High-efficiency monocrystalline modules applicable to standing-seam color steel tiles

Abstract

The present invention relates to the technical field of single-crystal modules, and discloses an efficient single-crystal module applicable to standing-seam type color steel tiles, which solves the problems of current efficient single-crystal modules in the market. It includes a color steel plate body, and a photovoltaic outer frame is arranged on one side of the color steel plate body; clamping is carried out through a plurality of side clamping plates, which improves the stability of the bottom connecting plate fixed to the color steel plate body and improves the portability of the efficient single-crystal module when installed on the surface of standing-seam type color steel tiles; at the same time, the angle of the bottom support platform can be adjusted according to the inclination of the color steel plate body, and the photovoltaic outer frame can adjust the inclination angle of the photovoltaic outer frame in real time along with the sunlight angle, improving the power generation efficiency; at the same time, when the photovoltaic outer frame moves, it will synchronously drive the cleaning brush to clean, reducing the influence of dust and debris covering the surface of the single-crystal module due to long-term placement, and improving the power generation efficiency of the single-crystal module.

Description

Technical Field

[0001] The present invention belongs to the technical field of single crystal modules, and specifically relates to an efficient single crystal module suitable for standing-seam profiled steel sheets. Background Art

[0002] A single crystal module is a type of solar cell module, whose main material is single crystal silicon. A single crystal module is a photovoltaic module made from single crystal silicon rods and is a core component in a solar power generation system. During the production process, the single crystal silicon material is melted to form a high-purity silicon ingot, which is then cut into silicon wafers with a thickness of approximately 0.3 mm to form single crystal silicon wafers. Due to the characteristics and installation requirements of profiled steel sheets, an efficient single crystal module needs to have higher photoelectric conversion efficiency and better durability to ensure long-term stable operation on the profiled steel sheet roof, and has characteristics such as high photoelectric conversion efficiency and long lifespan.

[0003] In the prior art, "CN114499359A" discloses "a lightweight and efficient single crystal silicon solar module"; it includes a solar panel assembly, a bracket assembly, and a connection assembly. The solar panel assembly includes a frame fixing bracket inserted into the connection assembly, and a photovoltaic panel body is fixedly connected in the frame fixing bracket. The connection assembly includes a connection bracket inserted into the frame fixing bracket, and a bracket assembly is rotatably connected to the lower part of the connection bracket. The bracket assembly includes an upper rod rotatably connected to the lower part of the connection bracket, and a lower rod is inserted into the upper rod. In the present invention, through the bracket assembly that rotates and folds for storage on the connection assembly, the bracket assembly can be unfolded during use for stable support, and it is convenient for subsequent rapid and effective position debugging. When storage is required after use, a stable frame is formed by combining the bracket assembly and the connection assembly for effective protection to avoid damage to the solar panel assembly during storage.

[0004] However, the above-mentioned "a lightweight and efficient single crystal silicon solar module" still has some drawbacks. For example, due to the characteristics of single crystal modules and the structural features of standing-seam profiled steel sheets, it is difficult to fix existing single crystal modules during installation, increasing the difficulty and complexity of installation. At the same time, single crystal silicon solar panels are usually installed on fixed brackets and cannot adjust the angle according to the position of the sun. The fixed brackets will limit the amount of solar radiation received, resulting in a reduction in the amount of solar radiation received by the module, thereby reducing the power generation efficiency. At the same time, dust will accumulate on the surface of the single crystal module after long-term placement on the roof. The dust will block sunlight, reduce the transmittance of the glass on the surface of the photovoltaic module, and reduce the amount of solar radiation reaching the battery surface. At the same time, the dust adhering to the surface of the tempered glass will cause a part of the solar radiation to be absorbed by the dust and converted into heat energy, thereby increasing the working temperature of the single crystal photovoltaic module;

[0005] Therefore, an efficient single crystal module suitable for standing-seam profiled steel sheets is proposed here to solve the above-mentioned problems. Summary of the Invention

[0006] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides an efficient single-crystal module applicable to standing-seam color steel tiles, effectively solving the problems that it is difficult to fix the existing single-crystal modules during installation, and the fixed brackets will limit the amount of solar radiation received, resulting in a reduction in the amount of solar radiation received by the modules. In addition, dust will accumulate on the surface of the single-crystal modules after being placed on the roof for a long time, and the dust will block the sunlight.

[0007] To achieve the above object, the present invention provides the following technical solution: An efficient single-crystal module applicable to standing-seam color steel tiles, including a color steel plate body. One side of the color steel plate body is provided with a photovoltaic outer frame. One side of the photovoltaic outer frame is fixedly connected with a single-crystal module. The inner side of the single-crystal module is fixedly connected with an inner support plate. The surface of the color steel plate body is provided with a bottom connecting plate. The bottom of the bottom connecting plate is fixedly connected with a bottom support platform. An arc-shaped groove is opened at the bottom of the bottom support platform. One side of the bottom support platform is fixedly connected with a side support frame. One side of the side support frame is movably connected with a side bearing disc. One side of the side bearing disc is movably connected with a second bottom threaded rod. One end of the second bottom threaded rod is fixedly connected with a docking rod. One end of the docking rod is fixedly connected with a first bottom threaded rod. One end of the first bottom threaded rod is fixedly connected with a bottom connecting rod. Bottom threaded sleeves are threadedly connected to the surfaces of the first bottom threaded rod and the second bottom threaded rod. The bottom of the bottom threaded sleeve is fixedly connected with a side clamping plate. The top of the side clamping plate is fixedly connected with a bottom slide rail. The bottom of the bottom support platform is fixedly connected with a bottom sliding plate. The surface of the bottom slide rail is slidably connected with the bottom of the bottom sliding plate.

[0008] Preferably: One side of the bottom connecting plate is fixedly connected with a bottom electric push rod. One side of the bottom electric push rod is fixedly connected with a bottom transmission plate. The bottom of the bottom transmission plate is fixedly connected with a bottom socket ring. A limit bottom groove is movably sleeved inside the bottom socket ring. One side of the limit bottom groove is fixedly connected with a limit tooth. A limit groove is provided on one side of the limit tooth. A limit disc is provided on the surface of the limit groove. One side of the limit disc is fixedly connected with a long toothed belt. The surface of the long toothed belt is meshed with a first toothed disc. The other side of the limit bottom groove is fixedly connected with a square rod. A transmission bottom cylinder is provided on one side of the square rod. A square groove is opened inside the transmission bottom cylinder. One side of the transmission bottom cylinder is fixedly connected with a second toothed disc. The surface of the second toothed disc is meshed with a short toothed belt. One side of the short toothed belt is meshed with a third toothed disc. One side of the third toothed disc is fixedly connected with a side rod. One side of the side rod is fixedly connected with a first bevel gear disc. The first bevel gear disc is meshed with a second bevel gear disc on one side.

[0009] Preferably, a driving motor is arranged at the top of the color steel plate body. The output shaft of the driving motor is fixedly connected with a bottom driving rod. A second helical gear disc is fixedly sleeved on the surface of the bottom driving rod. The top end of the bottom driving rod is fixedly connected with a side thread sleeve. A top thread column is in threaded connection with the inner side of the side thread sleeve. The top end of the top thread column is fixedly connected with a rubber pad. A bottom support platform is movably connected to the top of the rubber pad. A side transmission frame is fixedly connected to one side of the bottom support platform. A communication hole is formed in the bottom of the side transmission frame. A sliding rod is movably sleeved in the communication hole. Bottom baffles are fixedly connected to both ends of the sliding rod.

[0010] Preferably, a servo motor is fixedly connected to the top of the bottom support platform. A controller body is fixedly connected to one side of the servo motor. The controller body includes a time module and a control module. The output shaft of the servo motor is fixedly connected with a transmission shaft rod. A driving gear is fixedly connected to one end of the transmission shaft rod. A side transmission small gear is meshed with one side of the driving gear. A top transmission large gear is meshed with one side of the side transmission small gear. Top connecting rods are fixedly connected to both sides of the top transmission large gear. A connecting column is fixedly connected to one side of the top connecting rod. A support side frame is fixedly connected to one side of the connecting column. A top support platform is fixedly connected to the top of the support side frame.

[0011] Preferably, a first transmission rod is fixedly connected to one side of the connecting column. A first transmission gear is fixedly connected to one end of the first transmission rod. A second transmission gear is meshed with one side of the first transmission gear. A second transmission rod is fixedly connected to one side of the second transmission gear. A third transmission gear is fixedly connected to one end of the second transmission rod. A fourth transmission gear is meshed with one side of the third transmission gear. A third transmission rod is fixedly connected to the top of the fourth transmission gear. A fifth transmission gear is fixedly connected to the top of the third transmission rod. A sixth transmission gear is meshed with one side of the fifth transmission gear. A top threaded rod is fixedly connected to one side of the sixth transmission gear. A top bearing disc is movably connected to one side of the top threaded rod. A top limiting plate is movably connected to one side of the top bearing disc. A top thread sleeve is in threaded connection with the surface of the top threaded rod. A bent frame is fixedly connected to one side of the top thread sleeve. A top sliding plate is fixedly connected to one side of the bent frame. A cleaning brush is movably connected to the bottom of the top sliding plate.

[0012] Preferably, a transmission side rod is fixedly connected to one side of the side transmission small gear. A limiting side ring is fixedly connected to the surface of the transmission side rod. A support side frame is movably sleeved on one side of the limiting side ring. A top socket ring is movably sleeved on the surface of the top connecting rod. Main support frames are fixedly connected to both sides of the top socket ring.

[0013] Preferably, a transverse plate is fixedly connected to one side of the bent frame, outer horizontal sliding rails are provided on both sides of the photovoltaic outer frame, and inner horizontal sliding rails are provided on both sides of the inner support plate.

[0014] The present invention also discloses a usage method of an efficient single-crystal module applicable to standing-seam profiled steel sheets. In the efficient single-crystal module applicable to standing-seam profiled steel sheets described above, the following steps are included:

[0015] S1. After the bottom electric push rod is started, the bottom electric push rod drives the bottom transmission plate to move horizontally. After the horizontal movement of the bottom transmission plate, it drives the bottom socket ring to move horizontally. Through the movable socket connection between the bottom socket ring and the limit bottom groove, it can drive the limit teeth on one side of the limit bottom groove to move horizontally. The moved limit teeth drive the square rod to slide and extend along the inner side of the square groove, and the limit teeth enter the limit groove on one side of the limit disk for clamping;

[0016] S2. After the limit teeth are clamped with the limit groove, at this time, by using the square rod and the square groove of the square socket, when the transmission bottom cylinder rotates, it will synchronously drive the square rod and the short toothed belt to rotate. The rotating short toothed belt drives the second toothed disk meshed on the other side to rotate synchronously. The rotating second toothed disk drives the transmission bottom cylinder to rotate. The rotating first toothed disk drives the meshed long toothed belt to rotate synchronously. Through the synchronous rotation of the limit disk and the long toothed belt, it synchronously drives the two bottom connecting rods to rotate;

[0017] S3. When the two bottom connecting rods rotate along the bottom of the two bottom connecting plates, they drive the first bottom threaded rod, the second bottom threaded rod and the docking rod to rotate. One end of the second bottom threaded rod is movably supported on one side of the side support frame through a side bearing disk, which can support the rotation of the bottom connecting rod. At the same time, the thread directions of the second bottom threaded rod and the first bottom threaded rod are opposite, and bottom threaded sleeves are threadedly connected to the surfaces of the first bottom threaded rod and the second bottom threaded rod. During the rotation of the first bottom threaded rod and the docking rod, the two bottom threaded sleeves move, and the two bottom threaded sleeves move symmetrically and towards each other along the surfaces of the second bottom threaded rod and the first bottom threaded rod;

[0018] S4. At the same time, by using the opposite movement of the two side clamping plates, the convex plates on the surface of the profiled steel sheet can be clamped, so that the bottom support table and the profiled steel sheet can be clamped and fixed portably;

[0019] S5. After being activated by the bottom electric push rod, the limit tooth is driven to separate from the limit slot. After separation, the transmission motor is activated to drive the bottom driving rod to rotate. The rotating bottom driving rod will drive the side threaded sleeve to rotate. The rotating side threaded sleeve will continuously rotate along the inner side of the bottom connecting plate. Through the threaded connection between the top threaded column and the side threaded sleeve, the top threaded column can be driven to vertically move along the inner side of the side threaded sleeve when the side threaded sleeve rotates. During the vertical movement, through the connection between the rubber pad and the bottom of the bottom support platform, one side of the bottom support platform can be driven to vertically move;

[0020] S6. According to the sunshine time and angle in the installation area of the single crystal module, through the controller body, the preset information instruction matching this area is selected, and the servo motor is driven to work by the controller body. First, at sunrise, the transmission shaft rod is driven to rotate by the servo motor. The rotating transmission shaft rod will drive the driving gear to rotate. Through the meshing of the driving gear and the side transmission small gear, the side transmission small gear can be driven to rotate synchronously after the driving gear rotates. After the side transmission small gear rotates, it will drive the top transmission large gear to rotate. And when the top transmission large gear rotates, it will drive the connecting columns on both sides to rotate. The two support side frames are adjusted at the same angle, which can drive the top support platform to adjust the angle. During the process of the top support platform adjusting the angle, it will drive the photovoltaic outer frame and the single crystal module to adjust the angle;

[0021] S7. One side of the side transmission small gear will drive the transmission side rod to rotate. The surface of the transmission side rod is movably sleeved through the support side frame. At the same time, the limit side ring on the surface of the transmission side rod is used to limit the support side frame. At the same time, the top socket ring on one side of the main support frame can support the top connecting rod. The main support frame can support the top connecting rod, and at the same time, it can support the top support platform and the photovoltaic outer frame during the angle adjustment;

[0022] S8. The rotating connecting column will drive the first transmission rod to rotate. The rotating first transmission rod will drive the first transmission gear to rotate. Through the meshing of the first transmission gear and the second transmission gear, the second transmission gear can be driven to rotate when the first transmission gear rotates. The rotating second transmission gear will drive the second transmission rod to rotate. The rotating second transmission rod will drive the third transmission gear to rotate synchronously. The rotating third transmission gear will drive the fourth transmission gear to rotate. The rotating fourth transmission gear will drive the third transmission rod to rotate vertically. The rotating third transmission rod will drive the fifth transmission gear to rotate. While the fifth transmission gear is rotating, it will drive the sixth transmission gear to rotate. The rotating sixth transmission gear will drive the top threaded rod to rotate. And during the rotation of the top threaded rod, it will drive the horizontally moving top threaded sleeve connected by the screw. The top threaded sleeve will drive the bent frame to horizontally move along the surface of the rotating top threaded rod. During the horizontal movement of the bent frame, it will drive the top sliding plate to move synchronously.

[0023] Compared with the prior art, the beneficial effects of the present invention are:

[0024] 1), The convex plates on the surface of the color steel plate body can be clamped by the opposite movement of the two side clamping plates, so that the bottom support platform and the color steel plate body can be clamped and fixed portably, reducing the workload of the operator. Moreover, by clamping with multiple side clamping plates at the bottom of the two bottom connecting plates, the fixing stability of the bottom connecting plate and the color steel plate body can be improved, and the portability of the high-efficiency single crystal module during installation on the surface of the standing seam type color steel tile is improved;

[0025] 2), It is adjusted by the bottom support platform with portable angle adjustment. Thus, after the bottom connecting plate and the color steel plate body are fixed on the surface, the angle of the bottom support platform can be adjusted according to the inclination of the color steel plate body, which can improve the use effect of the single crystal module on the surface of the photovoltaic outer frame and improve the power generation efficiency of the single crystal module;

[0026] 3), The preset information instruction matching the area is selected through the controller body, and the servo motor is driven to work through the controller body. At sunrise, the transmission shaft rod is driven to rotate by the servo motor, driving the angle adjustment of the photovoltaic outer frame and the single crystal module. At the same time, through the control of the controller body, the inclination angle of the photovoltaic outer frame can be adjusted in real time along with the angle of the daytime sunlight, improving the power generation efficiency of the single crystal module;

[0027] 4), The cleaning brush at the bottom of the top sliding plate cleans the surface of the single crystal module. From sunrise to sunset in a day, the top sliding plate will move from one side of the single crystal module to the other side. When the photovoltaic outer frame resets at night, the top sliding plate on the surface of the single crystal module will be driven to reset synchronously, so that the surface of the single crystal module can be cleaned, reducing the influence of dust and debris covering caused by long-term placement on the surface of the single crystal module and improving the power generation efficiency of the single crystal module. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] The drawings are used to provide further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation to the present invention. In the drawings:

[0029] Figure 1 is the overall external structure schematic diagram of the present invention;

[0030] Figure 2 is the inclined structure schematic diagram of the bottom connecting plate of the present invention;

[0031] Figure 3 is the structure schematic diagram of the sliding rod of the present invention;

[0032] Figure 4 is the structure schematic diagram of the arc groove of the present invention;

[0033] Figure 5Schematic diagram of the bottom connecting rod structure of the present invention;

[0034] Figure 6 Schematic diagram of the side thread sleeve structure of the present invention;

[0035] Figure 7 Schematic diagram of the first tooth disc structure of the present invention;

[0036] Figure 8 Schematic diagram of the short toothed belt structure of the present invention;

[0037] Figure 9 Schematic diagram of the bottom connecting plate structure of the present invention;

[0038] Figure 10 Schematic diagram of the bottom support platform structure of the present invention;

[0039] Figure 11 Schematic diagram of the main support frame structure of the present invention;

[0040] Figure 12 Schematic diagram of the support side frame structure of the present invention;

[0041] Figure 13 Schematic diagram of the top support platform structure of the present invention;

[0042] Figure 14 Schematic diagram of the top threaded rod structure of the present invention;

[0043] In the figure: 1, color steel plate body; 2, photovoltaic outer frame; 3, single crystal module; 4, inner support plate; 501, bottom connecting plate; 502, bottom support platform; 503, arc groove; 504, bottom connecting rod; 505, first bottom threaded rod; 506, second bottom threaded rod; 507, docking rod; 508, side clamping plate; 509, bottom threaded sleeve; 5010, bottom slide rail; 5011, bottom sliding plate; 5012, side bearing plate; 5013, side support frame; 5014, first tooth disc; 5015, long toothed belt; 5016, limit disc; 5017, limit groove; 5018, bottom electric push rod; 5019, bottom drive plate; 5020, bottom socket ring; 5021, limit tooth; 5022, limit bottom groove; 5023, square rod; 5024, drive bottom cylinder; 5025, square groove; 5026, second tooth disc; 5027, short toothed belt; 5028, third tooth disc; 5029, side rod; 5030, first bevel tooth disc; 5031, second bevel tooth disc; 601, drive motor; 602, bottom driving rod; 603, side threaded sleeve; 604, top threaded column; 605, rubber pad; 606, bottom support platform; 607, side drive frame; 608, communication hole; 609, bottom baffle; 6010, sliding rod; 701, servo motor; 702, controller body; 703, drive shaft rod; 704, driving tooth; 705, side drive small tooth; 706, drive side rod; 707, top drive large tooth; 708, top connecting rod; 709, connecting column; 7010, support side frame; 7011, top support platform; 7012, limit side ring; 7013, support side frame; 7014, main support frame; 7015, top socket ring; 801, first drive rod; 802, first drive tooth; 803, second drive tooth; 804, second drive rod; 805, third drive tooth; 806, fourth drive tooth; 807, third drive rod; 808, fifth drive tooth; 809, sixth drive tooth; 8010, top threaded rod; 8011, top threaded sleeve; 8012, bent frame; 8013, top sliding plate; 8014, cleaning brush; 8015, inner horizontal slide rail; 8016, cross plate; 8017, outer horizontal slide rail; 8018, top bearing plate; 8019, top limit plate. Detailed implementation manner

[0044] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention. Embodiment 1

[0045] This embodiment is given by Figures 1-14 The present invention provides the following technical solutions:

[0046] An efficient single-crystalline component applicable to standing-seam color steel tiles, comprising a color steel plate body 1. One side of the color steel plate body 1 is provided with a photovoltaic outer frame 2. One side of the photovoltaic outer frame 2 is fixedly connected with a single-crystalline component 3. The inner side of the single-crystalline component 3 is fixedly connected with an inner support plate 4. The surface of the color steel plate body 1 is provided with a bottom connecting plate 501. The bottom of the bottom connecting plate 501 is fixedly connected with a bottom support platform 502. An arc-shaped groove 503 is opened at the bottom of the bottom support platform 502. One side of the bottom support platform 502 is fixedly connected with a side support frame 5013. One side of the side support frame 5013 is movably connected with a side bearing plate 5012. One side of the side bearing plate 5012 is movably connected with a second bottom threaded rod 506. One end of the second bottom threaded rod 506 is fixedly connected with a docking rod 507. One end of the docking rod 507 is fixedly connected with a first bottom threaded rod 505. One end of the first bottom threaded rod 505 is fixedly connected with a bottom connecting rod 504. Bottom threaded sleeves 509 are threadedly connected to the surfaces of both the first bottom threaded rod 505 and the second bottom threaded rod 506. The bottom of the bottom threaded sleeve 509 is fixedly connected with a side clamping plate 508. The top of the side clamping plate 508 is fixedly connected with a bottom slide rail 5010. The bottom of the bottom support platform 502 is fixedly connected with a bottom sliding plate 5011. The surface of the bottom slide rail 5010 is slidably connected with the bottom of the bottom sliding plate 5011.

[0047] It should be noted that the two side clamping plates 508 are driven to move towards each other along the surfaces of the first bottom threaded rod 505 and the second bottom threaded rod 506 respectively. During the movement of the side clamping plates 508, the bottom slide rail 5010 will be driven to slide horizontally along the bottom of the bottom sliding plate 5011. The sliding of the bottom sliding plate 5011 and the bottom slide rail 5010 can improve the stability of the movement of the side clamping plates 508 and reduce the offset generated during the movement of the side clamping plates 508.

[0048] In this embodiment, a bottom electric push rod 5018 is fixedly connected to one side of the bottom connecting plate 501. A bottom transmission plate 5019 is fixedly connected to one side of the bottom electric push rod 5018. A bottom socket ring 5020 is fixedly connected to the bottom of the bottom transmission plate 5019. A limit bottom groove 5022 is movably sleeved inside the bottom socket ring 5020. A limit tooth 5021 is fixedly connected to one side of the limit bottom groove 5022. A limit groove 5017 is arranged on one side of the limit tooth 5021. A limit disk 5016 is arranged on the surface of the limit groove 5017. A long toothed belt 5015 is fixedly connected to one side of the limit disk 5016. A first toothed disk 5014 is meshed and connected to the surface of the long toothed belt 5015. A square rod 5023 is fixedly connected to the other side of the limit bottom groove 5022. A transmission bottom cylinder 5024 is arranged on one side of the square rod 5023. A square groove 5025 is opened inside the transmission bottom cylinder 5024. A second toothed disk 5026 is fixedly connected to one side of the transmission bottom cylinder 5024. A short toothed belt 5027 is meshed and connected to the surface of the second toothed disk 5026. A third toothed disk 5028 is meshed and connected to one side of the short toothed belt 5027. A side rod 5029 is fixedly connected to one side of the third toothed disk 5028. A first bevel gear disk 5030 is fixedly connected to one side of the side rod 5029. A second bevel gear disk 5031 is meshed and connected to one side of the first bevel gear disk 5030.

[0049] It should be noted that when the transmission motor 601 drives the bottom driving rod 602 to rotate, the second bevel gear disk 5031 is driven to rotate. Through the meshing of the first bevel gear disk 5030 and the second bevel gear disk 5031, the side rod 5029 on one side of the first bevel gear disk 5030 can be driven to rotate. The rotating side rod 5029 will drive the third toothed disk 5028 to rotate synchronously. The rotating third toothed disk 5028 will drive the short toothed belt 5027 to rotate. The rotating short toothed belt 5027 will drive the second toothed disk 5026 meshed on the other side to rotate synchronously.

[0050] In this embodiment, a transmission motor 601 is arranged on the top of the color steel plate body 1. An output shaft of the transmission motor 601 is fixedly connected to a bottom driving rod 602. A second bevel gear disk 5031 is fixedly sleeved on the surface of the bottom driving rod 602. A side threaded sleeve 603 is fixedly connected to the top end of the bottom driving rod 602. A top threaded column 604 is threadedly connected inside the side threaded sleeve 603. A rubber pad 605 is fixedly connected to the top end of the top threaded column 604. A bottom support platform 606 is movably connected to the top of the rubber pad 605. A side transmission frame 607 is fixedly connected to one side of the bottom support platform 606. A communication hole 608 is opened at the bottom of the side transmission frame 607. A sliding rod 6010 is movably sleeved inside the communication hole 608. Bottom baffles 609 are fixedly connected to both ends of the sliding rod 6010.

[0051] It should be noted that through the movable socket connection between the communication hole 608 and the sliding rod 6010, when one side of the bottom support platform 606 is lifted, the other side of the bottom support platform 606 will tilt at an angle and drive the side transmission frame 607 to rotate along the surface of the sliding rod 6010. At this time, the angle of the bottom support platform 606 can be adjusted. By adjusting the bottom support platform 606 with an adjustable angle that can be carried around, after the bottom connecting plate 501 and the surface of the color steel plate body 1 are fixed, the angle of the bottom support platform 606 can be adjusted according to the inclination of the color steel plate body 1, which can improve the use effect of the single crystal module 3 on the surface of the photovoltaic outer frame 2 and improve the power generation efficiency of the single crystal module 3.

[0052] In this embodiment, a servo motor 701 is fixedly connected to the top of the bottom support platform 606. A controller body 702 is fixedly connected to one side of the servo motor 701. The controller body 702 includes a time module and a control module. The output shaft of the servo motor 701 is fixedly connected to a transmission shaft rod 703. One end of the transmission shaft rod 703 is fixedly connected to a driving gear 704. A side transmission small gear 705 is meshed and connected to one side of the driving gear 704. A top transmission large gear 707 is meshed and connected to one side of the side transmission small gear 705. Top connecting rods 708 are fixedly connected to both sides of the top transmission large gear 707. A connecting column 709 is fixedly connected to one side of the top connecting rod 708. A support side frame 7010 is fixedly connected to one side of the connecting column 709. A top support platform 7011 is fixedly connected to the top of the support side frame 7010.

[0053] It should be noted that through the control of the controller body 702, the inclination angle of the photovoltaic outer frame 2 can be adjusted in real time according to the angle of the daytime sunlight, so that the inclination angle of the photovoltaic outer frame 2 matches the illumination angle of the sunlight, maximizing the power generation efficiency of the single crystal module 3. At the same time, after the sun sets, the angle stroke of the photovoltaic outer frame 2 reaches the maximum. At this time, the control module and the time module in the controller body 702 will control according to the time, and will drive the servo motor 701 to reverse after the sun sets. At this time, the servo motor 701 will drive the photovoltaic outer frame 2 to adjust the angle in the opposite direction, adjusting the photovoltaic outer frame 2 to the initial state, so that the single crystal module 3 on the surface of the photovoltaic outer frame 2 can work at sunrise the next day, and repeat adjusting the angle of the photovoltaic outer frame 2 with the movement of the sunlight over time, improving the efficiency of the single crystal module 3 during operation.

[0054] In this embodiment, a first drive rod 801 is fixedly connected to one side of the connecting column 709. One end of the first drive rod 801 is fixedly connected to a first drive gear 802. A second drive gear 803 is meshed and connected to one side of the first drive gear 802. A second drive rod 804 is fixedly connected to one side of the second drive gear 803. One end of the second drive rod 804 is fixedly connected to a third drive gear 805. A fourth drive gear 806 is meshed and connected to one side of the third drive gear 805. A third drive rod 807 is fixedly connected to the top of the fourth drive gear 806. A fifth drive gear 808 is fixedly connected to the top of the third drive rod 807. A sixth drive gear 809 is meshed and connected to one side of the fifth drive gear 808. A top threaded rod 8010 is fixedly connected to one side of the sixth drive gear 809. A top bearing disc 8018 is movably connected to one side of the top threaded rod 8010. A top limiting plate 8019 is movably connected to one side of the top bearing disc 8018. A top threaded sleeve 8011 is threadedly connected to the surface of the top threaded rod 8010. A bent frame 8012 is fixedly connected to one side of the top threaded sleeve 8011. A top sliding plate 8013 is fixedly connected to one side of the bent frame 8012. A cleaning brush 8014 is movably connected to the bottom of the top sliding plate 8013.

[0055] It should be noted that while the connecting column 709 rotates to adjust the angle of the photovoltaic outer frame 2, it will drive the top sliding plate 8013 to horizontally move along the surface of the single crystal component 3, so as to drive the cleaning brush 8014 at the bottom of the top sliding plate 8013 to clean the surface of the single crystal component 3. From sunrise to sunset in a day, the top sliding plate 8013 will move from one side of the single crystal component 3 to the other side. When the photovoltaic outer frame 2 resets at night, at this time, the top sliding plate 8013 on the surface of the single crystal component 3 will be driven to reset synchronously, so as to clean the surface of the single crystal component 3, which can reduce the influence of dust and sundries covering the surface of the single crystal component 3 due to long-term placement, and improve the power generation efficiency of the single crystal component 3.

[0056] In this embodiment, a drive side rod 706 is fixedly connected to one side of the side drive small gear 705. A limiting side ring 7012 is fixedly connected to the surface of the drive side rod 706. A support side frame 7013 is movably sleeved on one side of the limiting side ring 7012. A top socket ring 7015 is movably sleeved on the surface of the top connecting rod 708. Main support frames 7014 are fixedly connected to both sides of the top socket ring 7015.

[0057] It should be noted that the rotating drive side rod 706 is supported by the support side frame 7013, and at the same time, the limit side ring 7012 on the surface of the drive side rod 706 is used to limit the support side frame 7013, reducing the offset generated when the side drive small gear 705 rotates, improving the stability of the rotation of the top drive large gear 707. At the same time, the top socket ring 7015 on one side of the main support frame 7014 can support the top connecting rod 708, and the main support frame 7014 can stably support the top connecting rod 708, improving the stability of the rotation of the top connecting rod 708.

[0058] In this embodiment, a cross plate 8016 is fixedly connected to one side of the bent frame 8012. Outer horizontal sliding rails 8017 are provided on both sides of the photovoltaic outer frame 2, and inner horizontal sliding rails 8015 are provided on both sides of the inner support plate 4.

[0059] It should be noted that when the bent frame 8012 moves, it will drive the cross plate 8016 to slide along the inner side of the outer horizontal sliding rail 8017, which can improve the stability of the horizontal movement of the bent frame 8012. And when the bent frame 8012 moves horizontally, it will drive the top sliding plate 8013 to move synchronously. And when the top sliding plate 8013 moves horizontally, it will slide along the inner horizontal sliding rail 8015, which can improve the stability of the movement of the top sliding plate 8013 and reduce the offset generated when the top sliding plate 8013 moves.

[0060] Embodiment 2

[0061] Embodiment 2 of the present invention provides a method for using a high-efficiency single-crystal module suitable for standing-seam profiled steel sheets, which is used to further illustrate the working process or principle of the high-efficiency single-crystal module suitable for standing-seam profiled steel sheets provided in Embodiment 1 above. The specific content is as follows:

[0062] The high-efficiency single-crystal module suitable for standing-seam profiled steel sheets includes the following steps:

[0063] S1. First, after the bottom electric push rod 5018 is started, the bottom electric push rod 5018 drives the bottom transmission plate 5019 to move horizontally. After the horizontal movement of the bottom transmission plate 5019, it will drive the bottom socket ring 5020 to move horizontally. Through the movable socket connection between the bottom socket ring 5020 and the limit bottom groove 5022, the limit tooth 5021 on one side of the limit bottom groove 5022 can be driven to move horizontally. The moved limit tooth 5021 will drive the square rod 5023 to slide and extend along the inner side of the square groove 5025, and the limit tooth 5021 will enter the limit groove 5017 on one side of the limit disk 5016 for clamping.

[0064] S2. After the limiting tooth 5021 is clamped with the limiting groove 5017, when the driving motor 601 is started at this time, the driving motor 601 can drive the bottom driving rod 602 to rotate, and then drive the second bevel gear disk 5031 to rotate. Through the meshing of the first bevel gear disk 5030 and the second bevel gear disk 5031, the side rod 5029 on one side of the first bevel gear disk 5030 can be driven to rotate. The rotating side rod 5029 will drive the third gear disk 5028 to rotate synchronously. The rotating third gear disk 5028 will drive the short toothed belt 5027 to rotate. The rotating short toothed belt 5027 will drive the second gear disk 5026 engaged on the other side to rotate synchronously. The rotating second gear disk 5026 will drive the transmission bottom cylinder 5024 to rotate. And by using the square rod 5023 and the square groove 5025 in square socket connection, when the transmission bottom cylinder 5024 rotates, it will synchronously drive the square rod 5023 to rotate. The rotating square rod 5023 will drive the limiting bottom groove 5022 and the limiting tooth 5021 to rotate. And through the clamping of the limiting tooth 5021 and the limiting groove 5017, the limiting groove 5017 can be driven to rotate. After the limiting groove 5017 rotates, it will drive the limiting disk 5016 to rotate. The rotating limiting disk 5016 will drive the first gear disk 5014 to move synchronously. The rotating first gear disk 5014 will drive the engaged long toothed belt 5015 to rotate synchronously. Through the synchronous rotation of the limiting disk 5016 and the long toothed belt 5015, the two bottom connecting rods 504 will be driven to rotate synchronously;

[0065] S3. When the two bottom connecting rods 504 rotate along the bottoms of the two bottom connecting plates 501, they will drive the first bottom threaded rod 505, the second bottom threaded rod 506 and the docking rod 507 to rotate. And one end of the second bottom threaded rod 506 is movably supported on one side of the side support frame 5013 through the side bearing disk 5012, which can support the rotation of the bottom connecting rod 504. At the same time, the thread directions of the second bottom threaded rod 506 and the first bottom threaded rod 505 are opposite, and bottom threaded sleeves 509 are threadedly connected to the surfaces of both the first bottom threaded rod 505 and the second bottom threaded rod 506. During the rotation of the first bottom threaded rod 505 and the docking rod 507, the two bottom threaded sleeves 509 will be driven to move, and the two bottom threaded sleeves 509 will move symmetrically and towards each other along the surfaces of the second bottom threaded rod 506 and the first bottom threaded rod 505, thereby driving the two side clamping plates 508 to move towards each other along the surfaces of the first bottom threaded rod 505 and the second bottom threaded rod 506 respectively. And during the movement of the side clamping plate 508, it will drive the bottom slide rail 5010 to slide horizontally along the bottom of the bottom slide plate 5011. By using the sliding of the bottom slide plate 5011 and the bottom slide rail 5010, the stability of the movement of the side clamping plate 508 can be improved, and the offset generated during the movement of the side clamping plate 508 can be reduced;

[0066] S4. At the same time, the opposite movement of the two side clamping plates 508 can clamp the raised plate on the surface of the color steel plate body 1, so that the bottom support platform 502 and the color steel plate body 1 can be clamped and fixed portably, reducing the workload of the operator. Moreover, by clamping with multiple side clamping plates 508 at the bottom of the two bottom connecting plates 501, the fixing stability of the bottom connecting plate 501 and the color steel plate body 1 can be improved, and the portability of the high-efficiency single-crystal module during installation on the surface of the standing-seam color steel tile is improved;

[0067] S5. After using the side clamping plate 508 to clamp the surface of the color steel plate body 1, at this time, after the bottom electric push rod 5018 is started, the driving limit tooth 5021 is separated from the limit groove 5017. After separation, the driving motor 601 is started to drive the bottom driving rod 602 to rotate. The rotating bottom driving rod 602 will drive the side threaded sleeve 603 to rotate. The rotating side threaded sleeve 603 will continuously rotate along the inner side of the bottom connecting plate 501. Through the threaded connection between the top threaded column 604 and the side threaded sleeve 603, the top threaded column 604 can be driven to move vertically along the inner side of the side threaded sleeve 603 when the side threaded sleeve 603 rotates. During the vertical movement, through the connection between the rubber pad 605 and the bottom support platform 606, one side of the bottom support platform 606 can be driven to move vertically. And the rubber pad 605 has elasticity and can deform within a certain range when one side of the bottom support platform 606 moves vertically. Through the movable socket connection between the communication hole 608 and the sliding rod 6010, when one side of the bottom support platform 606 is lifted, the other side of the bottom support platform 606 will generate an angular inclination and drive the side transmission frame 607 to rotate along the surface of the sliding rod 6010. At this time, the angle of the bottom support platform 606 can be adjusted. Through the portable angle-adjustable bottom support platform 606 for adjustment, after the bottom connecting plate 501 and the color steel plate body 1 are fixed on the surface, the angle of the bottom support platform 606 can be adjusted according to the inclination of the color steel plate body 1, which can improve the use effect of the single-crystal module 3 on the surface of the photovoltaic outer frame 2 and improve the power generation efficiency of the single-crystal module 3;

[0068] S6. When the single-crystal module 3 is in use, first, according to the sunshine time and angle in the installation area of the single-crystal module 3, the controller body 702 selects a preset information instruction that matches this area, and drives the servo motor 701 to work through the controller body 702. First, at sunrise, the servo motor 701 drives the transmission shaft rod 703 to rotate. The rotating transmission shaft rod 703 drives the driving gear 704 to rotate. Through the meshing of the driving gear 704 and the side transmission small gear 705, the side transmission small gear 705 can be driven to rotate synchronously after the driving gear 704 rotates. After the side transmission small gear 705 rotates, it drives the top transmission large gear 707 to rotate. When the top transmission large gear 707 rotates, it drives the top connecting rods 708 on both sides to rotate. The rotation of the top connecting rod 708 drives the connecting column 709 and the support side frame 7010 to adjust the angle synchronously. The synchronous angle adjustment of the two support side frames 7010 can drive the top support platform 7011 to adjust the angle. During the process of the top support platform 7011 adjusting the angle, it drives the photovoltaic outer frame 2 and the single-crystal module 3 to adjust the angle. Through the control of the controller body 702, the inclination angle of the photovoltaic outer frame 2 can be adjusted in real time according to the angle of sunlight during the day, so that the inclination angle of the photovoltaic outer frame 2 matches the illumination angle of sunlight, maximizing the power generation efficiency of the single-crystal module 3. At the same time, after the sun sets, the angle stroke of the photovoltaic outer frame 2 reaches the maximum. At this time, the control module and time module in the controller body 702 will control according to the time, and drive the servo motor 701 to reverse after the sun sets. At this time, the servo motor 701 drives the photovoltaic outer frame 2 to adjust the angle in the opposite direction, adjusting the photovoltaic outer frame 2 to the initial state, so that the single-crystal module 3 on the surface of the photovoltaic outer frame 2 can work at sunrise the next day, and repeat adjusting the angle of the photovoltaic outer frame 2 with the movement of sunlight over time, improving the efficiency of the single-crystal module 3 during operation;

[0069] S7. During the process of the driving gear 704 driving the side transmission small gear 705 to rotate, one side of the side transmission small gear 705 drives the transmission side rod 706 to rotate. The surface of the transmission side rod 706 is movably sleeved through the support side frame 7013. At this time, the support side frame 7013 can be used to support the rotating transmission side rod 706. At the same time, the limit side ring 7012 on the surface of the transmission side rod 706 and the support side frame 7013 are used for limiting, reducing the offset generated when the side transmission small gear 705 rotates;

[0070] S8. While the connecting column 709 is rotating to adjust the angle of the photovoltaic outer frame 2, the rotating connecting column 709 will drive the first transmission rod 801 to rotate. The rotating first transmission rod 801 will drive the first transmission gear 802 to rotate. Through the meshing of the first transmission gear 802 and the second transmission gear 803, when the first transmission gear 802 rotates, it can drive the second transmission gear 803 to rotate. The rotating second transmission gear 803 will drive the second transmission rod 804 to rotate. The rotating second transmission rod 804 will drive the third transmission gear 805 to rotate synchronously. The rotating third transmission gear 805 will drive the fourth transmission gear 806 to rotate. The rotating fourth transmission gear 806 will drive the third transmission rod 807 to rotate vertically. The rotating third transmission rod 807 will drive the fifth transmission gear 808 to rotate. While the fifth transmission gear 808 is rotating, it will drive the sixth transmission gear 809 to rotate. The rotating sixth transmission gear 809 will drive the top threaded rod 8010 to rotate. And during the rotation of the top threaded rod 8010, it will be movably supported by the top bearing plate 8018 on one side of the top limit plate 8019, which can maintain the stable rotation of the top threaded rod 8010. During the rotation of the top threaded rod 8010, it will drive the horizontally moving top threaded sleeve 8011 that is helically connected. The top threaded sleeve 8011 will drive the bent frame 8012 to move horizontally along the surface of the rotating top threaded rod 8010. When the bent frame 8012 moves, it will drive the cross plate 8016 to slide along the inner side of the outer horizontal slide rail 8017, which can improve the stability of the horizontal movement of the bent frame 8012. And during the horizontal movement of the bent frame 8012, it will drive the top sliding plate 8013 to move synchronously. And when the top sliding plate 8013 moves horizontally, it will slide along the inner horizontal slide rail 8015, which can improve the stability of the movement of the top sliding plate 8013 and reduce the offset generated when the top sliding plate 8013 moves. While the connecting column 709 rotates to adjust the angle of the photovoltaic outer frame 2, it will drive the top sliding plate 8013 to move horizontally along the surface of the single crystal module 3. Thus, it can drive the cleaning brush 8014 at the bottom of the top sliding plate 8013 to clean the surface of the single crystal module 3. From sunrise to sunset in a day, the top sliding plate 8013 will move from one side of the single crystal module 3 to the other side. When the photovoltaic outer frame 2 resets at night, at this time, it will synchronously drive the top sliding plate 8013 on the surface of the single crystal module 3 to reset. Thus, it can clean the surface of the single crystal module 3, which can reduce the influence of dust and debris covering the surface of the single crystal module 3 due to long-term placement, and improve the power generation efficiency of the single crystal module 3;

[0071] It should be noted that: the single crystal module 3, the servo motor 701, the controller body 702, the drive motor 601 and the bottom electric push rod 5018 in the present invention are all prior arts, and corresponding models can be selected according to actual needs. The internal structures and operating principles of the above parts also belong to the common knowledge of those skilled in the art, and will not be elaborated too much here.

[0072] Finally, it should be noted that the above are only the preferred embodiments of the present invention and are 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 recorded in the foregoing embodiments or perform equivalent replacements for some of the technical features. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. An efficient single-crystalline module applicable to standing-seam color steel tiles, comprising a color steel plate body (1), characterized in that: On one side of the color steel plate body (1), a photovoltaic outer frame (2) is provided. On one side of the photovoltaic outer frame (2), a single crystal component (3) is fixedly connected. Inside the single crystal component (3), an inner support plate (4) is fixedly connected. On the surface of the color steel plate body (1), a bottom connecting plate (501) is provided. At the bottom of the bottom connecting plate (501), a bottom support platform (502) is fixedly connected. An arc-shaped groove (503) is formed at the bottom of the bottom support platform (502). On one side of the bottom support platform (502), a side support frame (5013) is fixedly connected. On one side of the side support frame (5013), a side bearing plate (5012) is movably connected. On one side of the side bearing plate (5012), a second bottom threaded rod (506) is movably connected. At one end of the second bottom threaded rod (506), a docking rod (507) is fixedly connected. At one end of the docking rod (507), a first bottom threaded rod (505) is fixedly connected. At one end of the first bottom threaded rod (505), a bottom connecting rod (504) is fixedly connected. Bottom threaded sleeves (509) are threadedly connected to the surfaces of both the first bottom threaded rod (505) and the second bottom threaded rod (506). At the bottom of the bottom threaded sleeve (509), a side clamping plate (508) is fixedly connected. At the top of the side clamping plate (508), a bottom slide rail (5010) is fixedly connected. At the bottom of the bottom support platform (502), a bottom slide plate (5011) is fixedly connected. The surface of the bottom slide rail (5010) is slidably connected to the bottom of the bottom slide plate (5011); One side of the bottom connecting plate (501) is fixedly connected with a bottom electric push rod (5018). One side of the bottom electric push rod (5018) is fixedly connected with a bottom transmission plate (5019). The bottom of the bottom transmission plate (5019) is fixedly connected with a bottom socket ring (5020). The inner side of the bottom socket ring (5020) is movably sleeved with a limit bottom groove (5022). One side of the limit bottom groove (5022) is fixedly connected with a limit tooth (5021). One side of the limit tooth (5021) is provided with a limit groove (5017). The surface of the limit groove (5017) is provided with a limit disc (5016). One side of the limit disc (5016) is fixedly connected with a long toothed belt (5015). The surface of the long toothed belt (5015) is meshed with a first toothed disc (5014). The other side of the limit bottom groove (5022) is fixedly connected with a square rod (5023). One side of the square rod (5023) is provided with a transmission bottom cylinder (5024). A square groove (5025) is opened in the inner side of the transmission bottom cylinder (5024). One side of the transmission bottom cylinder (5024) is fixedly connected with a second toothed disc (5026). The surface of the second toothed disc (5026) is meshed with a short toothed belt (5027). One side of the short toothed belt (5027) is meshed with a third toothed disc (5028). One side of the third toothed disc (5028) is fixedly connected with a side rod (5029). One side of the side rod (5029) is fixedly connected with a first bevel toothed disc (5030). One side of the first bevel toothed disc (5030) is meshed with a second bevel toothed disc (5031).

2. The high-efficiency single-crystal module applicable to standing-seam color steel tiles according to claim 1, wherein: A transmission motor (601) is arranged on the top of the color steel plate body (1). The output shaft of the transmission motor (601) is fixedly connected with a bottom driving rod (602). The surface of the bottom driving rod (602) is fixedly sleeved with a second bevel toothed disc (5031). The top of the bottom driving rod (602) is fixedly connected with a side thread sleeve (603). A top thread post (604) is in threaded connection with the inner side of the side thread sleeve (603). The top of the top thread post (604) is fixedly connected with a rubber pad (605). The top of the rubber pad (605) is movably connected with a bottom support platform (606). One side of the bottom support platform (606) is fixedly connected with a side transmission frame (607). A communication hole (608) is opened at the bottom of the side transmission frame (607). A sliding rod (6010) is movably sleeved with the inner side of the communication hole (608). The two ends of the sliding rod (6010) are fixedly connected with bottom baffles (609).

3. The high-efficiency single-crystal module applicable to standing-seam color steel tiles according to claim 2, wherein: A servo motor (701) is fixedly connected to the top of the bottom support platform (606). A controller body (702) is fixedly connected to one side of the servo motor (701). The controller body (702) includes a time module and a control module. The output shaft of the servo motor (701) is fixedly connected to a transmission shaft rod (703). One end of the transmission shaft rod (703) is fixedly connected to a driving gear (704). A side transmission small gear (705) is meshed and connected to one side of the driving gear (704). A top transmission large gear (707) is meshed and connected to one side of the side transmission small gear (705). Top connecting rods (708) are fixedly connected to both sides of the top transmission large gear (707). A connecting column (709) is fixedly connected to one side of the top connecting rod (708). A support side frame (7010) is fixedly connected to one side of the connecting column (709). A top support platform (7011) is fixedly connected to the top of the support side frame (7010).

4. The high-efficiency single-crystal module applicable to standing-seam color steel tiles according to claim 3, characterized in that: A first transmission rod (801) is fixedly connected to one side of the connecting column (709). A first transmission gear (802) is fixedly connected to one end of the first transmission rod (801). A second transmission gear (803) is meshed and connected to one side of the first transmission gear (802). A second transmission rod (804) is fixedly connected to one side of the second transmission gear (803). A third transmission gear (805) is fixedly connected to one end of the second transmission rod (804). A fourth transmission gear (806) is meshed and connected to one side of the third transmission gear (805). A third transmission rod (807) is fixedly connected to the top of the fourth transmission gear (806). A fifth transmission gear (808) is fixedly connected to the top of the third transmission rod (807). A sixth transmission gear (809) is meshed and connected to one side of the fifth transmission gear (808). A top threaded rod (8010) is fixedly connected to one side of the sixth transmission gear (809). A top bearing disc (8018) is movably connected to one side of the top threaded rod (8010). A top limit plate (8019) is movably connected to one side of the top bearing disc (8018). A top threaded sleeve (8011) is threadedly connected to the surface of the top threaded rod (8010). A bent frame (8012) is fixedly connected to one side of the top threaded sleeve (8011). A top sliding plate (8013) is fixedly connected to one side of the bent frame (8012). A cleaning brush (8014) is movably connected to the bottom of the top sliding plate (8013).

5. The high-efficiency single-crystalline module applicable to standing-seam color steel tiles according to claim 4, wherein: A transmission side rod (706) is fixedly connected to one side of the side transmission small gear (705). A limit side ring (7012) is fixedly connected to the surface of the transmission side rod (706). A support side frame (7013) is movably sleeved on one side of the limit side ring (7012). A top socket ring (7015) is movably sleeved on the surface of the top connecting rod (708). Main support frames (7014) are fixedly connected to both sides of the top socket ring (7015).

6. The high-efficiency single-crystalline module applicable to standing-seam color steel tiles according to claim 5, wherein: One side of the bent frame (8012) is fixedly connected with a cross plate (8016). Outer horizontal sliding rails (8017) are arranged on both sides of the photovoltaic outer frame (2), and inner horizontal sliding rails (8015) are arranged on both sides of the inner support plate (4).

7. Method of using an efficient single-crystal module applicable to standing-seam type color steel tiles, applied to the efficient single-crystal module applicable to standing-seam type color steel tiles described in any one of claims 1-6, characterized in that, The method includes the following steps: S1. After the bottom electric push rod (5018) is started, the bottom transmission plate (5019) is driven by the bottom electric push rod (5018) to move horizontally. After the horizontal movement of the bottom transmission plate (5019), the bottom socket ring (5020) is driven to move horizontally. Through the movable socket connection between the bottom socket ring (5020) and the limit bottom groove (5022), the limit tooth (5021) on one side of the limit bottom groove (5022) can be driven to move horizontally. The moved limit tooth (5021) drives the square rod (5023) to slide and extend along the inner side of the square groove (5025), and the limit tooth (5021) enters and is clamped in the limit groove (5017) on one side of the limit disk (5016). S2. After the limit tooth (5021) is clamped with the limit groove (5017), at this time, by using the square rod (5023) with a square socket and the square groove (5025), when the transmission bottom cylinder (5024) rotates, the square rod (5023) and the short toothed belt (5027) are synchronously driven to rotate. The rotating short toothed belt (5027) drives the second toothed disk (5026) meshed on the other side to rotate synchronously. The rotating second toothed disk (5026) drives the transmission bottom cylinder (5024) to rotate. The rotating first toothed disk (5014) drives the meshed long toothed belt (5015) to rotate synchronously. Through the synchronous rotation of the limit disk (5016) and the long toothed belt (5015), the two bottom connecting rods (504) are synchronously driven to rotate. S3. When the two bottom connecting rods (504) rotate along the bottom of the two bottom connecting plates (501), the first bottom threaded rod (505), the second bottom threaded rod (506) and the docking rod (507) are driven to rotate. One end of the second bottom threaded rod (506) is movably supported on one side of the side support frame (5013) through a side bearing plate (5012), which can support the rotation of the bottom connecting rod (504). At the same time, the thread directions of the second bottom threaded rod (506) and the first bottom threaded rod (505) are opposite, and bottom threaded sleeves (509) are threadedly connected to the surfaces of the first bottom threaded rod (505) and the second bottom threaded rod (506). During the rotation of the first bottom threaded rod (505) and the docking rod (507), the two bottom threaded sleeves (509) are driven to move, and the two bottom threaded sleeves (509) move symmetrically and towards each other along the surfaces of the second bottom threaded rod (506) and the first bottom threaded rod (505). S4. At the same time, by using the opposite movement of the two side clamping plates (508), the convex plate on the surface of the color steel plate body (1) can be clamped, so that the bottom support table (502) and the color steel plate body (1) can be clamped and fixed portably. S5. After being activated by the bottom electric push rod (5018), the driving limit tooth (5021) is separated from the limit slot (5017). After separation, the transmission motor (601) is activated to drive the bottom driving rod (602) to rotate. The rotating bottom driving rod (602) drives the side threaded sleeve (603) to rotate. The rotating side threaded sleeve (603) continuously rotates along the inner side of the bottom connecting plate (501). Through the threaded connection between the top threaded post (604) and the side threaded sleeve (603), the top threaded post (604) can be driven to vertically move along the inner side of the side threaded sleeve (603) when the side threaded sleeve (603) rotates. During the vertical movement, through the connection between the rubber pad (605) and the bottom of the bottom support platform (606), one side of the bottom support platform (606) can be driven to vertically move; S6. According to the sunshine duration and angle of the installation area of the single crystal module (3), the controller body (702) selects the preset information instruction matching this area and drives the servo motor (701) to work. First, at sunrise, the servo motor (701) drives the transmission shaft rod (703) to rotate. The rotating transmission shaft rod (703) drives the driving gear (704) to rotate. Through the meshing of the driving gear (704) and the side transmission small gear (705), the side transmission small gear (705) can be driven to rotate synchronously after the driving gear (704) rotates. After the side transmission small gear (705) rotates, it drives the top transmission large gear (707) to rotate. When the top transmission large gear (707) rotates, it drives the connecting columns (709) on both sides to rotate. The two support side frames (7010) perform synchronous angle adjustment, which can drive the top support platform (7011) to adjust the angle. During the process of the top support platform (7011) adjusting the angle, it drives the photovoltaic outer frame (2) and the single crystal module (3) to adjust the angle; S7. One side of the side transmission small gear (705) drives the transmission side rod (706) to rotate. The surface of the transmission side rod (706) is movably sleeved through the support side frame (7013). At the same time, the limit side ring (7012) on the surface of the transmission side rod (706) is used for limiting with the support side frame (7013). At the same time, the top socket ring (7015) on one side of the main support frame (7014) can support the top connecting rod (708). The main support frame (7014) can support the top connecting rod (708) and can also support the top support platform (7011) and the photovoltaic outer frame (2) during the angle adjustment; The rotating connecting column (709) drives the first transmission rod (801) to rotate. The rotating first transmission rod (801) drives the first transmission gear (802) to rotate. Through the meshing of the first transmission gear (802) and the second transmission gear (803), the second transmission gear (803) can be driven to rotate when the first transmission gear (802) rotates. The rotating second transmission gear (803) drives the second transmission rod (804) to rotate. The rotating second transmission rod (804) drives the third transmission gear (805) to rotate synchronously. The rotating third transmission gear (805) drives the fourth transmission gear (806) to rotate. The rotating fourth transmission gear (806) drives the third transmission rod (807) to rotate vertically. The rotating third transmission rod (807) drives the fifth transmission gear (808) to rotate. While rotating, the fifth transmission gear (808) drives the sixth transmission gear (809) to rotate. The rotating sixth transmission gear (809) drives the top threaded rod (8010) to rotate. During the rotation of the top threaded rod (8010), it drives the horizontally moving top threaded sleeve (8011) connected by a screw thread. The top threaded sleeve (8011) drives the bent frame (8012) to move horizontally along the surface of the rotating top threaded rod (8010). During the horizontal movement of the bent frame (8012), it drives the top sliding plate (8013) to move synchronously.

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