Power generation photovoltaic tree

Abstract

The utility model provides a power generation photovoltaic tree, and relates to the technical field of photovoltaic power generation, and the power generation photovoltaic tree comprises a main body steel structure; the photovoltaic glass fiber reinforced plastic net rack is connected with the main body steel structure through a first connecting piece; the photovoltaic glass is connected with the photovoltaic glass fiber reinforced plastic net rack through a fourth connecting piece; the suspended ceiling metal plate net rack is connected with the main body steel structure through a second connecting piece; the wood grain transfer printing perforated aluminum plate is connected with the suspended ceiling metal plate net rack through a third connecting piece; and the frame aluminum plate is fixedly connected with the edges of the photovoltaic glass, the photovoltaic glass fiber reinforced plastic net rack, the main body steel structure, the suspended ceiling metal plate net rack and the wood grain transfer printing perforated aluminum plate. According to the scheme of the utility model, the photovoltaic glass, the photovoltaic glass fiber reinforced plastic net rack and the suspended ceiling metal plate net rack are respectively assembled and integrated in a factory, and a main body steel structure assembly type installation mode is adopted on site, so that the assembly precision and quality of the power generation photovoltaic tree and the on-site installation efficiency are improved, the construction period is shortened, and the cost is reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of photovoltaic power generation, in particular to a power generation photovoltaic tree. Background Art

[0002] The existing photovoltaic curtain wall system can only realize the photovoltaic function at a certain pre-designed angle. It has a relatively ordinary appearance and cannot realize the photovoltaic panels hanging on the "trunk" like leaves. It cannot realize irregular angle and multiple cross-section photovoltaic curtain wall systems. In addition, the components are installed on site, resulting in low assembly accuracy of photovoltaic equipment, low installation efficiency, long construction period and high cost. Utility Model Content

[0003] The utility model provides a power generation photovoltaic tree, which solves the problems of low assembly precision, ordinary decorative effect, low on-site installation efficiency, long construction period and high cost of special-shaped photovoltaic curtain wall systems in the prior art.

[0004] To solve the above technical problems, the technical solution of this novel invention is as follows:

[0005] The embodiment of the utility model provides a photovoltaic tree for power generation, comprising:

[0006] Main steel structure;

[0007] A photovoltaic fiberglass grid connected to the main steel structure via a first connecting member, wherein the photovoltaic fiberglass grid is located on one side of the main steel structure;

[0008] Photovoltaic glass connected to the photovoltaic glass steel grid via a fourth connecting member;

[0009] A suspended ceiling metal plate grid connected to the main steel structure via a second connecting piece, wherein the suspended ceiling metal plate grid is located on the other side of the main steel structure;

[0010] A wood grain transfer perforated aluminum plate connected to the ceiling metal plate grid via a third connecting member;

[0011] A frame aluminum plate fixedly connected to the edges of the photovoltaic glass, photovoltaic glass fiber reinforced plastic grid, main steel structure, ceiling metal plate grid and wood grain transfer perforated aluminum plate.

[0012] Optionally, the photovoltaic glass comprises:

[0013] Multiple photovoltaic glass panels of different sizes and shapes.

[0014] Optionally, the first connecting member includes:

[0015] A transition round steel pipe connected to the photovoltaic fiberglass grid;

[0016] A skeleton support base connected to the main steel structure;

[0017] The transition round steel pipe is connected to the skeleton support base through a first steel transition piece.

[0018] Optionally, the second connecting member includes:

[0019] A hoop member provided on the main steel structure;

[0020] A prefabricated steel adapter connected to the hoop member;

[0021] The prefabricated steel adapter is connected to the ceiling metal plate grid through a second steel adapter.

[0022] Optionally, the third connecting member includes:

[0023] A connecting piece connected to the ceiling metal plate grid;

[0024] A ceiling wood grain aluminum plate sub-frame connected to the connecting piece;

[0025] The connecting code piece is connected to the wood grain transfer perforated aluminum plate through the ceiling wood grain aluminum plate sub-frame.

[0026] Optionally, the fourth connecting member includes:

[0027] An adjustable rotating sub-frame connected to the edge of the photovoltaic glass panel;

[0028] An adjustable rotatable sub-frame base connected to the photovoltaic fiberglass grid;

[0029] The adjustable rotating sub-frame is connected to the adjustable rotating sub-frame base.

[0030] Optionally, the wood grain transfer perforated aluminum plate is provided with a plurality of holes;

[0031] A wood grain lining aluminum plate is arranged above each hole of the wood grain transfer perforated aluminum plate;

[0032] The ceiling metal plate grid is arranged on the wood-grained aluminum plate lining.

[0033] Optionally, an acrylic plate is arranged above the wood grain transfer perforated aluminum plate.

[0034] Optionally, a lamp mounting bracket is arranged on the ceiling metal plate grid, and the lamp mounting bracket is arranged around the holes of the wood grain transfer perforated aluminum plate;

[0035] The lamp mounting bracket is provided with a mounting lamp.

[0036] Optionally, an anti-corrosion gasket is provided between the main steel structure and the clamping member.

[0037] The above solution of the utility model includes at least the following beneficial effects:

[0038] The power generation photovoltaic tree of the utility model comprises: a main steel structure; a photovoltaic glass steel grid connected to the main steel structure through a first connecting piece, the photovoltaic glass steel grid is located on one side of the main steel structure; a photovoltaic glass connected to the photovoltaic glass steel grid through a fourth connecting piece; a ceiling metal plate grid connected to the main steel structure through a second connecting piece, the ceiling metal plate grid is located on the other side of the main steel structure; a wood grain transfer perforated aluminum plate connected to the ceiling metal plate grid through a third connecting piece; and a frame aluminum plate fixedly connected to the edges of the photovoltaic glass, photovoltaic glass steel grid, main steel structure, ceiling metal plate grid and wood grain transfer perforated aluminum plate. The solution of the utility model realizes the separate assembly and integration of photovoltaic glass, photovoltaic glass steel grid and ceiling metal plate grid in the factory and the main steel structure and overall installation on site, thereby improving the assembly accuracy, quality and on-site installation efficiency of the power generation photovoltaic tree, shortening the construction period and reducing costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] Figure 1 It is a vertical cross-section of the power generation photovoltaic tree of the utility model;

[0040] Figure 2 It is a cable connection structure diagram of the photovoltaic glass of the power generation photovoltaic tree of the utility model;

[0041] Figure 3 It is a structural diagram of the photovoltaic glass of the power generation photovoltaic tree of the utility model;

[0042] Figure 4 It is a structural diagram of the photovoltaic fiberglass grid of the photovoltaic tree of the utility model;

[0043] Figure 5 It is a structural diagram of the frame aluminum plate of the power generation photovoltaic tree of the utility model;

[0044] Figure 6 It is a structural diagram of the main steel structure of the photovoltaic tree of the utility model;

[0045] Figure 7 It is a structural diagram of the ceiling metal plate grid of the power generation photovoltaic tree of the utility model;

[0046] Figure 8 It is a structural diagram of the wood grain transfer perforated aluminum plate of the power generation photovoltaic tree of the utility model;

[0047] Fig. 9 yes Figure 1 Enlarged view of point A in the middle;

[0048] Fig.10 yes Figure 1 Enlarged view of point C in the middle;

[0049] Fig.11 yes Figure 1 Enlarged view of point B in the middle;

[0050] Fig.12 It is a plan view of the wood grain transfer perforated aluminum plate of the power generation photovoltaic tree of the utility model;

[0051] Fig.13 yes Figure 1 Enlarged view of point D in the middle;

[0052] Fig.14 It is a schematic diagram of the structure of the lamp mounting bracket of the power generation photovoltaic tree of the utility model;

[0053] Fig.15 This is a schematic diagram of the aluminum plate structure of the frame of the photovoltaic tree of the utility model;

[0054] Fig.16 yes Fig. 9 Vertical cross-section along cc. Description of the drawings:

[0056] 1. Photovoltaic glass; 2. Main steel structure; 21. Skeleton support base; 22. First steel adapter; 23. Hoop; 24. Prefabricated steel adapter; 25. Second steel adapter; 251. Stainless steel bolt group; 26. Anti-corrosion gasket; 3. Photovoltaic glass steel grid; 31. Photovoltaic glass plate; 301. First plate; 302. Second plate; 303. Third plate; 304. Fourth plate; 305. Fifth plate; 306. Sixth plate; 307. Seventh plate; 308. Eighth plate; 309. Ninth plate; 3010. Tenth plate; 3011. The eleventh plate; 3012, the twelfth plate; 3013, the thirteenth plate; 3014, the fourteenth plate; 3015, the fifteenth plate; 311, adjustable rotating sub-frame; 312, adjustable rotating sub-frame base; 313, pressure block; 314, connecting bolt group; 321, transfer round steel pipe; 4, ceiling metal plate grid; 41, connecting code piece; 42, ceiling wood grain aluminum plate sub-frame; 43, lamp mounting bracket; 44, lamp; 5, wood grain transfer perforated aluminum plate; 51, lining wood grain aluminum plate; 52, U-shaped aluminum strip; 53, light strip; 6, frame aluminum plate; 7, acrylic plate. DETAILED DESCRIPTION

[0057] The exemplary embodiments of the present invention will be described in more detail below with reference to the accompanying drawings. Although the exemplary embodiments of the present invention are shown in the accompanying drawings, it should be understood that the present invention can be implemented in various forms and should not be limited by the embodiments described herein. On the contrary, these embodiments are provided to enable a more thorough understanding of the present invention and to fully convey the scope of the present invention to those skilled in the art.

[0058] like Figures 1 to 8 As shown, an embodiment of the utility model provides a photovoltaic tree for power generation, comprising:

[0059] Main steel structure 2;

[0060] A photovoltaic fiberglass grid 3 connected to the main steel structure 2 via a first connecting member, wherein the photovoltaic fiberglass grid 3 is located on one side of the main steel structure 2;

[0061] Photovoltaic glass 1 connected to the photovoltaic glass steel grid 3 via a fourth connecting member;

[0062] A suspended ceiling metal plate grid 4 connected to the main steel structure 2 via a second connecting member, wherein the suspended ceiling metal plate grid 4 is located at the other side of the main steel structure 2;

[0063] A wood grain transfer perforated aluminum plate 5 connected to the ceiling metal plate grid 4 via a third connecting member;

[0064] A frame aluminum plate 6 is fixedly connected to the edges of the photovoltaic glass 1, the photovoltaic glass fiber reinforced plastic grid 3, the main steel structure 2, the ceiling metal plate grid 4 and the wood grain transfer perforated aluminum plate 5.

[0065] In this embodiment, the frame aluminum plate 6 is connected to the photovoltaic fiberglass grid 3 through a first connecting component, and the frame aluminum plate 6 is connected to the ceiling metal plate grid 4 through a second connecting component; the main steel structure 2 includes: a first main steel structure and a second main steel structure, the first main steel structure is respectively connected to the photovoltaic fiberglass grid 3 and the ceiling metal plate grid 4 on both sides, one end of the second main steel structure is connected to the first main steel structure, and the other end is connected to the ground.

[0066] Specifically, in this application, it is necessary to design the shape of the power-generating photovoltaic tree in advance, assemble the photovoltaic glass, photovoltaic fiberglass grid 3, ceiling metal plate grid 4 and wood grain transfer perforated aluminum plate 5 in the factory, and assemble the first main steel structure, the second main steel structure, the assembled photovoltaic glass 1, the photovoltaic fiberglass grid 3, the ceiling metal plate grid 4 and the wood grain transfer perforated aluminum plate 5 on site, and reversely measure the processing and installation accuracy of the power-generating photovoltaic tree through laser scanning; through the overall installation of the first main steel structure, the second main steel structure, the photovoltaic glass 1, the photovoltaic fiberglass grid 3, the ceiling metal plate grid 4 and the wood grain transfer perforated aluminum plate 5 on site, while ensuring the waterproof and drainage performance of the roof, architectural aesthetics and photovoltaic power generation are integrated.

[0067] like Figure 2 and Figure 3 As shown, in an optional embodiment of the utility model, the photovoltaic glass 1 includes:

[0068] A plurality of photovoltaic glass panels 31 of different sizes and shapes.

[0069] In this embodiment, there are 15 photovoltaic glass panels 31 of different sizes and shapes, namely: a first panel 301, a second panel 302, a third panel 303, a fourth panel 304, a fifth panel 305, a sixth panel 306, a seventh panel 307, an eighth panel 308, a ninth panel 309, a tenth panel 3010, an eleventh panel 3011, a twelfth panel 3012, a thirteenth panel 3013, a fourteenth panel 3014 and a fifteenth panel 3015; the sixth panel 306 is a high-point glass panel;

[0070] The specifications of the first plate 301 are as follows: the degrees of the internal angles are: 55.3°, 67.3°, 57.4°;

[0071] The specifications of the second plate 302 are: the internal angles are: 58.4°, 97.5°, 24.1°;

[0072] The specifications of the third plate 303 are: the internal angles are: 28.4°, 125.4°, 26.2°;

[0073] The specifications of the fourth plate 304 are: the internal angles are: 55.4°, 101.2°, 23.3°;

[0074] The specifications of the fifth plate 305 are: the degrees of the internal angles are: 23.4°, 98.7°, 57.8°;

[0075] The specifications of the sixth plate 306 are: the degrees of the internal angles are: 55.5°, 62.8°, 61.7°;

[0076] The specifications of the seventh plate 307 are: the degrees of the internal angles are: 26.8°, 122.6°, 30.5°;

[0077] The specifications of the eighth plate 308 are: the degrees of the internal angles are: 59.2°, 96°, 24.9°;

[0078] The specifications of the ninth plate 309 are: the degrees of the internal angles are: 28.2°, 83.9°, 67.9°;

[0079] The specifications of the tenth plate 3010 are: the degrees of the internal angles are: 58.1°, 66.2°, 55.7°;

[0080] The specifications of the eleventh plate 3011 are: the degrees of the internal angles are: 28.1°, 123.5°, 28.4°;

[0081] The specifications of the twelfth plate 3012 are: the degrees of the internal angles are: 67.1°, 84.6°, 28.3°;

[0082] The specifications of the thirteenth plate 3013 are: the degrees of the internal angles are: 60°, 120°, 120°, 60°;

[0083] The specifications of the fourteenth plate 3014 are: the degrees of the internal angles are: 60°, 120°, 120°, 60°;

[0084] The specifications of the fifteenth plate 3015 are: the degrees of the internal angles are: 60°, 120°, 120°, 60°;

[0085] In this embodiment, the angles of the photovoltaic glass panels 31 are adjusted by using a plurality of photovoltaic glass panels 31 with irregular angles and an assembled modular design. On the basis of ensuring waterproofness and drainage, the architectural aesthetics and the photovoltaic tree for power generation are integrated to increase the beauty of the photovoltaic tree for power generation. In a preferred embodiment, the photovoltaic glass panels 31 include 6 mm thick tempered glass (TP6), photovoltaic cells (POE), crystalline silicon cells, photovoltaic cells (POE), 6 mm thick tempered glass (TP6) tempered laminated ultra-white photovoltaic glass;

[0086] The crystalline silicon cell and photovoltaic cell are both rectangular. Through the cell layout design, the triangular glass plate can be adapted to the maximum extent. The photovoltaic glass plate 31 is spliced ​​and installed on the top of the power generation photovoltaic tree in sequence along the shape of the photovoltaic fiberglass grid 3. It is necessary to strictly control the accuracy of each photovoltaic glass plate 31 and the rigor of the construction process. The overall power generation photovoltaic tree is customized with 15 crystalline silicon cells, the output power is not less than 80% of the standard power, the installation capacity is 1.995kWp, and the combustion performance level of each crystalline silicon cell is Class A; 15 crystalline silicon cells are connected in series into a group string connected to the photovoltaic measurement system of the hybrid inverter, and a 5.4kWh battery is configured. The output of the hybrid inverter is connected to the distribution box, and the terminal load power interface is set. The system is off-grid operation, and the battery provides voltage support during off-grid operation; the photovoltaic glass plate 31 is connected to the power generation monitoring facility, and the power generation monitoring facility is set on the ground. The power generation and power consumption of the photovoltaic glass plate 31 can be monitored in real time through the monitoring platform; the power generation photovoltaic tree operation mode of this application is self-generation and self-use, energy storage mode.

[0087] Cables are arranged on each photovoltaic glass panel 31 for connection, and the sixth panel 306 is used as an outlet panel. The positive pole of the cable is connected from the sixth panel 306 to the positive pole PV+ of the inverter, and the negative pole is connected from the sixth panel 306 to the negative pole PV- of the inverter. The cable is a photovoltaic-specific cable with a specification of 1*4mm2DC1000V. The cable is laid along the purlins on the photovoltaic glass panel 31, and takes the positive pole as the starting point to respectively connect the sixth panel 306, the fourth panel 304, the third panel 303, the second panel 302, the first panel 301, the twelfth panel 3012, the eleventh panel 3011, the thirteenth panel 3013, the fifteenth panel 3015, the fourteenth panel 3014, the eleventh panel 3011, the ninth panel 309, the tenth panel 3010, the eighth panel 308, the seventh panel 307, the fifth panel 305, and the sixth panel 306, and then returns to the sixth panel 306 and outputs along the negative pole.

[0088] The photovoltaic FRP grid 3 is processed by three-dimensional modeling and lofting using the building information modeling engineering technology (BIM), and is pre-assembled into an integral photovoltaic FRP grid 3 by welding in the factory. The processing and installation accuracy of the photovoltaic FRP grid 3 is checked on-site through dot marking and re-measurement. The photovoltaic FRP grid 3 is hoisted and installed as a whole, which improves the assembly accuracy and quality of the photovoltaic tree and the on-site installation efficiency, and shortens the construction period.

[0089] like Fig. 9 and Fig.16 As shown, in an optional embodiment of the utility model, the first connecting member includes:

[0090] A transition round steel pipe 321 connected to the photovoltaic fiberglass reinforced plastic grid 3;

[0091] A skeleton support base 21 connected to the main steel structure 2;

[0092] The transition round steel pipe 321 is connected to the skeleton support base 21 through a first steel transition piece 22 .

[0093] In this embodiment, the photovoltaic fiberglass grid 3 is welded to the adapter round steel pipe 321, the main steel structure 2 is welded to the skeleton support base 21, one end of the first steel adapter 22 is welded to the skeleton support base 21, and the other end is fixedly connected to the adapter round steel pipe 321 through a connecting bolt group 314.

[0094] Specifically, the photovoltaic fiberglass reinforced plastic grid 3 adopts a T-shaped steel keel to reduce the load of the photovoltaic fiberglass reinforced plastic grid 3 on the main steel structure 2.

[0095] The T-shaped steel keels are welded and assembled into a photovoltaic fiberglass grid 3 in the factory, and the photovoltaic fiberglass grid 3 is fixed on the main steel structure 2 through five supports and a first steel adapter 22 reserved in advance on the main steel structure 2.

[0096] In an optional embodiment of the present utility model, the second connecting member includes:

[0097] A hoop member 23 provided on the main steel structure 2;

[0098] A prefabricated steel adapter 24 connected to the hoop member 23;

[0099] The prefabricated steel adapter 24 is connected to the ceiling metal plate grid 4 through a second steel adapter 25 .

[0100] In this embodiment, the hoop member 23 is fixedly connected to the prefabricated steel adapter 24, one end of the prefabricated steel adapter 24 is fixedly connected to the second steel adapter 25 via a stainless steel bolt group 251, and the other end is fixedly connected to the ceiling metal plate grid 4 via bolts; the ceiling metal plate grid 4 adopts steel square tubes.

[0101] like Fig.10 As shown, in an optional embodiment of the utility model, the third connecting member includes:

[0102] A connection piece 41 connected to the ceiling metal plate grid 4;

[0103] A ceiling wood grain aluminum plate sub-frame 42 connected to the connecting code member 41;

[0104] The connecting code member 41 is connected to the wood grain transfer perforated aluminum plate 5 through the ceiling wood grain aluminum plate sub-frame 42 .

[0105] In this embodiment, one end of the connecting code piece 41 is fixedly connected to the ceiling metal plate grid 4 by bolts, and the other end is fixedly connected to one end of the ceiling wood grain aluminum plate sub-frame 42 by bolts, and the other end of the ceiling wood grain aluminum plate sub-frame 42 is fixedly connected to the wood grain transfer perforated aluminum plate 5; the wood grain transfer perforated aluminum plate 5 is fixed to the ceiling metal plate grid 4 by the ceiling wood grain aluminum plate sub-frame 42 and the connecting code piece 41, and the panel shape of the wood grain transfer perforated aluminum plate 5 is approximately rhombus and triangle, and a slit system is adopted between the panels, and an acrylic plate 7 is arranged on the wood grain transfer perforated aluminum plate 5.

[0106] like Fig.12 As shown, in an optional embodiment of the utility model, the fourth connecting member includes:

[0107] An adjustable rotating sub-frame 311 connected to the edge of the photovoltaic glass panel 31;

[0108] An adjustable rotatable sub-frame base 312 connected to the photovoltaic fiberglass grid 3;

[0109] The adjustable rotatable sub-frame 311 is connected to the adjustable rotatable sub-frame base 312 .

[0110] In this embodiment, the adjustable rotating sub-frame 311 is snap-connected with the adjustable rotating sub-frame base 312. By adjusting the angles of the adjustable rotating sub-frame 311 and the adjustable rotating sub-frame base 312, the angle of the photovoltaic glass panel 31 can be adjusted up and down. A pressing block 313 is arranged between the photovoltaic glass panels 31, and the gap is filled with sealant. Through the pre-designed photovoltaic tree shape, the first panel 301 to the fifteenth panel 3015, the adjustable rotating sub-frame 311 and the adjustable rotating sub-frame base 312 are assembled into a whole photovoltaic glass panel 31 in the factory. By adjusting the adjustable rotating sub-frame 311 on site, the angle of the photovoltaic glass panel 31 is changed to adapt to the required angle of the power generation photovoltaic tree.

[0111] The utility model uses photovoltaic glass panels 31 with irregular triangular cross-sections and various angles to achieve photovoltaic power generation functions and tree effects according to the pre-designed photovoltaic power generation tree shape. By adopting assembled modular design, the photovoltaic glass panels 31, photovoltaic fiberglass grid 3, and adjustable rotating sub-frame 311 are assembled into an integral photovoltaic glass unit panel in the factory, and the photovoltaic glass unit panel is installed as a whole on site. The adjustable rotating sub-frame 311 is adapted to various angles, and on the basis of ensuring the waterproof and drainage performance of the roof, the architectural aesthetics and photovoltaic power generation are integrated to achieve a relatively good visual effect.

[0112] like Fig.12 and Fig.13 As shown, in an optional embodiment of the utility model, a plurality of holes are provided on the wood grain transfer perforated aluminum plate 5;

[0113] A wood grain lining aluminum plate 51 is disposed above each hole of the wood grain transfer perforated aluminum plate 5;

[0114] The ceiling metal plate grid 4 is arranged on the lining wood grain aluminum plate 51 .

[0115] In this embodiment, the ceiling metal plate grid 4 is fixedly connected to the lining wood grain aluminum plate 51 by bolts, and a U-shaped aluminum strip 52 is arranged between the lining wood grain aluminum plate 51 and the wood grain transfer perforated aluminum plate 5. The U-shaped aluminum strip 52 is fixedly connected to the lining wood grain aluminum plate 51, and the opening of the U-shaped aluminum strip 52 faces the holes of the wood grain transfer perforated aluminum plate 12, and a light strip 53 is arranged in the groove of the U-shaped aluminum strip 52; the wood grain transfer technology is used to make the surface of the wood grain transfer perforated aluminum plate 5 realize the wood grain effect, the wood grain transfer perforated aluminum plate 5 adopts a 3mm thick wood grain transfer aluminum plate, the wood grain direction is arranged according to a pre-set direction, the shape and size of the perforations of the wood grain aluminum plate are irregularly arranged, and the three-dimensional scanning laser hole opening technology is used to realize irregular holes.

[0116] In an optional embodiment of the present invention, an acrylic plate 7 is arranged above the wood grain transfer perforated aluminum plate 5 .

[0117] In this embodiment, the acrylic plate 7 is a milky white double-sided frosted acrylic plate with a thickness of 3 mm, which is suitable for the wood grain transfer perforated aluminum plate 5; the acrylic plate 7 makes the ceiling lighting effect of the power generation photovoltaic tree more uniform.

[0118] like Fig.12 and Fig.14 As shown, in an optional embodiment of the utility model, a lamp mounting bracket 43 is provided on the ceiling metal plate grid 4, and the lamp mounting bracket 43 is provided around the holes of the wood grain transfer perforated aluminum plate 5;

[0119] The lamp mounting bracket 43 is provided with a mounting lamp 44 .

[0120] In this embodiment, six lamps 44 are arranged on each lamp mounting bracket 43; the lamps 44 on the ceiling metal plate grid 4 are powered by the top photovoltaic glass panel 31, and the light is displayed through the perforated positions of the wood grain transfer perforated aluminum plate 5 and the positions of the tree branches, which can achieve a relatively good visual effect.

[0121] In an optional embodiment of the present invention, an anti-corrosion gasket 26 is provided between the main steel structure 2 and the clamping member 23 .

[0122] In this embodiment, an anti-corrosion gasket 26 is provided between the main steel structure 2 and the hoop member 23 to prevent the main steel structure 2 and the hoop member 23 from rusting due to being made of metal, thereby preventing the structure from being easily damaged.

[0123] like Fig.15As shown, the frame aluminum plate 6 wraps the edges of the photovoltaic glass 1, the photovoltaic fiberglass grid 3, the main steel structure 2, the ceiling metal plate grid 4 and the wood grain transfer perforated aluminum plate 5 in sections, and the connection between two adjacent sections of the frame aluminum plate 6 is filled with a foam rod or sealant of the same color as the frame aluminum plate 6.

[0124] The above is a preferred embodiment of the present invention. It should be pointed out that, for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles of the present invention. These improvements and modifications should also be regarded as the protection scope of the present invention.

Claims

1. A photovoltaic tree for power generation, characterized in that: include: Main steel structure (2); A photovoltaic glass fiber reinforced plastic grid (3) connected to the main steel structure (2) via a first connecting member, wherein the photovoltaic glass fiber reinforced plastic grid (3) is located on one side of the main steel structure (2); Photovoltaic glass (1) connected to the photovoltaic glass fiber reinforced plastic grid (3) via a fourth connecting member; A suspended ceiling metal plate grid (4) connected to the main steel structure (2) via a second connecting piece, wherein the suspended ceiling metal plate grid (4) is located on the other side of the main steel structure (2); A wood grain transfer perforated aluminum plate (5) connected to the ceiling metal plate grid (4) via a third connecting member; A frame aluminum plate (6) fixedly connected to the edges of the photovoltaic glass (1), the photovoltaic glass fiber reinforced plastic grid (3), the main steel structure (2), the ceiling metal plate grid (4) and the wood grain transfer perforated aluminum plate (5).

2. The photovoltaic tree for power generation according to claim 1, characterized in that: The photovoltaic glass (1) comprises: A plurality of photovoltaic glass panels (31) of different sizes and shapes.

3. The photovoltaic tree for power generation according to claim 1, characterized in that: The first connecting member comprises: A transition round steel pipe (321) connected to the photovoltaic glass fiber reinforced plastic grid (3); A skeleton support base (21) connected to the main steel structure (2); The transition round steel pipe (321) is connected to the skeleton support base (21) via a first steel transition piece (22).

4. The photovoltaic tree for power generation according to claim 1, characterized in that: The second connecting member comprises: A hoop member (23) arranged on the main steel structure (2); A prefabricated steel adapter (24) connected to the hoop member (23); The prefabricated steel adapter (24) is connected to the suspended ceiling metal plate grid (4) via a second steel adapter (25).

5. The photovoltaic tree for power generation according to claim 1, characterized in that: The third connecting member comprises: A connecting piece (41) connected to the ceiling metal plate grid (4); A suspended ceiling wood grain aluminum plate sub-frame (42) connected to the connecting code member (41); The connecting code member (41) is connected to the wood grain transfer perforated aluminum plate (5) via the suspended ceiling wood grain aluminum plate sub-frame (42).

6. The photovoltaic tree for power generation according to claim 2, characterized in that: The fourth connecting member comprises: An adjustable rotating sub-frame (311) connected to the edge of the photovoltaic glass panel (31); An adjustable rotating sub-frame base (312) connected to the photovoltaic fiberglass reinforced plastic grid (3); The adjustable rotating sub-frame (311) is connected to the adjustable rotating sub-frame base (312).

7. The photovoltaic tree for power generation according to claim 5, characterized in that: The wood grain transfer perforated aluminum plate (5) is provided with a plurality of holes; A wood-grain aluminum lining plate (51) is disposed above each hole of the wood-grain transfer perforated aluminum plate (5); The suspended ceiling metal plate grid (4) is arranged on the lining wood grain aluminum plate (51).

8. The photovoltaic tree for power generation according to claim 7, characterized in that: An acrylic plate (7) is arranged above the wood grain transfer perforated aluminum plate (5).

9. The photovoltaic tree for power generation according to claim 7, characterized in that: A lamp mounting bracket (43) is arranged on the ceiling metal plate grid (4), and the lamp mounting bracket (43) is arranged around the holes of the wood grain transfer perforated aluminum plate (5); The lamp mounting bracket (43) is provided with a mounting lamp (44).

10. The photovoltaic tree for power generation according to claim 4, characterized in that: An anti-corrosion gasket (26) is provided between the main steel structure (2) and the hoop member (23).

Images