A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure

Abstract

The present invention discloses a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure, which relates to the technical field of power generation. The photovoltaic power generation module aims to solve the technical problem that the integral structure of the installation bracket of the existing photovoltaic power generation module is inconvenient to adjust the plane position of the upper structure and the light receiving inclination angle of the photovoltaic panel, and is not flexible to use. The photovoltaic power generation module includes an assembly cross beam, frustum-shaped brackets symmetrically arranged on the upper side of the assembly cross beam, a first small longitudinal beam arranged on the upper side of the brackets, and a photovoltaic panel arranged on the upper side between the first small longitudinal beams. The photovoltaic power generation module uses brackets that can axially traverse on the assembly cross beam and small longitudinal beams that can horizontally move longitudinally along the upper end of the brackets to adjust the plane position where the photovoltaic panel is located, is flexible to use, and is convenient to assemble. By driving the way of a rotary motor to control the forward and backward rotation of the lead screw, the working inclination angle of the photovoltaic panel is changed, which is convenient to adapt to the lighting conditions in different regions.

Description

Technical Field

[0001] The present invention belongs to the field of photovoltaic power generation equipment, and particularly relates to a highly flexible distributed photovoltaic power generation module with a sliding arrangement and a bracket structure. Background Art

[0002] As a clean, pollution-free and inexhaustible energy source, solar energy has played a very important role in the utilization of new energy in recent years. Existing urban street lighting facilities, fledgling solar photovoltaic panel power generation groups, and even photovoltaic panels installed on the roofs of households have all made outstanding contributions to reducing the dependence of existing production and life on the coal power industry. The use of photovoltaic panels requires a certain angle with the horizontal plane in order to obtain the maximum solar radiation. Therefore, they are generally fixedly installed through brackets with corresponding angles.

[0003] The existing Chinese invention patent with the publication number CN112865692A discloses a photovoltaic panel fastener and an installation device for a photovoltaic panel module. The photovoltaic panel fastener is used to cooperate with a threaded fastener to attach the assembly frame of the photovoltaic panel to a support structure. The photovoltaic panel fastener includes a main body portion; a threaded engagement portion that extends perpendicularly from the main body portion and has a channel for accommodating the threaded fastener, and the inner wall of the channel is provided with an internal thread that mates with the external thread of the threaded fastener; a pair of clamping ribs respectively extend from the end face of the main body portion and are symmetrically arranged along a first direction with respect to the central axis of the threaded engagement portion; a pair of support ribs are symmetrically arranged along a second direction with respect to the central axis of the threaded engagement portion, and each support rib is respectively connected to a clamping rib and extends beyond the free end of the clamping rib. The second direction is perpendicular to the first direction. The photovoltaic panel fastener of the present invention has a simple structure, a compact layout, a small occupied space, is easy to position, adjust, install and disassemble on the support structure and the assembly frame, saves installation costs, and improves work efficiency. The bracket structure for installing the photovoltaic power generation module is integrally fixed, generally supported at the middle position of the upper photovoltaic panel. However, when there are obstacles on the ground in the installation environment, such that the installation part of the component anchored to the ground cannot ensure that the upper photovoltaic panel is at the center of the use environment, the functional effect of the photovoltaic panel receiving light energy is affected, and the planar position of the photovoltaic panel cannot be adjusted according to the installation environment. The bracket structure with a fixed inclination angle is also not convenient for adjusting the working angle of the photovoltaic panel according to different regional lighting conditions, and the use is not flexible.

[0004] Therefore, in view of the inconvenient adjustment of the planar position of the upper structure and the light-receiving inclination angle of the photovoltaic panel by the integral structure of the above-mentioned photovoltaic power generation module installation bracket, and the inflexible use, a photovoltaic power generation module with an adjustable bracket is developed, which uses multiple sets of horizontal and vertical beam components arranged horizontally and matching brackets, so that the photovoltaic module can easily adjust the working inclination angle of the planar position. Summary of the Invention

[0005] (1) Technical problems to be solved

[0006] Aiming at the deficiencies of the prior art, the purpose of the present invention is to provide a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure, which aims to solve the technical problems that the integral structure of the installation bracket of the existing photovoltaic power generation module is inconvenient to adjust the plane position of the upper structure and the light receiving inclination angle of the photovoltaic panel, and the use is inflexible.

[0007] (2) Technical solutions

[0008] To solve the above technical problems, the present invention provides such a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure. The photovoltaic power generation module includes an assembly cross beam, frustum-shaped brackets symmetrically arranged on the upper side of the assembly cross beam, a first small longitudinal beam arranged on the upper side of the brackets, a photovoltaic panel arranged on the upper side between the first small longitudinal beams. The lower ends of the brackets are symmetrically connected with locking plates on the left and right. Assembly grooves are formed at the left and right ends of the brackets. The assembly cross beam is arranged inside the assembly grooves. The locking plates are arranged on the lower side of the assembly cross beam. Lateral clamping plates are symmetrically installed on the upper side of the brackets on the left and right. The first small longitudinal beam is arranged between the lateral clamping plates. The lower end of the first small longitudinal beam is fixedly connected with a second small longitudinal beam. The second small longitudinal beam is arranged inside the groove of the bracket. A supporting cross beam is arranged at the rear side of the first small longitudinal beam. An L-shaped clamping seat is arranged at the rear end of the supporting cross beam. The rear end of the photovoltaic panel is arranged between the upper side of the supporting cross beam and the top end of the clamping seat. An outer frame body is arranged around the photovoltaic panel. End plates are symmetrically installed on the lower left and right sides of the front side of the outer frame body. A hanging cross beam is fixedly connected between the end plates. The hanging cross beam is arranged between the first small longitudinal beam and the second small longitudinal beam. Bases are symmetrically arranged on the left and right below the assembly cross beam. A first side plate and a second side plate are installed on the upper end of the base. A lead screw is arranged above the base. The lower end of the lead screw is fixedly installed with a base. The base is arranged between the first side plate and the second side plate. Rotating shafts are fixedly installed at the left and right ends of the base. Rotating holes are formed in the middle of the first side plate and the middle of the second side plate. The top ends of the rotating shafts are arranged inside the rotating holes.

[0009] When using a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to this technical solution, the user horizontally inserts two groups of brackets into the assembly crossbeam through the assembly slots, places them on the assembly crossbeam, then vertically inserts the assembly crossbeam into the support retaining ring through the jacks and the lead screw, and then installs the base on the ground by passing the anchor bolts through the anchor holes. Manually turn the support retaining rings on both sides to adjust the height of the assembly crossbeam. Then, insert the hanging crossbeam at the lower end of the photovoltaic panel into the notch between the rear ends of the first small longitudinal beam and the second small longitudinal beam, so that the photovoltaic panel is on the upper side of the first small longitudinal beam. Then, horizontally align the notches at the rear ends of the first small longitudinal beam and the second small longitudinal beam with the upper structure of the bracket, and align the notch between the first small longitudinal beam and the side clamping plate and insert it from front to back. Through the horizontal elastic pulling effect of the first spring on the locking bolt, the locking bolt is passed through the first adjustment hole and the corresponding second adjustment hole to lock the first small longitudinal beam and the bracket. Then, fix the supporting crossbeam at the rear end of the first small longitudinal beam through the connection of the connecting bolt and the connecting hole. At this time, the rear end of the photovoltaic panel is on the surface of the first gasket on the upper side of the supporting crossbeam. Manually pull the clamping seat, and further lock the rear end of the photovoltaic panel through the L-shaped structure at its top. Then, according to the installation needs, slide the bracket left and right or slide the first small longitudinal beam forward and backward to adjust the planar position of the photovoltaic panel, and finally lock the bracket and the assembly crossbeam by passing the adjustment bolt through the first adjustment hole and the second adjustment hole, so that the photovoltaic panel is in a suitable working position. Driven by the rotary motor, the base rotates forward and backward with the rotary shaft as the axis to adjust the inclination angle of the upper assembly crossbeam and the photovoltaic panel.

[0010] Further, jacks are provided at the left and right ends of the assembly crossbeam, the lead screw is arranged inside the jacks, a support retaining ring is threadedly connected to the outside of the lead screw, and the support retaining ring is arranged on the lower side of the assembly crossbeam. Manually turn the support retaining ring to make it move longitudinally along the lead screw, and the assembly crossbeam moves synchronously with the support retaining ring to adjust the installation height of the photovoltaic panel.

[0011] Further, anchor holes are provided on the opposite sides of the base, anchor bolts fixed to the ground are installed inside the anchor holes, a rotary motor is installed on the opposite side of the first side plate, the rotary shaft is installed on the power execution element of the rotary motor, and the rotary motor controls the forward and backward rotation of the lead screw by a certain angle by driving the rotation of the rotary shaft in the rotary hole, and makes the assembly crossbeam move synchronously by means of the lead screw acting in the jacks.

[0012] Further, a number of first adjustment holes are horizontally and equidistantly provided at the upper end of the assembly crossbeam, a second adjustment hole is provided in the middle of the locking plate, and an adjustment bolt is threadedly connected between the first adjustment hole and the second adjustment hole. The bracket slides axially along the assembly crossbeam, and the distance between the brackets can be adjusted according to different photovoltaic panels, and the position of the bracket is locked by passing the adjustment bolt through the first adjustment hole and the second adjustment hole.

[0013] Further, a back plate is fixedly installed on the upper end of the bracket toward one side of the end of the assembly cross beam. A first through hole is provided in the middle of the lateral clamping plate and the middle of the back plate in the same straight line. A locking bolt is arranged inside the first through hole, and the back plate is used to support the locking bolt. The locking bolt moves horizontally in the first through hole to release or lock the first small longitudinal beam.

[0014] Further, a first spring is installed between the locking bolt and the back plate. A second through hole that penetrates left and right is equidistantly provided in the middle of the first small longitudinal beam. The locking bolt is arranged inside the second through hole. The first spring exerts an elastic pulling force on the locking bolt toward the side of the lateral clamping plate, so that it automatically enters the first through hole and the second through hole.

[0015] Further, a connecting bolt is installed at the rear end of the first small longitudinal beam. A connecting hole is provided in the middle of the supporting cross beam. The connecting bolt is threadedly connected inside the connecting hole. After the first small longitudinal beam is installed on the bracket, the supporting cross beam is fixed at the rear end of the first small longitudinal beam by means of threaded connection.

[0016] Further, docking bolts are symmetrically installed on the left and right sides of the front side of the lower end of the clamping seat. Docking holes are provided on the left and right sides of the connecting hole inside the supporting cross beam. The docking bolts are arranged inside the docking holes. A second spring is installed between the rear end of the supporting cross beam and the clamping seat. The second spring exerts an elastic pulling force on the clamping seat toward the side of the bracket, so that the clamping seat further locks the upper end of the photovoltaic panel.

[0017] Further, a first gasket is provided at the upper end of the supporting cross beam, a second gasket is provided at the rear side of the upper end of the outer frame body, and the upper end of the clamping seat is arranged on the surface of the second gasket. The first gasket and the second gasket are made of flexible materials, and respectively play an isolation and protection role on the upper and lower sides of the rear ends of the photovoltaic panel and the outer frame body.

[0018] (3) Beneficial effects

[0019] Compared with the prior art, the beneficial effects of the present invention are as follows: A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure of the present invention uses a bracket that can axially traverse on an assembly cross beam and a small longitudinal beam that can horizontally move longitudinally along the upper end of the bracket to adjust the plane position of the photovoltaic panel. Multiple groups of small photovoltaic panels can be assembled and arranged horizontally in a row by means of slot insertion between the mounting cross beam on the photovoltaic panel and the small longitudinal beam. It is flexible to use and convenient to assemble. By driving the way of a rotary motor to control the forward and backward rotation of the lead screw, the working inclination angle of the photovoltaic panel is changed, which is convenient to adapt to the lighting conditions in different regions. Description of the drawings

[0020] Figure 1Schematic diagram of the assembly structure of a specific embodiment of a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to the present invention;

[0021] Figure 2 Schematic diagram of the assembly cross beam and base structure of a specific embodiment of a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to the present invention;

[0022] Figure 3 Schematic diagram of the bracket structure of a specific embodiment of a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to the present invention;

[0023] Figure 4 Schematic diagram of the first small longitudinal beam and the supporting cross beam structure of a specific embodiment of a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to the present invention;

[0024] Figure 5 Schematic diagram of the photovoltaic panel structure of a specific embodiment of a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to the present invention.

[0025] The reference numerals in the drawings are: 1, assembly cross beam; 2, bracket; 3, locking plate; 4, assembly groove; 5, lateral clamping plate; 6, first small longitudinal beam; 7, second small longitudinal beam; 8, supporting cross beam; 9, clamping seat; 10, photovoltaic panel; 11, outer frame; 12, end plate; 13, hanging cross beam; 14, base; 15, first side plate; 16, second side plate; 17, lead screw; 18, base; 19, rotary shaft; 20, rotary hole; 21, jack; 22, support retaining ring; 23, anchoring hole; 24, anchoring bolt; 25, rotary motor; 26, first adjustment hole; 27, second adjustment hole; 28, adjustment bolt; 29, back plate; 30, first through hole; 31, locking bolt; 32, first spring; 33, second through hole; 34, connecting bolt; 35, connecting hole; 36, docking bolt; 37, docking hole; 38, second spring; 39, first gasket; 40, second gasket. Specific Embodiment

[0026] This specific embodiment is for a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure, and its assembly structure schematic diagram is as shown in Figure 1 shown, the schematic diagram of the assembly cross beam 1 and the base 14 is as shown in Figure 2 shown, the schematic diagram of the bracket 2 is as shown in Figure 3 shown, the schematic diagram of the first small longitudinal beam 6 and the supporting cross beam 8 is as shown in Figure 4 shown, the schematic diagram of the photovoltaic panel 10 is as shown in Figure 5As shown in the figure, the photovoltaic power generation module includes an assembly cross beam 1, frustum-shaped brackets 2 symmetrically arranged on the upper side of the assembly cross beam 1, a first small longitudinal beam 6 arranged on the upper side of the brackets 2, and a photovoltaic panel 10 arranged on the upper side between the first small longitudinal beams 6. The lower ends of the brackets 2 are symmetrically connected with locking plates 3 on the left and right. Assembly grooves 4 are formed at the left and right ends of the brackets 2. The assembly cross beam 1 is arranged inside the assembly grooves 4. The locking plates 3 are arranged on the lower side of the assembly cross beam 1. Lateral clamping plates 5 are symmetrically installed on the upper ends of the brackets 2 on the left and right. The first small longitudinal beam 6 is arranged between the lateral clamping plates 5. A second small longitudinal beam 7 is fixedly connected to the lower end of the first small longitudinal beam 6. The second small longitudinal beam 7 is arranged inside the groove of the bracket 2. A supporting cross beam 8 is arranged at the rear side of the first small longitudinal beam 6. An L-shaped clamping seat 9 is arranged at the rear end of the supporting cross beam 8. The rear end of the photovoltaic panel 10 is arranged between the upper side of the supporting cross beam 8 and the top end of the clamping seat 9. An outer frame body 11 is arranged around the photovoltaic panel 10. End plates 12 are symmetrically installed on the lower left and right sides of the front side of the outer frame body 11. A hanging cross beam 13 is fixedly connected between the end plates 12. The hanging cross beam 13 is arranged between the first small longitudinal beam 6 and the second small longitudinal beam 7. Base plates 14 are symmetrically arranged on the left and right below the assembly cross beam 1. A first side plate 15 and a second side plate 16 are installed on the upper ends of the base plates 14. A lead screw 17 is arranged above the base plates 14. A base 18 is fixedly installed at the lower end of the lead screw 17. The base 18 is arranged between the first side plate 15 and the second side plate 16. Rotating shafts 19 are fixedly installed at the left and right ends of the base 18. Rotating holes 20 are formed in the middle of the first side plate 15 and the middle of the second side plate 16. The top ends of the rotating shafts 19 are arranged inside the rotating holes 20.

[0027] For this specific embodiment, the photovoltaic panel 10 is a large integral photovoltaic module. To improve its working stability, the clamping seat 9 is used to strengthen the end locking of it. In addition, small photovoltaic modules with the same length but greatly reduced width can also be used. They are arranged in sequence by inserting the hanging cross beam 13 into the slots between the first small longitudinal beam 6 and the second small longitudinal beam 7. The small photovoltaic modules are light in weight and good in stability. In this case, it is not necessary to use the clamping seat 9 to strengthen the end locking.

[0028] Among them, insertion holes 21 are formed at the left and right ends of the assembly cross beam 1. The lead screw 17 is arranged inside the insertion holes 21. A support retaining ring 22 is threadedly connected to the outside of the lead screw 17. The support retaining ring 22 is arranged on the lower side of the assembly cross beam 1. Anchoring holes 23 are formed on the opposite sides of the base plates 14. An anchor bolt 24 fixed to the ground is installed inside the anchoring holes 23. A rotary motor 25 is installed on the opposite side of the first side plate 15. The rotating shaft 19 is installed on the power execution element of the rotary motor 25. By hand-twisting the support retaining ring 22, it is made to move longitudinally along the lead screw 17. The assembly cross beam 1 synchronously moves with the support retaining ring 22 to adjust the installation height of the photovoltaic panel 10. The rotary motor 25 controls the lead screw 17 to rotate forward and backward by a certain angle by driving the rotation of the rotating shaft 19 in the rotating hole 20, and makes the assembly cross beam 1 move synchronously by means of the action of the lead screw 17 in the insertion holes 21.

[0029] Meanwhile, a number of first adjustment holes 26 are horizontally and equidistantly formed at the upper end of the assembly cross beam 1. A second adjustment hole 27 is formed in the middle of the locking plate 3. An adjustment bolt 28 is threadedly connected between the first adjustment hole 26 and the second adjustment hole 27. A back plate 29 is fixedly installed on the upper end of the bracket 2 toward one side of the end of the assembly cross beam 1. First through holes 30 are formed in a straight line in the middle of the side clamping plate 5 and the middle of the back plate 29. A locking bolt 31 is arranged inside the first through hole 30. A first spring 32 is installed between the locking bolt 31 and the back plate 29. Second through holes 33 that penetrate left and right are equidistantly formed in the middle of the first small longitudinal beam 6. The locking bolt 31 is arranged inside the second through hole 33. The bracket 2 can slide axially along the assembly cross beam 1, and the distance between the brackets 2 can be adjusted according to different photovoltaic panels 10. The position of the bracket 2 is locked by inserting the adjustment bolt 28 into the first adjustment hole 26 and the second adjustment hole 27. The back plate 29 is used to support the locking bolt 31. The locking bolt 31 moves horizontally inside the first through hole 30 to release or lock the first small longitudinal beam 6. The first spring 32 exerts an elastic pulling force on the locking bolt 31 toward the side clamping plate 5, causing it to automatically enter the first through hole 30 and the second through hole 33.

[0030] In addition, a connecting bolt 34 is installed at the rear end of the first small longitudinal beam 6. A connecting hole 35 is formed in the middle of the supporting cross beam 8. The connecting bolt 34 is threadedly connected inside the connecting hole 35. Docking bolts 36 are symmetrically installed on the left and right sides of the front side of the lower end of the clamping seat 9. Docking holes 37 are formed on the left and right sides of the inner side of the supporting cross beam 8 relative to the connecting hole 35. The docking bolts 36 are arranged inside the docking holes 37. A second spring 38 is installed between the rear end of the supporting cross beam 8 and the clamping seat 9. A first gasket 39 is arranged at the upper end of the supporting cross beam 8. A second gasket 40 is arranged at the rear side of the upper end of the outer frame 11. The upper end of the clamping seat 9 is arranged on the surface of the second gasket 40. After the first small longitudinal beam 6 is installed on the bracket 2, the supporting cross beam 8 is fixed at the rear end of the first small longitudinal beam 6 by means of threaded connection. The second spring 38 exerts an elastic pulling force on the clamping seat 9 toward the bracket 2, causing the clamping seat 9 to further lock the upper end of the photovoltaic panel 10. The first gasket 39 and the second gasket 40 are made of flexible materials, and respectively play an isolation and protection role on the upper and lower sides of the rear ends of the photovoltaic panel 10 and the outer frame 11.

[0031] When using a sliding and highly flexible distributed photovoltaic power generation module with a bracket structure of this technical solution, the user horizontally inserts two groups of brackets 2 into the assembly crossbeam 1 through the assembly grooves 4 and places them on the assembly crossbeam 1. Then, the assembly crossbeam 1 is vertically inserted into the support retaining ring 22 through the jack hole 21 and the lead screw 17. Then, the base 14 is installed on the ground by inserting the anchor bolts 24 into the anchor holes 23. The support retaining rings 22 on both sides are respectively screwed by hand to adjust the height of the assembly crossbeam 1. Then, the hanging crossbeam 13 at the lower end of the photovoltaic panel 10 is inserted into the notch between the rear ends of the first small longitudinal beam 6 and the second small longitudinal beam 7, so that the photovoltaic panel 10 is on the upper side of the first small longitudinal beam 6. Then, the notches at the rear ends of the first small longitudinal beam 6 and the second small longitudinal beam 7 are horizontally aligned with the upper end structure of the bracket 2, and the notch between the first small longitudinal beam 6 and the lateral clamping plate 5 is aligned and inserted from front to back. Through the horizontal elastic pulling action of the first spring 32 on the locking bolt 31, the locking bolt 31 is inserted into the first adjustment hole 26 and the corresponding second adjustment hole 27 to lock the first small longitudinal beam 6 and the bracket 2. Then, the supporting crossbeam 8 is fixed to the rear end of the first small longitudinal beam 6 through the connection of the connecting bolt 34 and the connection hole 35. At this time, the rear end of the photovoltaic panel 10 is on the surface of the first gasket 39 on the upper side of the supporting crossbeam 8. The clamping seat 9 is pulled by hand, and the rear end of the photovoltaic panel 10 is further locked through the L-shaped structure at its top. Then, according to the installation requirements, the bracket 2 is slid left and right or the first small longitudinal beam 6 is slid back and forth to adjust the planar position of the photovoltaic panel 10. Finally, the bracket 2 and the assembly crossbeam 1 are locked by inserting the adjustment bolt 28 into the first adjustment hole 26 and the second adjustment hole 27, so that the photovoltaic panel 10 is in a suitable working position. Driven by the rotary motor 25, the base 18 rotates back and forth with the rotation axis 19 as the axis to adjust the inclination angle of the upper assembly crossbeam 1 and the photovoltaic panel 10.

Claims

1. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure, the photovoltaic power generation module comprising an assembly cross beam (1), frustum-shaped brackets (2) symmetrically arranged on the upper side of the assembly cross beam (1), a first small longitudinal beam (6) arranged on the upper side of the brackets (2), and a photovoltaic panel (10) arranged on the upper side between the first small longitudinal beams (6); characterized in that, The lower end of the bracket (2) is symmetrically connected with locking plates (3) on the left and right. Assembly grooves (4) are formed at the left and right ends of the bracket (2). The assembly cross beam (1) is arranged inside the assembly grooves (4). The locking plates (3) are arranged on the lower side of the assembly cross beam (1). Lateral clamping plates (5) are symmetrically installed on the upper end of the bracket (2) on the left and right. The first small longitudinal beam (6) is arranged between the lateral clamping plates (5). The lower end of the first small longitudinal beam (6) is fixedly connected with a second small longitudinal beam (7). The second small longitudinal beam (7) is arranged inside the groove of the bracket (2). A supporting cross beam (8) is arranged behind the first small longitudinal beam (6). An L-shaped clamping seat (9) is arranged at the rear end of the supporting cross beam (8). The rear end of the photovoltaic panel (10) is arranged between the upper side of the supporting cross beam (8) and the top end of the clamping seat (9). An outer frame body (11) is arranged around the photovoltaic panel (10). End plates (12) are symmetrically installed on the lower end of the front side of the outer frame body (11) on the left and right. A hanging cross beam (13) is fixedly connected between the end plates (12). The hanging cross beam (13) is arranged between the first small longitudinal beam (6) and the second small longitudinal beam (7). Bases (14) are symmetrically arranged on the left and right below the assembly cross beam (1). A first side plate (15) and a second side plate (16) are installed on the upper end of the base (14). A lead screw (17) is arranged above the base (14). A base (18) is fixedly installed at the lower end of the lead screw (17). The base (18) is arranged between the first side plate (15) and the second side plate (16). Rotating shafts (19) are fixedly installed at the left and right ends of the base (18). Rotating holes (20) are formed in the middle of the first side plate (15) and the middle of the second side plate (16). The top end of the rotating shaft (19) is arranged inside the rotating hole (20).

2. The sliding-arranged highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 1, wherein Insertion holes (21) are formed at the left and right ends of the assembly cross beam (1). The lead screw (17) is arranged inside the insertion holes (21). A supporting retaining ring (22) is threadedly connected to the outside of the lead screw (17). The supporting retaining ring (22) is arranged on the lower side of the assembly cross beam (1).

3. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 1, characterized in that, Anchoring holes (23) are formed on the opposite side of the base (14). An anchoring bolt (24) fixed to the ground is installed inside the anchoring holes (23). A rotating motor (25) is installed on the opposite side of the first side plate (15). The rotating shaft (19) is installed on the power execution element of the rotating motor (25).

4. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 1, characterized in that A number of first adjusting holes (26) are horizontally and equidistantly formed at the upper end of the assembly cross beam (1). A second adjusting hole (27) is formed in the middle of the locking plate (3). An adjusting bolt (28) is threadedly connected between the first adjusting hole (26) and the second adjusting hole (27).

5. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 1, characterized in that, At the upper end of the bracket (2), a back plate (29) is fixedly installed on one side facing the end of the assembly cross beam (1). A first through hole (30) is provided in the middle of the lateral clamping plate (5) and the middle of the back plate (29) in the same straight line, and a locking bolt (31) is arranged inside the first through hole (30).

6. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 5, characterized in that, A first spring (32) is installed between the locking bolt (31) and the back plate (29). Second through holes (33) that penetrate left and right are equidistantly provided in the middle of the first small longitudinal beam (6), and the locking bolt (31) is arranged inside the second through holes (33).

7. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 1, characterized in that A connecting bolt (34) is installed at the rear end of the first small longitudinal beam (6). A connecting hole (35) is provided in the middle of the supporting cross beam (8), and the connecting bolt (34) is threadedly connected inside the connecting hole (35).

8. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 7, characterized in that, Docking bolts (36) are symmetrically installed on the left and right sides of the front side of the lower end of the clamping seat (9). Docking holes (37) are provided on the left and right sides of the connecting hole (35) inside the supporting cross beam (8), and the docking bolts (36) are arranged inside the docking holes (37). A second spring (38) is installed between the rear end of the supporting cross beam (8) and the clamping seat (9).

9. A sliding and highly flexible distributed photovoltaic power generation module with a bracket structure according to claim 1, characterized in that, A first gasket (39) is provided at the upper end of the supporting cross beam (8). A second gasket (40) is provided at the rear side of the upper end of the outer frame body (11), and the upper end of the clamping seat (9) is arranged on the surface of the second gasket (40).

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