Photovoltaic module support device for photovoltaic power generation

Abstract

This invention relates to the field of photovoltaic support technology and discloses a photovoltaic module support device for photovoltaic power generation, including a photovoltaic panel, and further comprising: a panel dust removal module, including a dust removal box with a light-receiving window reserved on the front side of the dust removal box, the photovoltaic panel being placed inside the dust removal box, and a dust removal port being provided between the photovoltaic panel and the light-receiving window; a back windproof module, located behind the panel dust removal module, and having multiple wind power dissipation modules inside, the airflow being buffered by the wind power dissipation modules and then guided to the panel dust removal module by the back windproof module for dust removal; a pair of side windproof modules, arranged vertically and horizontally between the panel dust removal module and the back windproof module, for guiding and buffering the airflow on both sides; and an adjusting bracket, the panel dust removal module being fixed after being flipped by the adjusting bracket. The advantages of this invention compared with the prior art are: this invention has stronger windproof capability and can automatically blow away the photovoltaic panel, reducing dust adhesion.

Description

Technical Field

[0001] This invention relates to the field of photovoltaic support technology, specifically to a photovoltaic module support device for photovoltaic power generation. Background Technology

[0002] Photovoltaic power generation, as a core technology of renewable energy, directly converts solar radiation into direct current through the photoelectric effect of semiconductor materials. The photovoltaic system then converts the direct current into alternating current through an inverter and feeds it into the power grid, thereby reducing the grid's dependence on fossil fuels. Moreover, the power generation process produces no waste gas or wastewater emissions, making it more environmentally friendly. my country has built a large number of photovoltaic power generation base stations. However, the installation of photovoltaic modules requires the use of brackets or support devices.

[0003] Existing support devices can generally control the angle of photovoltaic modules, thereby adjusting the angle between the photovoltaic module and sunlight to improve the efficiency of photovoltaic power generation. However, after adjustment, the photovoltaic modules are generally installed at an angle, which results in greater wind resistance and greater susceptibility to wind, making them less wind-resistant. In some areas, when the wind is strong, the airflow will exert a large thrust on the photovoltaic modules from below, causing damage or even blowing them off and causing damage to surrounding equipment. In addition, photovoltaic modules are generally installed outdoors, and after a period of use, a layer of dust will accumulate on the surface, affecting their photovoltaic power generation performance and reducing their efficiency. Regular cleaning by workers is very troublesome and laborious. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to provide a photovoltaic module support device for photovoltaic power generation, which has a windproof structure set on the rear side of the photovoltaic module to buffer, consume and offset the airflow, reduce the impact of wind on the photovoltaic module, and at the same time use the treated airflow to blow away dust from the surface of the photovoltaic module, thereby improving the photovoltaic power generation efficiency of the photovoltaic module.

[0005] To solve the above-mentioned technical problems, the technical solution provided by the present invention is as follows:

[0006] A photovoltaic module support device for photovoltaic power generation includes a photovoltaic panel and further includes:

[0007] The panel soot blowing module includes a soot blowing box, a light-transmitting window reserved on the front side of the soot blowing box, a photovoltaic panel installed inside the soot blowing box, and a soot blowing port provided between the photovoltaic panel and the light-transmitting window;

[0008] The back windproof module is located behind the panel soot blowing module and contains multiple airflow consuming modules. After being buffered by the airflow consuming modules, the airflow is guided to the panel soot blowing module through the back windproof module for soot blowing.

[0009] The lateral windproof module is a pair of modules that are mirrored vertically between the panel soot blowing module and the rear windproof module, which guide and buffer the airflow on both sides.

[0010] Adjust the bracket; the panel soot blowing module is fixed in place after being flipped over by the adjustment bracket.

[0011] Furthermore, the back windproof module includes a back wind box, inside which a pair of mounting plates are vertically arranged along the front and back. A converging hopper is arranged on the front side, gradually decreasing in size from back to front, and a diverting hopper is arranged on the front side of the converging hopper, gradually increasing in size from back to front. The front side of the diverting hopper is connected to the soot blowing box, and a fixed impeller is fixedly arranged on the inner side. A diverting cone is arranged on the rear side of the fixed impeller, and the blades are arranged at the same angle after being arranged along the inner wall of the diverting hopper. After the airflow passes through the fixed impeller, it diffuses evenly in all directions.

[0012] Furthermore, the wind power consumption module includes an installation pipe disposed between two mounting plates. An agitator is disposed inside the installation pipe, and a pair of moving impellers are rotatably disposed therein. An agitator liquid is disposed inside the agitator, and a pair of agitating wheels are rotatably disposed therein. The two agitating wheels rotate in opposite directions. The two moving impellers are arranged in mirror image on the front and rear sides of the agitator, and the blades are arranged at opposite angles. The rotating shafts of the two moving impellers are connected to the rotating shafts of the corresponding agitating wheels. After the airflow drives the first moving impeller to rotate, its direction changes and it impacts the blade surface of the other moving impeller, causing the other moving impeller to rotate in the opposite direction.

[0013] Furthermore, the mounting pipe is a hexagonal tube body, with its front end fixed to the mounting plate and its rear end provided with an air inlet hopper. The air inlet hopper is a hexagonal bucket-shaped structure that gradually decreases in size from back to front, and multiple hoppers are evenly arranged in a honeycomb pattern on another mounting plate, so that the airflow from the rear is diverted into each mounting pipe.

[0014] Furthermore, the lateral windproof module includes a guide box disposed between the soot blowing box and the confluence hopper. The guide boxes are symmetrically arranged on both sides, and a pair are mirror-arranged on the upper and lower sides of the diversion hopper. Air inlets are respectively provided on the left and right sides of the two guide boxes, and arc-shaped guide box walls are provided on opposite sides of the diversion hopper. After the airflow enters the two guide boxes, it compresses the two guide boxes.

[0015] Furthermore, multiple guide plates are evenly arranged along the upper and lower sides of the inner edge of the flow guide box, and each guide plate is arranged in a curved manner corresponding to the wall of the flow guide box, so as to guide the airflow entering the flow guide box.

[0016] Furthermore, air outlet pipes are respectively provided on the left and right sides of the front side wall of the flow guide box. The air outlet pipes are arranged horizontally along the front and back, and are respectively on both sides of the soot blowing box. One-way airflow louvers are provided in the flow guide box corresponding to the air inlet. After being blown by the airflow entering from the air inlet on the other side, the one-way airflow louvers flip and block the air inlet on the same side, and the airflow is discharged through the air outlet pipe.

[0017] Furthermore, the adjustment bracket includes a bracket base, a pair of upright columns are erected on the front side of the bracket base, and a pair of telescopic rods are erected on the rear side. The top of the columns is hinged to the bottom of the soot blowing box. Lifting crossbars are respectively set on the left and right sides of the soot blowing box. The two telescopic rods are arranged in a mirror image, and the cylinder end is hinged to the bracket base. The telescopic end is rotatably set on the lifting crossbar. After the telescopic rods extend and retract, the soot blowing box flips around the top of the columns to adjust the angle of the photovoltaic module.

[0018] Furthermore, the support base is a horizontally arranged square frame that is adapted to the back bellows. After the telescopic rod is retracted, the back bellows flips downward and is inserted into the support base to reduce the impact of wind force and prevent it from being lifted.

[0019] The advantages of this invention compared to the prior art are:

[0020] 1. The present invention has a back windproof module installed on the back side of the photovoltaic panel. The back windproof module can divert the airflow from the back and use the wind power consumption module inside the back windproof module to absorb, buffer and consume the energy of the airflow, which greatly reduces the work capacity of the airflow, reduces the intensity of the airflow, prevents the airflow from damaging the photovoltaic panel, and improves the adaptability of the photovoltaic panel, so that the photovoltaic panel can continue to perform photovoltaic power generation safely and stably in windy environments, thereby increasing the power generation.

[0021] 2. The present invention is equipped with a lateral windproof module, which can guide the lateral wind, reduce its wind energy, and generate downward pressure to prevent the photovoltaic panel from being lifted, thereby improving the windproof capability of the photovoltaic panel and making it more convenient to use.

[0022] 3. The present invention is equipped with a panel dust blowing module, which can effectively utilize the airflow processed and buffered by the back windproof module to automatically blow the photovoltaic panel surface, reduce dust adhesion on the photovoltaic panel surface, improve the photovoltaic power generation effect of the photovoltaic panel, and the process does not require manual intervention, making it more convenient to use. Attached Figure Description

[0023] Figure 1 This is a front structural diagram of the present invention.

[0024] Figure 2 This is a schematic diagram of the back structure of this invention patent.

[0025] Figure 3 This is a cross-sectional schematic diagram of the present invention.

[0026] Figure 4 This is a schematic diagram showing the unfolded structure of this invention patent.

[0027] Figure 5 This is a schematic diagram of the structure of the back windproof module of this invention patent.

[0028] Figure 6 This is a cross-sectional schematic diagram of the windproof module facing away from the present invention.

[0029] Figure 7 This is a schematic diagram showing the structure of the wind power consumption module of this invention.

[0030] Figure 8 This is a cross-sectional schematic diagram of the wind power consumption module of this invention patent.

[0031] Figure 9 This is a schematic diagram of the structure of the panel blowing module of this invention.

[0032] Figure 10 This is a cross-sectional schematic diagram of the panel blowing module of this invention patent.

[0033] Figure 11 This is a schematic diagram of the lateral windproof module of this invention patent.

[0034] Figure 12 This is a schematic diagram showing the unfolded structure of the lateral windproof module of this invention patent.

[0035] Figure 13 This is a vertical cross-sectional schematic diagram of the lateral windproof module of this invention patent.

[0036] Figure 14 This is a schematic cross-sectional view of the lateral windproof module of this invention patent.

[0037] As shown in the figure: 1. Photovoltaic panel, 2. Back windproof module, 21. Mounting plate, 22. Converging hopper, 23. Back wind box, 24. Fixed impeller, 25. Diverting hopper, 3. Side windproof module, 31. Guide box, 32. Guide plate, 33. One-way airflow louver, 34. Guide box wall, 35. Air inlet, 36. Air outlet pipe, 4. Wind power consumption module, 41. Mounting pipe, 42. Air inlet hopper, 43. Moving impeller, 44. Agitator wheel, 45. Agitator cylinder, 5. Adjusting bracket, 51. Bracket base, 52. Column, 53. Telescopic rod, 6. Panel dust blowing module, 61. Dust blowing box, 62. Dust blowing port, 63. Lighting window, 64. Supporting crossbar, 65. Hinge seat, 66. Connecting rod, 7. Dustproof net. Detailed Implementation

[0038] The present invention will now be described in further detail with reference to the accompanying drawings.

[0039] Combined with appendix Figure 1 Appendix Figure 2 Appendix Figure 3 Appendix Figure 4As shown, a photovoltaic module support device for photovoltaic power generation includes a photovoltaic panel 1, a panel blowing module 6, a back windproof module 2, a side windproof module 3, and an adjustment bracket 5. The photovoltaic panel 1 is installed inside the panel blowing module 6, which is mounted on the adjustment bracket 5 and connected to the back windproof module 2. A pair of side windproof modules 3 are arranged vertically between the panel blowing module 6 and the back windproof module 2. The back windproof module 2 contains multiple sets of wind power consumption modules 4, which are used to buffer the passing airflow and reduce the wind force.

[0040] As described above, after the panel dust blowing module 6 adjusts its angle by adjusting the bracket 5, the photovoltaic panel 1 faces the sun directly for efficient photovoltaic power generation. Simultaneously, because the photovoltaic panel 1 is tilted, the airflow mainly comes from the rear and left / right sides of the photovoltaic panel 1, generating thrust on the rear wall. The airflow from both sides enters the lateral windproof module 3, where it is guided and redirected, generating a downward thrust on the lateral windproof module 3. This helps the photovoltaic panel 1 resist the thrust from the rear airflow, making it more stably positioned on the adjusting bracket 5. On the other hand, the airflow from the rear of the photovoltaic panel 1 enters the back windproof module 2 and is buffered by multiple wind-consuming modules 4, reducing its wind speed and energy, decreasing the thrust on the photovoltaic panel 1, and minimizing its impact. Furthermore, the buffered airflow, after being guided by the panel dust blowing module 6, is swept across the surface of the photovoltaic panel 1, removing dust and forming an air film to reduce dust adhesion and improve the wind resistance and photovoltaic power generation efficiency of the photovoltaic panel 1.

[0041] Combined with appendix Figure 3 Appendix Figure 9 Appendix Figure 10 As shown, the panel dust blowing module 6 includes a dust blowing box 61. The rear side of the dust blowing box 61 is connected to the back windproof module 2, and a light-transmitting window 63 is reserved on the front side. The photovoltaic panel 1 is set inside the dust blowing box 61 corresponding to the light-transmitting window 63. After the frame is connected and fixed together with the connecting rod 66 set on the front side wall of the dust blowing box 61, a dust blowing port 62 is set circumferentially between the photovoltaic panel 1 and the light-transmitting window 63. The dust blowing port 62 is arranged facing the center of the photovoltaic panel 1 and is equipped with a dustproof net 7 to prevent flying insects and dust from entering the dust blowing box 61.

[0042] As described above, the airflow from the rear enters the dust blowing box 61 after passing through the back windproof module 2, and is discharged through the dust blowing port 62. The discharged airflow flows along the surface of the photovoltaic panel 1 from one side to the other, carrying away the dust on the photovoltaic panel 1, thus removing dust from the surface of the photovoltaic panel 1 and improving the photovoltaic power generation efficiency of the photovoltaic panel 1. When the airflow is a continuous strong wind, the dust blowing port 62 continuously discharges airflow to blow dust, and the airflow continuously flows along the surface of the photovoltaic panel 1, forming a high-pressure air film on the surface of the photovoltaic panel 1, reducing the adhesion of dust, keeping the surface of the photovoltaic panel 1 clean, and improving the photovoltaic power generation efficiency of the photovoltaic panel 1.

[0043] Combined with appendix Figure 3 Appendix Figure 4 Appendix Figure 5 Appendix Figure 6 As shown, the back windproof module 2 includes a back wind box 23. A pair of mounting plates 21 arranged front to back are vertically installed inside the back wind box 23. A converging hopper 22 is provided on the front side, which gradually decreases in size from back to front. A diverting hopper 25 is provided on the front side of the converging hopper 22, which gradually increases in size from back to front. The front side of the diverting hopper 25 is connected to the rear side wall of the soot blowing box 61, and a fixed impeller 24 is fixedly installed on the inner side. A diverting cone is provided on the rear side of the fixed impeller 24. The blades are arranged at the same angle after being installed along the inner wall of the diverting hopper 25. Multiple wind power consumption modules 4 are arranged between the two mounting plates 21. A dustproof net 7 is provided on the rear side of the back wind box 23 to reduce dust accumulation in the wind power consumption modules 4. A gas pressure sensor (not in the center) is provided on the back of the photovoltaic panel 1 to detect the airflow through the fixed impeller 24.

[0044] As described above, the airflow from the rear flows onto the photovoltaic panel 1 and is guided into each wind power consumption module 4 for buffering and energy reduction. After buffering, the airflow passes through the wind power consumption module 4 and is collected by the converging bucket 22. It then passes through the fixed impeller 24 (the airflow directly behind the fixed impeller 24 is dispersed by the diverting cone and passes between the blades of the fixed impeller 24 along with other airflow). Under the guiding action of the blades of the fixed impeller 24, the airflow is evenly dispersed and flows along the side wall of the fixed impeller 24 in a rotating manner, and enters the panel blowing module 6 on the front side. This avoids the airflow directly impacting the photovoltaic panel 1 (a dead zone is formed between the center of the photovoltaic panel 1 and the fixed impeller 24), reducing the thrust on the photovoltaic panel 1.

[0045] Combined with appendix Figure 6 Appendix Figure 7 Appendix Figure 8 As shown, the wind power consumption module 4 includes an installation pipe 41 disposed between two mounting plates 21. The installation pipe 41 is a hexagonal tube body, with its front end fixed to the mounting plate 21 and its rear end provided with an air inlet hopper 42. The air inlet hopper 42 is a hexagonal bucket-shaped structure that gradually decreases in size from back to front, and multiple hoppers are evenly arranged in a honeycomb pattern on the other mounting plate 21. An agitator 45 is disposed inside the installation pipe 41, and a pair of moving impellers 43 are rotatably disposed therein. An agitator liquid is disposed inside the agitator 45, and a pair of agitator wheels 44 are rotatably disposed therein. The two agitator wheels 44 rotate in opposite directions. The two moving impellers 43 are mirror-arranged on the front and rear sides of the agitator 45, and the blades are arranged at opposite angles. The shafts of the two moving impellers 43 are connected to the shafts of the corresponding agitator wheels 44.

[0046] As described above, the airflow from the rear passes through the mounting plate 21 and is diverted by each air inlet 42 into the corresponding mounting pipe 41. As the airflow flows along the mounting pipe 41, it impacts the blades of the two moving impellers 43 one after the other, driving the two moving impellers 43 to rotate (after the airflow drives the first moving impeller 43, it is guided by its blades and its direction is deflected, and then it impacts the blades of the second moving impeller 43 at a near-vertical angle, driving it to rotate in the opposite direction). It also drives the two stirring wheels 44 to rotate in the stirring drum 45, stirring the relatively viscous stirring liquid, converting the airflow wind energy into mechanical kinetic energy, and then converting the mechanical kinetic energy into the kinetic energy and internal energy of the stirring liquid, thereby achieving the effect of reducing wind speed and consuming wind energy, improving the wind resistance of the photovoltaic panel 1 and the regulating bracket 5, so that it can adapt to strong wind environments and continue to generate photovoltaic power stably in strong winds.

[0047] Combined with appendix Figure 3 Appendix Figure 4 Appendix Figure 11 Appendix Figure 12 Appendix Figure 13 Appendix Figure 14 As shown, the lateral windproof module 3 includes a guide box 31 disposed between the soot blowing box 61 and the confluence hopper 22. The guide boxes 31 are symmetrically arranged on both sides, and a pair are mirror-arranged on the upper and lower sides of the diversion hopper 25. Air inlets 35 are respectively provided on the left and right sides of the two guide boxes 31, and arc-shaped guide box walls 34 are provided opposite to the diversion hopper 25. Five guide plates 32 are evenly arranged on the upper and lower sides of the inner edge of the guide box 31, and each guide plate 32 is bent in relation to the guide box wall 34 (the middle of each guide plate 32 corresponds to the bent guide plate). The flow box wall 34 is bent to the same side. Air outlet pipes 36 are respectively provided on the left and right sides of the front side wall of the flow box 31. The air outlet pipes 36 are arranged horizontally along the front and back and are respectively on both sides of the soot blowing box 61. A one-way airflow louver 33 is provided in the flow box 31 corresponding to the air inlet 35. After the one-way airflow louver 33 is blown by the airflow entering from the air inlet 35 on the other side, it flips and blocks the air inlet 35 on the same side, and the airflow is discharged through the air outlet pipe 36. Dustproof nets are provided at the air inlet 35 of the flow box 31 and the outlet of the air outlet pipe 36.

[0048] As described above, the airflow from the rear side of the photovoltaic panel 1 passes through the photovoltaic panel 1, opens the one-way airflow louver 33 on one side, and enters the upper and lower guide boxes 31 through the air inlet 35 on the same side. Under the action of the guide box wall 34 and the guide plate 32, the volume is compressed and the speed is increased, generating a downward oblique thrust on the upper guide box 31 and an upward oblique thrust on the lower guide box 31. The thrusts of the two guide boxes 31 partially cancel each other out, initially reducing the energy of the airflow. Under the action of the airflow, the one-way airflow on the other side... The air louvers 33 flip and block the corresponding air inlet 35, allowing the airflow to be discharged through the air outlet 36. Before being discharged, the air louvers 33 and the air guide box 31 generate a backward oblique thrust. After decomposition, the thrust is converted into a lateral force on the adjusting bracket 5 and a downward pressure on the photovoltaic panel 1 (pressing the photovoltaic panel 1 against the ground or roof), making the photovoltaic panel 1 more stable. During the process, the air guide box 31 automatically switches its working direction through the one-way air louvers 33 on both sides to adapt to the airflow of different wind directions in different seasons.

[0049] Combined with appendix Figure 1 Appendix Figure 2 Appendix Figure 4 As shown, the adjusting bracket 5 includes a bracket base 51, which is a horizontally arranged square frame adapted to the back air box 23. A pair of upright columns 52 are erected on its front side, and a pair of telescopic rods 53 are erected on its rear side. The top of the upright columns 52 is hinged to the hinge seat 65 at the bottom of the soot blowing box 61. Lifting crossbars 64 are respectively set on the left and right sides of the soot blowing box 61, and the lifting crossbars 64 pass through the guide box 31. The two telescopic rods 53 are arranged in a mirror image, and the cylinder end is hinged to the bracket base 51. The telescopic end is rotatably set on the lifting crossbar 64. After the telescopic rods 53 extend and retract, the soot blowing box 61 flips around the top of the upright columns 52. After the telescopic rods 53 retract, the back air box 23 flips downward and is inserted into the bracket base 51.

[0050] As described above, by controlling the extension and retraction of the telescopic rod 53, the angle of the photovoltaic panel 1 is adjusted, thereby regulating the photovoltaic power generation efficiency and wind resistance of the photovoltaic panel 1 (the smaller the upward tilt angle of the photovoltaic panel 1, the weaker the impact of airflow, and the stronger the wind resistance). Under normal circumstances, the photovoltaic panel 1, based on the existing equipment's light sensor and controller, controls the extension and retraction of the telescopic rod 53 to tilt itself and face the sunlight, improving photovoltaic power generation efficiency. Furthermore, the back-facing windproof module 2 and the side-facing windproof module 3 buffer the airflow to prevent damage. When the wind force is strong, the gas pressure system installed on the back of the photovoltaic panel 1... The force sensor detects that the gas pressure inside the soot blowing box 61 is too high, exceeding the limit. Even after being buffered by the back windproof module 2, the airflow still has a large wind speed and energy. To protect components such as the photovoltaic panel 1, the telescopic rod 53 is controlled to retract, and the photovoltaic panel 1 flips down, thereby reducing the impact of airflow and improving windproof capability. At the same time, the gas pressure inside the soot blowing box 61 decreases. When the wind force is too strong, the back wind box 23 continues to flip down until it is inserted into the bracket base 51. At this time, the airflow cannot enter the back wind box 23 and impact the back of the photovoltaic panel 1, further improving the windproof capability of the photovoltaic panel 1 and preventing the photovoltaic panel 1 from being blown away.

[0051] In specific implementations of this invention, the contents not described in detail in this specification are existing technologies known to those skilled in the art.

[0052] The working principle of this invention is as follows: by guiding, buffering and consuming the airflow on both sides and the rear of the photovoltaic panel 1, the energy of the airflow is reduced, the impact on the photovoltaic panel 1 is reduced, and the photovoltaic panel 1 can continue to work in strong wind environments. At the same time, the airflow after buffering and guiding is used to sweep the surface of the photovoltaic panel 1, reducing the accumulation and adhesion of dust on the surface of the photovoltaic panel 1, and improving the photovoltaic power generation efficiency of the photovoltaic panel 1.

Claims

1. A photovoltaic module support device for photovoltaic power generation, comprising a photovoltaic panel (1), characterized in that, Also includes: The panel soot blowing module (6) includes a soot blowing box (61), a light-transmitting window (63) is reserved on the front side of the soot blowing box (61), the photovoltaic panel (1) is installed in the soot blowing box (61), and a soot blowing port (62) is provided between it and the light-transmitting window (63). The back windproof module (2) is set behind the panel soot blowing module (6) and has multiple wind power consumption modules (4) inside. After the airflow is buffered by the wind power consumption module (4), it is guided to the panel soot blowing module (6) through the back windproof module (2) for soot blowing. The side windproof module (3) is a pair of modules mirrored vertically between the panel soot blowing module (6) and the back windproof module (2) to guide and buffer the airflow on both sides. Adjusting bracket (5), the panel soot blowing module (6) is fixed after being flipped by adjusting bracket (5); The back windproof module (2) includes a back wind box (23), in which a pair of mounting plates (21) arranged along the front and back are erected. A converging hopper (22) is arranged on the front side, gradually decreasing in size from back to front. A diverting hopper (25) is arranged on the front side of the converging hopper (22), gradually increasing in size from back to front. The front side of the diverting hopper (25) is connected to the soot blowing box (61), and a fixed impeller (24) is fixedly arranged on the inner side. A diverting cone is arranged on the rear side of the fixed impeller (24), and the blades are arranged at the same angle after being arranged along the inner wall of the diverting hopper (25). The lateral windproof module (3) includes a guide box (31) set between the soot blowing box (61) and the confluence hopper (22). The two guide boxes (31) are respectively provided with air inlets (35) on the left and right sides, and air outlet pipes (36) are respectively provided on the left and right sides of the front side wall. The air outlet pipes (36) are arranged horizontally along the front and rear, and are respectively on both sides of the soot blowing box (61). The guide box (31) is provided with a one-way airflow louver (33) corresponding to the air inlet (35). After the one-way airflow louver (33) is blown by the airflow entering from the air inlet (35) on the other side, it flips and blocks the air inlet (35) on the same side, and the airflow is discharged through the air outlet pipe (36).

2. The photovoltaic module support device for photovoltaic power generation according to claim 1, characterized in that: The wind power consumption module (4) includes an installation pipe (41) disposed between two mounting plates (21). An agitator (45) is disposed inside the installation pipe (41), and a pair of moving impellers (43) are rotatably disposed therein. An agitator liquid is disposed inside the agitator (45), and a pair of agitator wheels (44) are rotatably disposed therein. The two agitator wheels (44) rotate in opposite directions. The two moving impellers (43) are arranged in a mirror image on the front and rear sides of the agitator (45), and the blades are arranged at opposite angles. The shafts of the two moving impellers (43) are connected to the shafts of the corresponding agitator wheels (44).

3. A photovoltaic module support device for photovoltaic power generation according to claim 2, characterized in that: The mounting tube (41) is a hexagonal tube body, with its front end fixed to the mounting plate (21) and its rear end provided with an air inlet hopper (42). The air inlet hopper (42) is a hexagonal bucket-shaped structure that gradually shrinks from back to front, and multiple hoppers are evenly arranged in a honeycomb pattern on another mounting plate (21).

4. A photovoltaic module support device for photovoltaic power generation according to claim 1, characterized in that: The guide boxes (31) are arranged symmetrically on both sides, and a pair are mirrored on the upper and lower sides of the diversion bucket (25). The two guide boxes (31) are provided with arc-shaped guide box walls (34) facing each other to the diversion bucket (25).

5. A photovoltaic module support device for photovoltaic power generation according to claim 4, characterized in that: Multiple guide plates (32) are evenly arranged along the inner edge of the guide box (31), and each guide plate (32) is arranged in a curved manner corresponding to the guide box wall (34).

6. A photovoltaic module support device for photovoltaic power generation according to claim 1, characterized in that: The adjusting bracket (5) includes a bracket base (51). A pair of upright columns (52) are erected on the front side of the bracket base (51), and a pair of telescopic rods (53) are erected on the rear side. The top of the upright columns (52) is hinged to the bottom of the soot blowing box (61). Lifting crossbars (64) are respectively set on the left and right sides of the soot blowing box (61). The two telescopic rods (53) are arranged in a mirror image, and the cylinder end is hinged to the bracket base (51). The telescopic end is rotatably set on the lifting crossbar (64). After the telescopic rods (53) extend and retract, the soot blowing box (61) flips around the top of the upright columns (52).

7. A photovoltaic module support device for photovoltaic power generation according to claim 6, characterized in that: The support base (51) is a horizontally arranged square frame that is adapted to the back bellows (23). After the telescopic rod (53) is retracted, the back bellows (23) flips down and is inserted into the support base (51).

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