consumption connecting structure

Abstract

The utility model relates to the technical field of photovoltaic sheds, in particular to a photovoltaic shed energy consumption connecting structure, which comprises photovoltaic shed rigid frame units and purline assemblies for connecting two adjacent photovoltaic shed rigid frame units, and further comprises damping connecting pieces, and the damping connecting piece is provided with a flexible connecting part for connecting two adjacent photovoltaic shed rigid frame units. The photovoltaic shed energy consumption connecting structure provided by the utility model has the advantages of simplicity, high efficiency and convenience in installation, excavates an energy consumption mechanism that the connecting parts between the structural unit bodies enter a plastic zone, can form a structural multi-defense-line system, resists the disaster influence of earthquakes or typhoons, ensures the safety of a structural system, and also ensures the energy consumption of the photovoltaic shed. And the steel consumption of the structure is reduced, and considerable economic benefits are achieved.

Description

Technical Field

[0001] The utility model relates to the technical field of photovoltaic sheds, in particular to an energy-consuming connection structure of a photovoltaic shed. Background Art

[0002] With the popularization of zinc-aluminum-magnesium high-strength anti-corrosion coatings, more and more photovoltaic projects choose zinc-aluminum-magnesium coated steel. This material has a 30-year anti-corrosion ability and the unique quality of self-healing anti-scratch damage, making it the preferred anti-corrosion steel in humid environments. The module-assembled zinc-aluminum-magnesium photovoltaic shed forms a complete module through the mutual combination of simple structural units and then constitutes a power station. Its connection structure can refer to the invention patent with the publication number of CN116702270A and the name of a design method for a modular photovoltaic shed power station. This patent records that two structural units A and B can be combined to form a complex BIPV power station. However, the existing module BIPV connection structure is prone to failure and damage under external force impact, which will not only cause economic losses but also pose safety problems. Summary of the Utility Model

[0003] The technical problem to be solved by the utility model is to provide a safe and reliable energy-consuming connection structure for a photovoltaic shed.

[0004] To solve the above technical problem, the technical solution adopted by the utility model is: an energy-consuming connection structure of a photovoltaic shed, including a photovoltaic shed rigid frame unit and a purlin assembly connecting two adjacent photovoltaic shed rigid frame units, further including a damping connector. The purlin assembly and the damping connector are arranged up and down, and the damping connector is provided with a flexible connection part for connecting two adjacent photovoltaic shed rigid frame units.

[0005] Further, each photovoltaic shed rigid frame unit is connected to at least two flexible connection parts on the damping connector.

[0006] Further, the flexible connection part is a strip-shaped hole or an arc-shaped hole, and the photovoltaic shed rigid frame unit is slidably connected to the strip-shaped hole or the arc-shaped hole.

[0007] Further, the photovoltaic shed rigid frame unit includes a water trough beam, and the water trough beam includes a horizontal plate and a vertical plate connected perpendicularly. The horizontal plate is connected to the purlin assembly, and the vertical plate is connected to the damping connector.

[0008] Further, the purlin assembly includes a purlin support and a water trough purlin, and the water trough purlin is connected to the water trough beam through the purlin support.

[0009] Further, the photovoltaic shed rigid frame unit further includes a downspout, and the downspout is installed between the vertical plates of two adjacent photovoltaic shed rigid frame units and is located below the damping connector.

[0010] Further, the horizontal plate is connected to the purlin assembly through fasteners, and the vertical plate is connected to the damping connector through fasteners.

[0011] Further, the damping connecting member is a cross bracing plate, and the cross bracing plate is parallel to the vertical plate.

[0012] Further, the photovoltaic shed rigid frame unit further includes a photovoltaic panel, and the photovoltaic panel is mounted on the water tank purlin.

[0013] Further, the photovoltaic shed rigid frame unit is locked to the flexible connecting portion through a fastener.

[0014] The beneficial effects of the present utility model are as follows: for the energy-consuming connection structure of the photovoltaic shed, a damping connecting member is added on the basis of the traditional module BIPV connection structure. During use, the damping connecting member is located below the purlin assembly, and there is a gap between the two. The damping connecting member is provided with a flexible connecting portion for connecting two adjacent photovoltaic shed rigid frame units. When the photovoltaic shed rigid frame unit is in an elastic deformation stress state, the flexible connecting portion can be regarded as a hinge, and the structure is in a normal working state. When the main rigid frame is affected by force majeure such as earthquakes and strong typhoons, the restraint of the flexible connecting portion is relatively weak, so it will enter the large deformation stage first. The damping connecting member is equivalent to a link rod and functions as a structural damper. The purlin assembly also has a certain ability to consume energy and also functions as a structural damper. The whole enters the plastic energy dissipation mechanism. While each unit can independently achieve structural stability, it consumes and resolves strong external force impacts through plasticity. The plastic energy dissipation mechanism protects the structural safety of each independent unit by sacrificing secondary connecting members, and can also conveniently replace the deformed and damaged parts in the plastic energy dissipation area to achieve the effect of rapid post-disaster repair, taking into account both safety and flexibility. The energy-consuming connection structure of the photovoltaic shed provided by the present utility model has the advantages of being simple, efficient and convenient to install, excavates the energy dissipation mechanism of the connection part between the structural unit bodies entering the plastic zone, can form a multi-line defense system of the structure, resist the disaster effects of earthquakes or strong typhoons, not only ensures the safety of the structural system, but also reduces the steel consumption of the structure, achieving considerable economic benefits. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic structural diagram of the energy-consuming connection structure of the photovoltaic shed at the ridge part;

[0016] Figure 2 It is a schematic structural diagram of the energy-consuming connection structure of the photovoltaic shed at the water falling part;

[0017] Figure 3 It is a schematic structural diagram of the photovoltaic shed rigid frame unit;

[0018] Label description:

[0019] 1. Photovoltaic shed rigid frame unit; 11. Water tank beam; 111. Horizontal plate; 112. Vertical plate; 12. Water inlet funnel; 13. Photovoltaic panel; 2. Purlin assembly; 21. Purlin support; 22. Water tank purlin; 3. Damping connecting member; 31. Flexible connecting portion. Detailed implementation manners

[0020] To describe in detail the technical content, achieved objectives and effects of the present utility model, the following is described in conjunction with the implementation manners and with reference to the drawings.

[0021] The present utility model provides an energy-consuming connection structure for a photovoltaic shed, which is mainly applied in the field of building-integrated photovoltaics, including various large-span application scenarios such as residential rooftop photovoltaic sheds, parking shed photovoltaics, simple warehouse photovoltaic sheds, small processing workshop photovoltaic sheds, agricultural-light complementary sheds, and corridor photovoltaic sheds, realizing integrated structural waterproofing, fast installation speed, and remarkable economic and safety benefits, with a broad potential market scale. It can also be applied to the BIPV and BAPV fields of industrial and commercial rooftops, providing a simple, economic, durable and practical power generation and waterproofing solution, and can also be applied to other shed-type waterproof structures for non-photovoltaic panels.

[0022] Please refer to Figures 1 to 3 As shown, the energy-consuming connection structure of the photovoltaic shed of the present utility model includes a photovoltaic shed rigid frame unit 1 and a purlin assembly 2 connecting two adjacent photovoltaic shed rigid frame units 1, and further includes a damping connector 3. The purlin assembly 2 and the damping connector 3 are arranged up and down, and the damping connector 3 is provided with a flexible connection part 31 for connecting two adjacent photovoltaic shed rigid frame units 1.

[0023] As can be seen from the above description, the beneficial effects of the present utility model are as follows: The energy-consuming connection structure of the photovoltaic shed adds a damping connector 3 on the basis of the traditional modular BIPV connection structure. When in use, the damping connector 3 is located below the purlin assembly 2, and there is a gap between them. The damping connector 3 is provided with a flexible connection part 31 for connecting two adjacent photovoltaic shed rigid frame units 1. The energy-consuming connection structure of the photovoltaic shed provided by the present utility model has the advantages of simplicity, high efficiency and convenient installation, explores the energy-consuming mechanism of the connection part between structural unit bodies entering the plastic zone, can form a multi-line defense system of the structure, resist the disaster effects of earthquakes or strong typhoons, not only ensures the safety of the structural system, but also reduces the structural steel consumption, achieving considerable economic benefits.

[0024] In an alternative embodiment, each photovoltaic shed rigid frame unit 1 is connected to at least two flexible connection parts 31 on the damping connector 3.

[0025] As can be seen from the above description, the number of the flexible connection parts 31 connecting each photovoltaic shed rigid frame unit 1 is greater than or equal to two, enhancing the constraint of the energy-consuming structure and ensuring the structural reliability.

[0026] In an alternative embodiment, the flexible connection part 31 is a strip-shaped hole or an arc-shaped hole, and the photovoltaic shed rigid frame unit 1 is slidably connected to the strip-shaped hole or the arc-shaped hole.

[0027] As can be seen from the above description, the hole in the flexible connecting portion 31 is an oblong hole, which can generate large deformation frictional force and acts as a structural damper.

[0028] In an alternative embodiment, the photovoltaic shed rigid frame unit 1 includes a water trough beam 11. The water trough beam 11 includes a horizontal plate 111 and a vertical plate 112 that are vertically connected. The horizontal plate 111 is connected to the purlin assembly 2, and the vertical plate 112 is connected to the damping connecting member 3.

[0029] In an alternative embodiment, the purlin assembly 2 includes a purlin support 21 and a water trough purlin 22. The water trough purlin 22 is connected to the water trough beam 11 through the purlin support 21.

[0030] In an alternative embodiment, the photovoltaic shed rigid frame unit 1 further includes a rainwater hopper 12. The rainwater hopper 12 is installed between the vertical plates 112 of two adjacent photovoltaic shed rigid frame units 1 and is located below the damping connecting member 3.

[0031] As can be seen from the above description, the photovoltaic shed energy-consuming connection structure located at the water-falling part has an additional rainwater hopper 12 structure compared with the photovoltaic shed energy-consuming connection structure located at the ridge part.

[0032] In an alternative embodiment, the horizontal plate 111 is connected to the purlin assembly 2 through fasteners, and the vertical plate 112 is connected to the damping connecting member 3 through fasteners.

[0033] In an alternative embodiment, the damping connecting member 3 is a cross brace plate, and the cross brace plate is parallel to the vertical plate 112.

[0034] In an alternative embodiment, the photovoltaic shed rigid frame unit 1 further includes a photovoltaic panel 13. The photovoltaic panel 13 is erected on the water trough purlin 22.

[0035] In an alternative embodiment, the photovoltaic shed rigid frame unit 1 is locked to the flexible connecting portion 31 through fasteners.

[0036] The working principle of the present utility model is as follows: When the photovoltaic shed rigid frame unit 1 is in an elastic deformation stress state, the flexible connecting portion 31 can be regarded as a hinge, and the structure is in a normal working state. When the main rigid frame is affected by irresistible forces such as earthquakes and strong typhoons, the restraint of the flexible connecting portion 31 is relatively weak. Therefore, it will enter the large deformation stage first. The damping connecting member 3 is equivalent to a link rod and acts as a structural damper. The purlin assembly 2 also has a certain energy-consuming ability and also acts as a structural damper. The whole enters the plastic energy-consuming mechanism. While each unit can achieve structural stability independently, it consumes and resolves strong external force impacts through plasticity. The plastic energy-consuming mechanism protects the structural safety of each independent unit by sacrificing secondary connecting components, and can also conveniently replace the deformed and damaged parts in the plastic energy-consuming area to achieve the effect of rapid post-disaster repair, taking into account both safety and flexibility.

[0037] Please refer to Figures 1 to 3As shown in the figure, Embodiment 1 of the present utility model is: a photovoltaic shed energy-consuming connection structure, which includes a photovoltaic shed rigid frame unit 1 and a purlin assembly 2 connecting two adjacent photovoltaic shed rigid frame units 1. It further includes a damping connector 3. The purlin assembly 2 and the damping connector 3 are arranged vertically. The damping connector 3 is provided with a flexible connection part 31 connecting two adjacent photovoltaic shed rigid frame units 1.

[0038] Each photovoltaic shed rigid frame unit 1 is connected to at least two flexible connection parts 31 on the damping connector 3. The flexible connection part 31 is a strip-shaped hole or an arc-shaped hole, and the photovoltaic shed rigid frame unit 1 is slidably connected to the strip-shaped hole or the arc-shaped hole. The photovoltaic shed rigid frame unit 1 includes a water trough beam 11. The water trough beam 11 includes a horizontally connected cross plate 111 and a vertically connected vertical plate 112. The cross plate 111 is connected to the purlin assembly 2, and the vertical plate 112 is connected to the damping connector 3. The purlin assembly 2 includes a purlin support 21 and a water trough purlin 22. The water trough purlin 22 is connected to the water trough beam 11 through the purlin support 21. The photovoltaic shed rigid frame unit 1 further includes a downspout 12. The downspout 12 is installed between the vertical plates 112 of two adjacent photovoltaic shed rigid frame units 1 and is located below the damping connector 3. The cross plate 111 is connected to the purlin assembly 2 through a fastener, and the vertical plate 112 is connected to the damping connector 3 through a fastener. The damping connector 3 is a cross brace plate parallel to the vertical plate 112. The photovoltaic shed rigid frame unit 1 further includes a photovoltaic panel 13. The photovoltaic panel 13 is erected on the water trough purlin 22. The photovoltaic shed rigid frame unit 1 is locked to the flexible connection part 31 through a fastener.

[0039] In summary, for the energy-consuming connection structure of the photovoltaic shed of the present utility model, a damping connector is added on the basis of the traditional module BIPV connection structure. During use, the damping connector is located below the purlin assembly, and there is a gap between the two. The damping connector is provided with a flexible connection part for connecting two adjacent photovoltaic shed rigid frame units. When the photovoltaic shed rigid frame unit is in an elastic deformation stress state, the flexible connection part can be regarded as a hinge, and the structure is in a normal working state. When the main rigid frame is affected by irresistible forces such as earthquakes and strong typhoons, the restraint of the flexible connection part is relatively weak, so it will enter the large deformation stage first. The damping connector is equivalent to a link rod and functions as a structural damper. The purlin assembly also has a certain ability to consume energy and functions as a structural damper. The whole enters the plastic energy-consuming mechanism. While each unit can independently achieve structural stability, it consumes and resolves strong external force impacts through plasticity. The plastic energy-consuming mechanism plays a role in protecting the structural safety of each independent unit by sacrificing secondary connecting components, and can also conveniently replace the deformed and damaged parts in the plastic energy-consuming area to achieve the effect of rapid post-disaster repair, taking into account both safety and flexibility. The energy-consuming connection structure of the photovoltaic shed provided by the present utility model has the advantages of simplicity, high efficiency and convenient installation, explores the energy-consuming mechanism of the connection part between structural unit bodies entering the plastic zone, can form a multi-defense line system of the structure, resist the disaster effects of earthquakes or strong typhoons, not only ensures the safety of the structural system, but also reduces the steel consumption of the structure, achieving considerable economic benefits.

[0040] The above are only the embodiments of the present utility model, and do not limit the patent scope of the present utility model accordingly. Any equivalent transformation made by using the content of the specification and drawings of the present utility model, or directly or indirectly applied in the relevant technical fields, shall be similarly included in the patent protection scope of the present utility model.

Claims

1. A photovoltaic shed energy-consuming connection structure, comprising a photovoltaic shed frame unit and a purlin assembly connecting two adjacent photovoltaic shed frame units, characterized in that: It also includes a damping connector. The purlin assembly and the damping connector are arranged up and down. The damping connector is provided with a flexible connecting portion connecting two adjacent photovoltaic shed frame units.

2. The photovoltaic shed energy-consuming connection structure according to claim 1 is characterized in that: Each photovoltaic shed rigid frame unit is connected to at least two flexible connection parts on the damping connection member.

3. The photovoltaic shed energy-consuming connection structure according to claim 1 is characterized in that: The flexible connection part is a strip hole or an arc hole, and the photovoltaic shed frame unit is slidably connected to the strip hole or the arc hole.

4. The photovoltaic shed energy-consuming connection structure according to claim 1, characterized in that: The photovoltaic shed frame unit includes a trough beam, which includes a vertically connected horizontal plate and a vertical plate. The horizontal plate is connected to the purlin assembly, and the vertical plate is connected to the damping connector.

5. The photovoltaic shed energy-consuming connection structure according to claim 4 is characterized in that: The purlin assembly comprises a purlin bracket and a water tank purlin, and the water tank purlin is connected to the water tank beam through the purlin bracket.

6. The photovoltaic shed energy-consuming connection structure according to claim 4, characterized in that: The photovoltaic shed rigid frame unit also includes a water dropper, which is installed between the vertical plates of two adjacent photovoltaic shed rigid frame units and is located below the damping connector.

7. The photovoltaic shed energy-consuming connection structure according to claim 4, characterized in that: The transverse plate is connected to the purlin assembly through fasteners, and the vertical plate is connected to the damping connector through fasteners.

8. The photovoltaic shed energy-consuming connection structure according to claim 4, characterized in that: The damping connecting member is a transverse brace plate, and the transverse brace plate is parallel to the vertical plate.

9. The photovoltaic shed energy-consuming connection structure according to claim 1, characterized in that: The photovoltaic shed frame unit also includes photovoltaic panels, which are mounted on the purlins of the water tank.

10. The photovoltaic shed energy-consuming connection structure according to claim 1, characterized in that: The photovoltaic shed frame unit is locked with the flexible connection part through fasteners.

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