Multi-angle adjustable photovoltaic curtain wall architecture

Abstract

The application discloses a multi-angle adjustable photovoltaic curtain wall framework and relates to the technical field of photovoltaic curtain walls.The framework comprises a metal frame and an adjustable device.The adjustable device is arranged inside the adjusting assembly and is connected with the inner connecting frame, the first connecting arm and the second connecting arm in linkage adjustment cooperation, so that the multi-angle adjustment of the photovoltaic curtain wall can be indirectly realized, the photovoltaic curtain wall can be flexibly oriented to the light direction, the light energy recovery effect is ensured, the telescopic structure arranged in the connecting barrel can satisfy the secondary telescopic adjustment of the photovoltaic curtain wall, the photovoltaic curtain wall can be moved outward to be far away from the installation position, the adjusting activity space is strengthened, the orientation angle range is expanded, the use effect is further improved, and after the angle adjustment of the photovoltaic curtain wall, the I-shaped stable structure formed in the stable assembly can be cooperated with to strengthen the adjusting stability, reduce the shaking problem and ensure the use safety.

Description

Technical Field

[0001] This invention relates to the field of photovoltaic curtain wall technology, specifically to a multi-angle adjustable photovoltaic curtain wall structure. Background Technology

[0002] Photovoltaic curtain walls use special resin to attach solar cells to glass and embed them between two panes of glass. The cells convert light energy into electrical energy. It integrates photovoltaic power generation technology and curtain wall technology to make full use of the building's surface and space. It converts the solar energy that traditional curtain walls attempt to block outside the building into beneficial electrical energy. Its biggest features are ventilation, environmental protection and energy saving functions. It saves the consumption of precious fossil energy on Earth, reduces environmental pollution, and provides new aesthetic decoration effects for modern buildings.

[0003] Currently, to facilitate the use of photovoltaic curtain walls, adjustable brackets are usually used to connect them, making it easier to adjust the angle of the photovoltaic curtain wall later, thus improving the practicality of the photovoltaic curtain wall. However, the current photovoltaic curtain wall does not allow for comprehensive angle adjustment, resulting in a lower light energy recovery efficiency.

[0004] A Chinese patent, CN218526276U, describes an adjustable bracket for a BIPV (Building Integrated Photovoltaic) curtain wall, belonging to the field of photovoltaic curtain walls. It includes a frame, a support frame, a mounting platform, a limiting plate, a support mechanism, and connecting pins. The mounting platform is mounted on the support frame. The frame has an installation groove and a storage groove. The limiting plate is rotatably mounted in the storage groove and located at the installation groove. A torsion spring is provided on the frame to drive the limiting plate's rotation, and the limiting plate is engaged with the frame. The mounting platform is slidably mounted in the installation groove and is detachably connected to the frame. The support mechanism is mounted on the frame, and its output end is connected to the support frame. The frame has an adjustment mechanism for driving the adjustment mechanism's movement. The support frame and the support mechanism are detachably connected, with the support frame rotatably connected to the support mechanism via connecting pins. This utility model allows for adjustable installation angles and is detachable.

[0005] The aforementioned existing adjustable brackets use a drive motor and a lead screw to drive the angle adjustment of the photovoltaic curtain wall. However, the angle adjustment is consistent with the defects of existing adjustable brackets, namely a low adjustable range and low light energy recovery. At the same time, there is a lack of certain stabilization measures to improve its adjustment stability and avoid the risk of the photovoltaic curtain wall shaking and falling when strong winds blow. Summary of the Invention

[0006] The purpose of this invention is to provide a multi-angle adjustable photovoltaic curtain wall structure to solve the problems mentioned in the background art.

[0007] To achieve the above objectives, the present invention adopts the following technical solution: a multi-angle adjustable photovoltaic curtain wall structure, including a metal frame, a photovoltaic glass body installed inside the metal frame, a light sensor installed at the lower front end of the metal frame, a controller installed at the lower right end of the metal frame, and an adjustable device located at the rear of the metal frame. The adjustable device includes a mounting plate, an adjustment component, a telescopic component, and a stabilizing component. The adjustment component is located at the front of the mounting plate, the adjustment component is connected to the outer side of the telescopic component, the front side of the telescopic component is connected to the stabilizing component, and the stabilizing component is installed at the rear of the metal frame.

[0008] Preferably, the photovoltaic glass body includes a solar cell, which is placed in the middle. High-transparency adhesive films are provided on both sides of the solar cell. The outer end of the high-transparency adhesive film on one side is connected to the light-transmitting glass, and the outer end of the high-transparency adhesive film on the other side is connected to the light-transmitting glass. The solar cell, the high-transparency adhesive film, the light-transmitting glass and the back glass are all installed inside the metal frame.

[0009] Preferably, the adjustment assembly includes a first connecting plate and a second connecting plate. The first connecting plate is fixed to the front side of the mounting plate. A first motor is installed on one side of the front end of the first connecting plate. The output end of the first motor is connected to a connecting frame. The end of the connecting frame away from the first motor is connected to the telescopic assembly. The second connecting plate is fixed to the lower front end of the mounting plate. A second motor is installed on the lower front end of the second connecting plate. The output end of the second motor is connected to the first connecting arm. The upper end of the first connecting arm is connected to the second connecting arm, and the front side of the second connecting arm is connected to the outer side of the telescopic assembly.

[0010] Preferably, the telescopic component includes a connecting cylinder, with docking shafts installed on three sides of the outer end of the connecting cylinder, and each docking shaft is respectively connected to the connecting frame and the second connecting arm. A telescopic structure is installed inside the connecting cylinder, and the front side of the telescopic structure is connected to the stabilizing component.

[0011] Preferably, the telescopic structure includes a servo motor installed inside the connecting cylinder. The output end of the servo motor is connected to a screw. The outer side of the screw is threadedly connected to an outer cylinder, which is installed inside the connecting cylinder. Ball bearings are equidistantly embedded on the outside of the outer cylinder, and the outer sides of the ball bearings are connected to the inner cylinder. A telescopic cylinder is threadedly connected to the outside of the inner cylinder, and the telescopic cylinder is fitted with the inside of the outer cylinder for limiting. A connecting strip is locked to the outside of the telescopic cylinder, and limiting rods are provided on both sides of the connecting strip. The limiting rods on both sides are inserted into the inside of the connecting cylinder. The left and right sides of the outer cylinder are limited and connected to limiting grooves, and the limiting grooves are fixed on both sides inside the connecting cylinder. The screw extends into the inside of the inner cylinder and is limited and connected to the inside of the inner cylinder.

[0012] Preferably, the stabilizing component includes a horizontal plate connected to the outside of the telescopic cylinder. Vertical frames are fixed on both sides of the horizontal plate. Limiting blocks are installed at the upper and lower ends of the vertical frames. The limiting blocks are fitted into the connecting blocks and are fixed to the four sides of the rear end of the metal frame. A locking rod is inserted inside the connecting block, and a locking sleeve is threaded onto the outside of the locking rod.

[0013] Preferably, the upper and lower ends of the left side of the connecting frame are rotatably connected to the docking shafts provided at the upper and lower ends of the connecting cylinder, and the connecting frame flips the connecting cylinder back and forth.

[0014] Preferably, the inner cylinder has an internal thread, and the inner cylinder is threaded to the outside of the screw through the internal thread.

[0015] Preferably, the outer cylinder has an external thread on its exterior, and the outer cylinder is threadedly connected to the interior of the telescopic cylinder through the external thread.

[0016] Preferably, the vertical frames are fixed symmetrically along the horizontal plate, and the vertical frames on both sides form an inverted I-shape with the horizontal plate.

[0017] Compared with the prior art, the beneficial effects of the present invention are:

[0018] This invention incorporates an adjustable device, specifically, through the coordinated adjustment of the connecting frame, the first arm, and the second arm within the adjusting component, indirectly enabling multi-directional angle adjustment of the photovoltaic curtain wall. This allows the photovoltaic curtain wall to flexibly face the direction of sunlight, ensuring effective light energy recovery. Furthermore, in conjunction with the telescopic structure within the connecting cylinder, it allows for two-stage telescopic adjustment of the photovoltaic curtain wall, enabling it to be moved away from the installation location. This enhances its adjustment range, expands the range of facing angles, and further improves its usability. Simultaneously, after the photovoltaic curtain wall angle is adjusted, the I-shaped stabilizing structure within the stabilizing component strengthens its adjustment stability, reduces swaying, and ensures its safety during use.

[0019] The adjustment components are configured such that the first motor can drive the connecting frame to rotate back and forth, thereby causing the connecting cylinder to rotate back and forth synchronously, indirectly achieving the forward and backward rotation adjustment of the photovoltaic module. When the second motor drives the first and second connecting arms to rotate, the connecting cylinder can rotate left and right, indirectly achieving the left and right rotation adjustment of the photovoltaic module. In this way, through the coordinated adjustment of the connecting frame, the first connecting arm, and the second connecting arm, multi-directional angle adjustment of the photovoltaic module can be efficiently achieved, allowing it to flexibly adapt to different light angles and improve the light energy recovery effect.

[0020] The telescopic component, specifically the servo motor located inside the connecting cylinder, drives the screw. When the screw rotates, it threadedly drives the outer cylinder connected to its outer end, causing the inner cylinder to move outward. Simultaneously, the screw rotation also causes the outer limit stop to rotate, allowing the inner cylinder to threadedly drive the telescopic cylinder connected to its outer end, causing the telescopic cylinder to move outward. This allows for two-stage telescopic movement, indirectly pushing the photovoltaic curtain wall outward, moving it away from the installation location, increasing its adjustment range, and achieving flexible adjustment to different usage angles.

[0021] The installation of stabilizing components, namely the docking blocks on the four sides of the rear of the metal frame and the limiting blocks installed at the top and bottom of the vertical frames on both sides, can facilitate the rapid docking of the photovoltaic curtain wall with the adjustable device. The insertion of the locking rod and the locking sleeve ensure that the connection between the docking blocks and the vertical frames is firm. At the same time, the horizontal plate and the vertical frames on both sides can form an inverted I-shaped stabilizing structure to enhance the installation stability of the photovoltaic curtain wall, reduce its shaking problem during use, and ensure its safety during use. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the structure of the present invention;

[0023] Figure 2 This is a schematic diagram of the disassembled structure of the photovoltaic curtain wall and the adjustable device of the present invention;

[0024] Figure 3 This is a schematic diagram of the right-side cross-sectional structure of the photovoltaic glass body of the present invention;

[0025] Figure 4 This is a schematic diagram of the adjustable device structure of the present invention;

[0026] Figure 5 This is a schematic diagram of the adjustment component structure of the present invention;

[0027] Figure 6 This is a schematic diagram of the telescopic component structure of the present invention;

[0028] Figure 7 This is a top view of the internal structure of the telescopic structure of the present invention;

[0029] Figure 8 This is a top view schematic diagram of the telescopic structure of the present invention.

[0030] Figure 9 This is a schematic diagram of the structural breakdown of the robust components of the present invention.

[0031] In the diagram: Metal frame-1, Photovoltaic glass body-2, Solar cell-21, High-transparency film-22, Transparent glass-23, Backsheet glass-24, Light sensor-3, Controller-4, Adjustable device-5, Mounting plate-51, Adjustment assembly-52, First connecting plate-521, First motor-522, Connecting frame-523, Second connecting plate-524, Second motor-525, First connecting arm-526, Second connecting arm-527, Telescopic assembly-53. Connecting cylinder-531, docking shaft-532, telescopic structure-533, servo motor-5331, screw-5332, outer cylinder-5333, ball bearing-5334, inner cylinder-5335, telescopic cylinder-5336, connecting strip-5337, limit rod-5338, limit groove strip-5339, stabilizing component-54, horizontal plate-541, vertical frame-542, limit block-543, docking block-544, locking rod-545, locking sleeve-546. Detailed Implementation

[0032] To further explain the technical solution of the present invention, a detailed description is provided below through specific embodiments.

[0033] Please see Figures 1-3 The present invention provides a multi-angle adjustable photovoltaic curtain wall structure, including a metal frame 1, a photovoltaic glass body 2 installed inside the metal frame 1, a light sensor 3 installed at the lower front end of the metal frame 1, a controller 4 installed at the lower right end of the metal frame 1, and an adjustable device 5 located at the rear of the metal frame 1.

[0034] The photovoltaic glass body 2 includes a solar cell 21, which is located in the middle. High-transparency adhesive films 22 are provided on both the left and right sides of the solar cell 21. The outer end of the high-transparency adhesive film 22 on the left side is connected to the light-transmitting glass 23, and the outer end of the high-transparency adhesive film 22 on the right side is connected to the light-transmitting glass 23. The solar cell 21, the high-transparency adhesive film 22, the light-transmitting glass 23 and the back glass 24 are all installed inside the metal frame 1.

[0035] Please see Figure 4 In this embodiment, the adjustable device 5 includes a mounting plate 51, an adjustment component 52, a telescopic component 53, and a stabilizing component 54. The adjustment component 52 is provided on the front side of the mounting plate 51. The adjustment component 52 is connected to the outer side of the telescopic component 53. The front side of the telescopic component 53 is connected to the stabilizing component 54. The stabilizing component 54 is installed on the rear side of the metal frame 1.

[0036] Please see Figure 5In this embodiment, the adjustment component 52 includes a first connecting plate 521 and a second connecting plate 524. The first connecting plate 521 is longitudinally fixedly connected to the front right side of the mounting plate 51. A first motor 522 is installed on the front right side of the first connecting plate 521. The output end of the first motor 522 is connected to a connecting frame 523. The end of the connecting frame 523 away from the first motor 522 is connected to the telescopic component 53. The second connecting plate 524 is longitudinally fixedly connected to the front lower end of the mounting plate 51. A second motor 525 is installed on the front lower end of the second connecting plate 524. The output end of the second motor 525 is connected to the first connecting arm 526. The front side of the upper end of the first connecting arm 526 is rotatably connected to the second connecting arm 527. The front side of the second connecting arm 527 is connected to the outside of the telescopic component 53. With the linkage effect of the first connecting arm 526 and the second connecting arm 527, the left and right flipping of the connecting cylinder 531 can be satisfied.

[0037] The upper and lower ends of the left side of the connecting frame 523 are rotatably connected to the docking shafts 532 at the upper and lower ends of the connecting cylinder 531. The connecting frame 523 flips the connecting cylinder 531 back and forth. Thus, the back and forth flipping action of the connecting frame 523 can be combined with the left and right flipping action of the first connecting arm 526 and the second connecting arm 527 to meet the multi-directional adjustment of the photovoltaic curtain wall, ensure its high efficiency of light energy recovery, and enable it to face the sunlight in real time to ensure its power generation efficiency.

[0038] Specifically, when the angle of the photovoltaic curtain wall needs to be adjusted, the light sensor 3 located at the lower front end of the metal frame 1 can monitor the light data. The detected light data can be used by the controller 4 to activate the first motor 522 and the second motor 525 inside the adjustment component 52. That is, when the first motor 522 is running, it can drive the connecting frame 523 connected to the output end. As a result, the connecting frame 523 can rotate, thereby realizing the forward and backward flipping of the connecting cylinder 531 connected to the left side. In this way, the overall forward and backward flipping of the photovoltaic curtain wall can be indirectly achieved. When the second motor 525 is running, the first connecting arm 526 and the second connecting arm 527 can rotate, so that the first connecting arm 526 and the second connecting arm 527 cooperate to satisfy the left and right flipping of the connecting cylinder 531, that is, to indirectly realize the left and right flipping adjustment of the photovoltaic curtain wall. Thus, through the flipping adjustment of the connecting frame 523, the first connecting arm 526 and the second connecting arm 527, the overall multi-directional adjustment of the photovoltaic curtain wall can be satisfied, so that the angle of the photovoltaic curtain wall can be flexibly adjusted to ensure that it faces the direction of sunlight and ensures the efficient recovery and utilization of light energy.

[0039] Please see Figures 6-8 In this embodiment, the telescopic component 53 includes a connecting cylinder 531. The connecting cylinder 531 has docking shafts 532 installed at its upper and lower ends and on its left side. Each docking shaft 532 is rotatably connected to the connecting frame 523 and the second connecting arm 527. The connecting cylinder 531 has a telescopic structure 533 installed inside. The front side of the telescopic structure 533 is connected to the stabilizing component 54.

[0040] The telescopic structure 533 includes a servo motor 5331, which is installed inside the upper part of the connecting cylinder 531. A screw 5332 is connected to the output end of the servo motor 5331. An outer cylinder 5333 is threadedly connected to the outer side of the screw 5332 and is internally housed within the connecting cylinder 531. Ball bearings 5334 are equidistantly embedded on the outer side of the upper end of the outer cylinder 5333, and the outer sides of the ball bearings 5334 are connected to the inner cylinder 5335, thus enabling the inner cylinder 5335 to rotate. A telescopic cylinder 5336 is threadedly connected to the outer side of the inner cylinder 5335, and the telescopic cylinder 5336 is internally fitted with a limiting sleeve to the outer cylinder 5333. This ensures that when the telescopic cylinder 5336 is telescopically extended or retracted, it can rotate independently without being driven by rotation. The telescopic cylinder 5336 is externally locked. A connecting strip 5337 is attached, and limit rods 5338 are vertically installed on both sides of the connecting strip 5337. The connecting strip 5337 allows for quick docking of the telescopic component 53 and the stabilizing component 54. The limit rods 5338 are vertically inserted into the left and right sides of the connecting cylinder 531, and the left and right sides of the outer cylinder 5333 are docked with the limit grooves 5339. The limit grooves 5339 are fixed inside the connecting cylinder 531. Thus, the outer cylinder 5333 is stable during the outward and inward movement of the limit grooves 5339. The screw 5332 extends into the inner cylinder 5335 and docks with the inner cylinder 5335. Thus, when the screw 5332 rotates, it can work with the docking effect to synchronously rotate the inner cylinder 5335.

[0041] The inner cylinder 5335 has an internal thread, and the inner cylinder 5335 is threaded to the outside of the screw 5332 through the internal thread, so that when the screw 5332 and the inner cylinder 5335 are threaded, a first-stage telescopic transmission is achieved; the outer cylinder 5333 has an external thread, and the outer cylinder 5333 is threaded to the inside of the telescopic cylinder 5336 through the external thread, so that when the outer cylinder 5333 and the telescopic cylinder 5336 are threaded, a second-stage telescopic transmission is achieved.

[0042] Specifically, to further enhance its adjustment effect and enable the photovoltaic curtain wall to have a certain telescopic adjustment function, a telescopic structure 533 is also set inside the connecting cylinder 531. This means that by operating the servo motor 5331 installed inside the connecting cylinder 531, the screw 5332 connected to the output end of the servo motor 5331 can rotate. When the screw 5332 rotates, the outer cylinder 5333, which is threaded to its exterior and engages with the limiting grooves 5339 on both sides inside the connecting cylinder 531, will move outward. Simultaneously, the screw 5332 extends into the inner cylinder 5335 and engages with the limiting grooves inside the inner cylinder 5335. Thus, the inner cylinder 5335 can be simultaneously adjusted. Driven by the inner cylinder 5335, the inner cylinder 5335 rotates along the inner side of the outer cylinder 5333 in conjunction with the ball bearing 5334. The outer cylinder 5333 moves outward, and the inner cylinder 5335 moves synchronously. During the rotation and outward movement of the outer cylinder 5333, the telescopic cylinder 5336, which is threaded to the outside of the outer cylinder 5333, can achieve the overall pushing of the outward moving stabilizing component 54 through the linkage effect. In this way, the photovoltaic curtain wall can be indirectly pushed outward in multiple stages, so that the photovoltaic curtain wall is moved away from the installation location. This ensures that the adjustment space of the photovoltaic curtain wall is further expanded, so that the photovoltaic curtain wall can have a wider range of angle adjustment effect and make it more suitable for use with different lighting angles.

[0043] Meanwhile, when the telescopic cylinder 5336 moves outward, the connecting strip 5337, which is locked to the front end of the telescopic cylinder 5336, can move synchronously. In conjunction with the insertion effect of the limit rods 5338 on the left and right sides and the connecting cylinder 531, the telescopic guidance and support are stabilized, ensuring the stability of its telescopic position. Thus, the photovoltaic curtain wall achieves multi-level outward adjustment, expanding its angle adjustment range.

[0044] Please see Figure 9 In this embodiment, the stabilizing component 54 includes a horizontal plate 541, which is located on the front side of the telescopic cylinder 5336. The middle part of the horizontal plate 541 is connected to the outer end of the telescopic cylinder 5336, and the horizontal plate 541 is locked to the limiting rod 5338 through the connecting strip 5337. Vertical frames 542 are fixedly connected to both the left and right sides of the horizontal plate 541. Rectangular limiting blocks 543 are fixedly connected to the upper and lower ends of the vertical frames 542 on both sides. Each limiting block 543 on each side is connected to the interior of the corresponding mating block 544. The mating blocks 544 are fixed to the four sides of the rear end of the metal frame 1. In this way, the mating blocks 544 and the limiting blocks 543 can achieve positioning and mating. A locking rod 545 is vertically inserted between the upper and lower mating blocks 544. The upper and lower ends of the locking rod 545 are externally threaded, and the externally threaded ends on both the upper and lower sides of the locking rod 545 are equipped with locking sleeves 546. This ensures the locking movement of the upper and lower mating blocks 544 and the corresponding vertical frames 542.

[0045] The vertical frame 542 is fixed symmetrically to the horizontal plate 541 on both sides, and the vertical frame 542 and the horizontal plate 541 on both sides form an inverted I-shape. That is, the inverted I-shape structure formed by the vertical frame 542 and the horizontal plate 541 can improve the stability of the photovoltaic curtain wall installation and reduce the problem of large-scale swaying in strong winds during use.

[0046] Specifically, when connecting the photovoltaic curtain wall and the adjustable device 5, the connecting blocks 544 on the four sides of the rear end of the metal frame 1 can be used to position and connect with the vertical frames 542 on the left and right sides of the horizontal plate 541 respectively. That is, the connecting blocks 544 can be positioned and connected with the limiting blocks 543 set at the upper and lower ends of the vertical frames 542 respectively, thereby speeding up the assembly efficiency. After the positioning and connection is completed, the locking rod 545 can be inserted from the upper end of the vertical frame 542 and pass through the middle of the upper and lower connecting blocks 544 to realize the series connection. After the connection is completed, the locking sleeves 546 can be screwed into the upper and lower ends of the locking rod 545 respectively to lock the connecting blocks 544 at the upper and lower ends of the vertical frame 542. In this way, the connection between the photovoltaic curtain wall and the adjustable device 5 can be completed quickly.

[0047] When the horizontal plate 541 is combined with the vertical frames 542 on the left and right sides, an inverted I-shaped stable structure can be formed to improve the structural strength of the joint position, so as to reduce the problem of large-scale swaying and falling when the photovoltaic curtain wall is affected by strong winds.

[0048] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A multi-angle adjustable photovoltaic curtain wall framework, comprising a metal frame (1), a photovoltaic glass body (2) is installed inside the metal frame (1), a light sensor (3) is arranged at the lower end of the front side of the metal frame (1), and a controller (4) is installed at the lower right end of the metal frame (1); characterized in that Further comprising an adjustable device (5) arranged at the back side of the metal frame (1), the adjustable device (5) comprises a mounting plate (51), an adjusting assembly (52), a telescopic assembly (53), and a stabilizing assembly (54), the adjusting assembly (52) is arranged at the front side of the mounting plate (51), the adjusting assembly (52) is connected with the outer side of the telescopic assembly (53), the telescopic assembly (53) is connected with the stabilizing assembly (54) at the front side, the stabilizing assembly (54) is arranged at the back side of the metal frame (1), the adjusting assembly (52) comprises a first connecting plate (521) and a second connecting plate (524), the first connecting plate (521) is fixedly arranged at the front side of the mounting plate (51), a first motor (522) is arranged at one side of the front end of the first connecting plate (521), a connecting frame (523) is connected with the output end of the first motor (522), one end of the connecting frame (523) away from the first motor (522) is connected with the telescopic assembly (53), the second connecting plate (524) is fixedly arranged at the lower end of the front side of the mounting plate (51), a second motor (525) is arranged at the lower end of the front side of the second connecting plate (524), the output end of the second motor (525) is connected with a first connecting arm (526), the upper end of the first connecting arm (526) is connected with a second connecting arm (527), and the front side of the second connecting arm (527) is connected with the outer side of the telescopic assembly (53).

2. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 1, wherein: The photovoltaic glass body (2) comprises a cell sheet (21), the cell sheet (21) is arranged in the middle, high-transparency adhesive films (22) are arranged on both sides of the cell sheet (21), one end of the high-transparency adhesive film (22) is connected with a light-transmitting glass (23), and the other end of the high-transparency adhesive film (22) is connected with the light-transmitting glass (23), the cell sheet (21), the high-transparency adhesive film (22), the light-transmitting glass (23), and a back plate glass (24) are all installed inside the metal frame (1).

3. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 1, wherein: The telescopic assembly (53) comprises a connecting cylinder (531), butt shafts (532) are arranged on three sides of the outer end of the connecting cylinder (531), the butt shafts (532) on each side are respectively connected with the connecting frame (523) and the second connecting arm (527), and a telescopic structure (533) is installed inside the connecting cylinder (531), and the front side of the telescopic structure (533) is connected with the stabilizing assembly (54).

4. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 3, wherein: The telescopic structure (533) comprises a servo motor (5331) installed inside the connecting barrel (531), a screw rod (5332) connected to the output end of the servo motor (5331), an outer barrel (5333) threadedly connected to the outer side of the screw rod (5332) and installed inside the connecting barrel (531), a plurality of balls (5334) equidistantly embedded on the outer side of the outer barrel (5333), an inner barrel (5335) connected to the outer side of the balls (5334), a telescopic barrel (5336) threadedly connected to the outer side of the inner barrel (5335) and sleeved on the inner side of the outer barrel (5333), a connecting strip (5337) locked and connected to the outer side of the telescopic barrel (5336), a limiting rod (5338) arranged on both sides of the connecting strip (5337) and inserted into the connecting barrel (531), a limiting groove strip (5339) limiting and connected to the left and right sides of the outer barrel (5333) and fixed to the inner sides of the connecting barrel (531), and the screw rod (5332) extends into the inner barrel (5335) and is limitingly connected to the inner barrel (5335).

5. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 1, wherein: The stable assembly (54) comprises a horizontal plate (541) connected to the outer side of the telescopic barrel (5336), a vertical frame (542) fixed to the left and right sides of the horizontal plate (541), a limiting block (543) mounted on the upper and lower ends of the vertical frame (542), an abutting block (544) sleeved and connected to the inner side of the limiting block (543), and the abutting block (544) is fixed to the four sides of the rear end of the metal frame (1). A locking rod (545) is inserted into the inner side of the abutting block (544), and a locking sleeve (546) is threadedly connected to the outer side of the locking rod (545).

6. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 3, wherein: The left and right ends of the connecting frame (523) are rotatably connected to the abutting shafts (532) arranged on the upper and lower ends of the connecting barrel (531), and the connecting frame (523) is reversibly connected to the connecting barrel (531).

7. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 4, wherein: The inner barrel (5335) is internally provided with an internal thread, and the inner barrel (5335) is threadedly connected to the outer side of the screw rod (5332) through the internal thread.

8. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 4, wherein: The outer barrel (5333) is externally provided with an external thread, and the outer barrel (5333) is threadedly connected to the inner side of the telescopic barrel (5336) through the external thread.

9. The multi-angle adjustable photovoltaic curtain wall architecture according to claim 5, wherein: The vertical frames (542) are symmetrically fixed to the horizontal plate (541), and the vertical frames (542) and the horizontal plate (541) form an inverted I-shaped structure.

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