Photovoltaic support for solar power station

Abstract

The present invention relates to a photovoltaic support for a solar power station used in the field of converting infrared radiation, visible light or ultraviolet light to generate electric energy. The photovoltaic support comprises a support leg, a tripod rotatably mounted on the upper end of the support leg and a photovoltaic panel receiving frame hinged on the left end of the tripod. A support controller is fixedly mounted on the upper end of the tripod. The above-mentioned stabilizing sleeve, adaptive stabilizing group and photovoltaic support control system are used in combination to effectively improve the installation stability and portability of the photovoltaic support, improve the installation efficiency and installation automation of the photovoltaic support, and effectively promote the adaptability of the photovoltaic support to the installation environment, effectively promote the versatility of the photovoltaic support, and can be effectively applied to wasteland plains, deserts, large reservoirs and other environments, thereby reducing the construction cost of the solar power station, reducing cost losses, effectively reducing the subsequent maintenance difficulty and maintenance cost of the photovoltaic support, promoting the reuse rate of the photovoltaic support, and effectively promoting the economic adaptability of the photovoltaic support.

Description

[0001] This application is a divisional application with application number 2023115153831, application date November 15, 2023, and invention name “An adjustable photovoltaic bracket for solar power station”. Technical Field

[0002] The present invention relates to a photovoltaic bracket, in particular to a photovoltaic bracket for a solar power station used in the field of generating electric energy by converting infrared radiation, visible light or ultraviolet light. Background Art

[0003] The global energy crisis has promoted the rapid development of the new energy industry, and solar energy is the most important basic energy among various renewable energy sources; therefore, the photovoltaic industry, which is a solar power generation technology that converts solar radiation energy into electrical energy, has developed rapidly; in the old concept, the photovoltaic industry mainly includes the solar panel production chain, and the electrical control component production chain such as control devices and inverters.

[0004] The advantages of using solar support systems in solar panel support go far beyond simple production and installation. Solar panels can also be flexibly moved according to the sunlight and seasons. Just like when they were first installed, the slope of each solar panel can be adjusted to different angles of light by moving the fasteners, and the solar panel can be accurately fixed in the specified position by re-tightening.

[0005] Since existing solar power stations are generally set up in open locations, most of them are selected in environments such as wasteland plains, deserts and large reservoirs, but the existing photovoltaic brackets are not universal. Generally, corresponding photovoltaic brackets are selected or designed according to the location of the solar power station. This not only increases energy loss and increases the construction cost of the solar power station, but also reduces the functionality of the photovoltaic bracket, and increases the difficulty and cost of subsequent maintenance, which is not conducive to the reuse of resources. Summary of the invention

[0006] In view of the above-mentioned prior art, the technical problem to be solved by the present invention is that the existing photovoltaic brackets are not universal, which increases the difficulty of subsequent maintenance and recycling and is not conducive to the reuse of resources.

[0007] In order to solve the above problems, the present invention provides a photovoltaic support for a solar power station, comprising a support leg, a tripod rotatably mounted on the upper end of the support leg, and a photovoltaic panel receiving frame hinged at the left end of the tripod, a support controller is fixedly mounted on the upper end of the tripod, a support foot is fixedly connected to the lower end of the support leg, a stabilizing sleeve located on the upper side of the support foot is fixedly connected to the outer end of the support leg, a plurality of stabilizing supports are hinged at the lower end of the stabilizing sleeve, and an adaptive stabilizing group matching the support foot is connected to the lower end of the stabilizing support;

[0008] The adaptive stabilization group includes a counterweight stabilization block hinged at the lower end of the stabilization support, a counterweight adaptation cavity is provided in the counterweight stabilization block, a ground cone groove nail connected to the counterweight adaptation cavity is fixedly connected to the lower end of the counterweight stabilization block, an adaptation hole connected to the counterweight adaptation cavity is provided at the upper end of the counterweight stabilization block, and electromagnetic control plates cooperating with each other are slidably arranged on the left and right sides of the counterweight adaptation cavity, and double-headed extrusion lining plates are fixedly connected to the ends of the two electromagnetic control plates close to each other, and a counterweight filler is filled between the two double-headed extrusion lining plates;

[0009] The bracket controller is equipped with a photovoltaic bracket control system, which includes a bracket adjustment processing unit. The input end of the bracket adjustment processing unit is connected to the instruction receiving unit, and the output end of the bracket adjustment processing unit is connected to the installation adaptation adjustment unit. The input end of the instruction receiving unit is respectively connected to the control button set on the bracket controller and the wireless signal transmitter located in the bracket controller, and the output end of the installation adaptation adjustment unit is connected to the electromagnetic control board signal.

[0010] In the above-mentioned adjustable solar power station photovoltaic bracket, the adaptability of the photovoltaic bracket to the installation environment can be effectively promoted, the versatility of the photovoltaic bracket is effectively promoted, and it can be effectively applied to wasteland plains, deserts, large reservoirs and other environments.

[0011] As a further improvement of the present application, the left and right inner walls of the counterweight adaptation cavity are fixedly connected with isolation pads that cooperate with the electromagnetic control board, and the isolation pads are embedded with vibration sensors. The input end of the bracket adjustment processing unit is also connected to the installation stability monitoring unit, and the input end of the installation stability monitoring unit is connected to the vibration sensor signal. The output end of the bracket adjustment processing unit is also connected to the shake alarm unit, and the output end of the shake alarm unit is respectively connected to the indicator light installed on the bracket controller and the wireless signal transmitter signal located in the bracket controller.

[0012] As a further improvement of the present application, the input end of the bracket adjustment processing unit is also connected to the environmental data receiving unit and the light sensing unit, the input end of the environmental data receiving unit is connected to the wireless signal transmitter signal located in the bracket controller, and the input end of the light sensing unit is connected to the photosensor signal arranged at the four corners of the left end of the photovoltaic panel receiving frame.

[0013] As a further improvement of the present application, a built-in plate is fixedly connected to the inner wall of the tripod, the lower end of the built-in plate is fixedly connected to a rotating sleeve which is arranged on the upper end of the leg, an accompanying steering group is arranged at the lower end of the built-in plate, and an angle adjustment group which is movably connected to the photovoltaic panel receiving frame is hinged at the right end of the built-in plate, and the output end of the bracket adjustment processing unit is also connected to the light chasing adjustment unit, and the output end of the light chasing adjustment unit is respectively connected to the signals of the accompanying steering group and the angle adjustment group.

[0014] As a further improvement and supplement to the present application, the accompanying steering group includes an accompanying motor fixedly mounted on the outer end of the rotating sleeve and an arc-shaped accompanying rack fixedly mounted on the lower end of the built-in plate. The left end output end of the accompanying motor is connected to a accompanying transmission box, and the upper end of the accompanying transmission box is connected to an accompanying gear meshing with the arc-shaped accompanying rack. The output ends of the chasing light adjustment unit and the night reset unit are both connected to the accompanying motor signal.

[0015] As a further improvement and supplement to the present application, the deflection adjustment group includes a deflection guide box hinged at the right end of the built-in panel and a deflection rack hinged at the upper right end of the photovoltaic panel receiving frame. The lower end of the deflection rack extends into the deflection guide box and slides therewith. A deflection motor is fixedly installed at the front end of the deflection guide box, and the lower output end of the deflection motor is connected to a deflection transmission box. The rear end of the deflection transmission box extends into the deflection guide box and is connected to a deflection adjustment gear that cooperates with the deflection rack. The output ends of the chasing light adjustment unit and the night reset unit are both connected to the deflection motor signal.

[0016] As another improvement of the present application, the output end of the bracket adjustment processing unit is also connected to a night reset unit, and the output end of the night reset unit is respectively connected to the accompanying steering group and the angle adjustment group signal.

[0017] In summary, through the cooperation of the stabilization sleeve, the adaptive stabilization group and the photovoltaic bracket control system, while effectively improving the installation stability and portability of the photovoltaic bracket, improving the installation efficiency and installation automation of the photovoltaic bracket, it can also effectively promote the adaptability of the photovoltaic bracket to the installation environment, effectively promote the versatility of the photovoltaic bracket, and can be effectively used in wasteland plains, deserts, large reservoirs and other environments, thereby reducing the construction cost of the solar power station, reducing cost losses, effectively reducing the subsequent maintenance difficulty and maintenance cost of the photovoltaic bracket, promoting the reuse rate of the photovoltaic bracket, and effectively promoting the economic adaptability of the photovoltaic bracket. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is an axonometric diagram of the photovoltaic bracket of the first and second embodiments of the present application;

[0019] Figure 2 For the first and second embodiments of this application Figure 1 A partial enlarged view of the middle part;

[0020] Figure 3 This is a control logic diagram of the photovoltaic support control system of the first and second implementation modes of this application;

[0021] Figure 4 This is a front view of the photovoltaic bracket of the first and second embodiments of the present application when installed on the soil;

[0022] Figure 5This is a front cross-sectional view of the adaptive stabilization group when the photovoltaic bracket of the first and second embodiments of the present application is installed on the soil;

[0023] Figure 6 This is a front view of the legs of the photovoltaic bracket of the first and second embodiments of the present application when installed in the desert;

[0024] Figure 7 This is a front cross-sectional view of the adaptive stabilization group of the photovoltaic bracket of the first and second embodiments of the present application when installed in the desert;

[0025] Figure 8 This is a front view of the legs of the photovoltaic bracket of the first and second embodiments of the present application when installed in a reservoir;

[0026] Fig. 9 This is a front cross-sectional view of the adaptive stabilization group when the photovoltaic bracket of the first and second embodiments of the present application is installed in a reservoir;

[0027] Fig.10 This is a front cross-sectional view of the accompanying steering group and the angle adjustment group of the first and second embodiments of the present application;

[0028] Fig.11 This is a bottom view of the tripod according to the first and second embodiments of the present application.

[0029] Description of the numbers in the figure:

[0030] 1 photovoltaic panel receiving frame, 2 legs, 21 feet, 3 tripod, 31 built-in board, 32 rotating sleeve, 4 stabilizing sleeve, 41 stabilizing support, 5 adaptive stabilizing group, 51 counterweight stabilizing block, 52 ground cone groove nails, 53 adaptive holes, 54 counterweight filler, 55 isolation pad, 56 electromagnetic control board, 57 double-head extrusion lining, 6 accompanying steering group, 61 accompanying motor, 62 accompanying transmission box, 63 accompanying gear, 64 arc-shaped accompanying rack, 7 deflection adjustment group, 71 deflection motor, 72 deflection transmission box, 73 deflection guide box, 74 deflection rack, 8 bracket controller. DETAILED DESCRIPTION

[0031] The following describes two implementation modes of the present application in detail with reference to the accompanying drawings.

[0032] The first implementation method:

[0033] Figure 1-9It is shown that it includes a leg 2, a tripod 3 rotatably mounted on the upper end of the leg 2 and a photovoltaic panel receiving frame 1 hinged at the left end of the tripod 3, a bracket controller 8 is fixedly installed on the upper end of the tripod 3, a foot 21 is fixedly connected to the lower end of the leg 2, a stabilizing sleeve 4 located on the upper side of the foot 21 is fixedly connected to the outer end of the leg 2, and a plurality of stabilizing supports 41 are hinged at the lower end of the stabilizing sleeve 4, and the stabilizing supports 41 can be alloy rods, steel wire ropes and other material structures, and the specific length of the stabilizing supports 41 and the number of sections thereof can be selected by existing technicians according to the actual manufacturing requirements of the photovoltaic bracket, so as to ensure the stability and adaptability of the photovoltaic bracket, and the lower end of the stabilizing support 41 is connected with an adaptable stabilizing group 5 matched with the foot 21;

[0034] The adaptive stabilization group 5 includes a counterweight stabilization block 51 hinged at the lower end of the stabilization support 41, a counterweight adaptation cavity is provided in the counterweight stabilization block 51, a ground cone groove nail 52 connected to the counterweight adaptation cavity is fixedly connected to the lower end of the counterweight stabilization block 51, an adaptation hole 53 connected to the counterweight adaptation cavity is provided at the upper end of the counterweight stabilization block 51, and electromagnetic control plates 56 that cooperate with each other are slidably arranged on the left and right sides of the counterweight adaptation cavity, and two electromagnetic control plates 56 are fixedly connected to the ends close to each other with double-headed extrusion lining plates 57, and a counterweight filler 54 is filled between the two double-headed extrusion lining plates 57. The counterweight filler 54 is a plurality of counterweight balls made of non-magnetic materials, that is, it is not affected by magnetic force, and the outer end of the counterweight ball is coated with an anti-rust coating, which can reduce its moving friction while ensuring its counterweight effect;

[0035] The bracket controller 8 is equipped with a photovoltaic bracket control system, which includes a bracket adjustment processing unit. The input end of the bracket adjustment processing unit is connected to a command receiving unit, and the output end of the bracket adjustment processing unit is connected to an installation adaptation adjustment unit. The input end of the command receiving unit is respectively connected to a control button arranged on the bracket controller 8 and a wireless signal transmitter located in the bracket controller 8. The output end of the installation adaptation adjustment unit is connected to an electromagnetic control board 56. The bracket controller 8 is connected to the power storage device of the photovoltaic panel through a connecting line, which can maintain continuous power supply to the bracket controller 8. When the bracket controller 8 is installed and applied, the bracket controller 8 is connected to an external power supply through a connecting line. After the installation is completed, After completion, it is reconnected to the power storage device of the photovoltaic panel installed on the photovoltaic panel receiving frame 1. Through the cooperation of the stabilizing sleeve 4, the adaptive stabilizing group 5 and the photovoltaic bracket control system, while effectively improving the installation stability and portability of the photovoltaic bracket, improving the installation efficiency and installation automation of the photovoltaic bracket, it can also effectively promote the adaptability of the photovoltaic bracket to the installation environment, effectively promote the versatility of the photovoltaic bracket, and can be effectively used in wasteland plains, deserts, large reservoirs and other environments, thereby reducing the construction cost of the solar power station, reducing cost losses, effectively reducing the subsequent maintenance difficulty and maintenance cost of the photovoltaic bracket, promoting the reuse rate of the photovoltaic bracket, and effectively promoting the economic adaptability of the photovoltaic bracket.

[0036] Figure 1-9 It is shown that the left and right inner walls of the counterweight adaptation cavity are fixedly connected with isolation pads 55 that cooperate with the electromagnetic control board 56, and a vibration sensor is embedded on the isolation pad 55. The input end of the bracket adjustment processing unit is also connected to the installation stability monitoring unit, and the input end of the installation stability monitoring unit is connected to the vibration sensor signal. The output end of the bracket adjustment processing unit is also connected to the shaking alarm unit, and the output end of the shaking alarm unit is respectively connected to the indicator light installed on the bracket controller 8 and the wireless signal transmitter signal located in the bracket controller 8. The setting of the isolation pad 55 can limit the displacement of the electromagnetic control board 56, and can also realize the role of continuous monitoring of the stability and safety of the photovoltaic bracket during the application process through the setting of the vibration sensor and the shaking alarm unit, effectively reducing the probability of accidents such as tipping over of the photovoltaic bracket during the application process, reducing the accident damage rate, reducing the difficulty of its maintenance, and promoting the emergency response efficiency of the maintenance personnel, effectively realizing the intelligent role of the photovoltaic bracket, and further improving the economy of its application.

[0037] Figure 1-9 It is shown that according to the construction location of the solar power station, the photovoltaic bracket is installed at the planned fixed point, the legs 2 and the feet 21 are installed to the curing point, and then the installer uses an external power supply to effectively start the bracket controller 8. The installer can use a wireless signal transmitter to transmit the installation environment of the photovoltaic bracket to the instruction receiving unit through the mobile terminal, or select the installation environment of the photovoltaic bracket through the control button on the bracket controller 8, so that the instruction receiving unit transmits the data to the bracket adjustment processing unit after receiving the installation data instruction;

[0038] When the bracket adjustment processing unit receives that the installation environment of the photovoltaic bracket is a wasteland plain, since the geology of the wasteland plain is relatively hard and has low fluidity, a normal plug-in stable installation method is adopted, and the bracket adjustment processing unit transmits an installation adaptation adjustment signal to the installation adaptation adjustment unit, so that the installation adaptation adjustment unit transmits a control signal to the electromagnetic control board 56, so that the two bracket controllers 8 located in the same counterweight stabilizing block 51 produce different magnetic poles, thereby forming a mutual adsorption effect, and then the two electromagnetic control boards 56 attract each other and drive the double-headed extrusion lining plate 57 to continuously squeeze the counterweight filler 54, so that the counterweight filler 54 is fully filled into the ground cone groove nail 52, to ensure the strength of the ground cone groove nail 52, and the adaptation hole 53 is blocked, and then the installer inserts the ground cone groove nail 52 into the ground to ensure the stability of the photovoltaic bracket installation;

[0039] When the bracket adjustment unit receives that the installation environment of the photovoltaic bracket is a desert or a large reservoir, since the geology of the desert or the large reservoir is relatively soft and has a certain fluidity, it is necessary to adopt the form of weight increase and pressure increase for installation. It should be noted that in the desert, the installer needs to pre-dig a burial pit suitable for the installation position of the adaptive stabilization group 5 at the desert location, and after the adaptive stabilization group 5 is placed in the burial pit, or the support leg 21 is installed in the riverbed, and the adaptive stabilization group 5 is located in the riverbed, the bracket adjustment processing unit transmits an installation adaptive adjustment signal to the installation adaptive adjustment unit, so that the installation adaptive adjustment unit transmits a control signal to the electromagnetic control board 56, so that the two bracket controllers 8 located in the same counterweight stabilization block 51 produce the same magnetic poles, thereby forming a mutually repelling action. Then, the two electromagnetic control plates 56 produce a mutually repelling and moving-away effect, and drive the double-headed extrusion lining plate 57 to release the counterweight filler 54. The continuously released counterweight filler 54 continuously moves downward, thereby effectively moving the supporting center of gravity of the counterweight stabilizing block 51 downward, further increasing its stabilizing effect. In the desert, the installers are required to fill the burial pit. In the process of continuous filling, sand enters the counterweight adaptation cavity in the counterweight stabilizing block 51 through the adaptation hole 53, further increasing the counterweight effect of the adaptable stabilizing group 5. In large reservoirs, as the counterweight filler 54 moves downward, river water will continuously enter the counterweight adaptation cavity of the counterweight stabilizing block 51 through the adaptation hole 53, thereby playing an effective pressurization and maintaining role, further improving the stability of the adaptable stabilizing group 5.

[0040] In the subsequent continuous application process of photovoltaic brackets, if the stability of the adaptive stabilization group 5 is reduced due to problems such as geological changes, weather defense, river erosion and structural damage, the counterweight stabilization block 51 will be affected by the environment and shake, so that the vibration sensor inside it senses the vibration signal, and then transmits the signal to the installation stability monitoring unit. The installation stability monitoring unit transmits the stability data to the bracket adjustment processing unit, so that the bracket adjustment processing unit judges the stability of the photovoltaic bracket at this time, and then transmits the alarm data to the shaking alarm unit, so that the shaking alarm unit controls the indicator light to light up, which effectively plays the role of position indication, and also sends an alarm signal to the maintenance platform of the solar power station through the wireless signal transmitter, and sends alarm data to the maintenance personnel, reminding the alarm personnel to inspect and maintain the photovoltaic bracket, thereby effectively improving the emergency response and reducing the subsequent losses.

[0041] Second implementation method:

[0042] Figure 1-11It is shown that a built-in plate 31 is fixedly connected to the inner wall of the tripod 3, and a rotating sleeve 32 is fixedly connected to the lower end of the built-in plate 31 and is rotatably mounted on the upper end of the support leg 2. An accompanying steering group 6 is arranged at the lower end of the built-in plate 31, and an angle adjustment group 7 movably connected to the photovoltaic panel receiving frame 1 is hinged at the right end of the built-in plate 31. The output end of the bracket adjustment processing unit is also connected to a light chasing adjustment unit, and the output end of the light chasing adjustment unit is respectively connected to the accompanying steering group 6 and the angle adjustment group 7 signals. The setting of the light chasing adjustment unit can effectively promote the functionality of the photovoltaic bracket and further improve its application effect. It can adjust the position of the photovoltaic panel supported by it according to the position of the sun, effectively play a light chasing role, thereby increasing the conversion efficiency of the photovoltaic panel to solar energy, and further promoting the economic benefits of the solar power station.

[0043] Figure 1-4 , Fig.10 and Fig.11 It is shown that the accompanying steering group 6 includes an accompanying motor 61 fixedly installed on the outer end of the rotating sleeve 32 and an arc-shaped accompanying rack 64 fixedly installed on the lower end of the built-in plate 31. The left end output end of the accompanying motor 61 is connected to the accompanying transmission box 62, and the upper end of the accompanying transmission box 62 is connected to the accompanying gear 63 meshing with the arc-shaped accompanying rack 64. The output ends of the light chasing adjustment unit and the night reset unit are both connected to the accompanying motor 61 signal. The cooperation of the accompanying motor 61, the accompanying gear 63 and the arc-shaped accompanying rack 64 effectively realizes the function of driving the photovoltaic panel receiving frame 1 and the tripod 3 to rotate, and can effectively control the photovoltaic panel receiving frame 1 according to the movement of the sun to drive the photovoltaic panel thereon to receive sunlight. The area, thereby effectively improving the utilization rate and conversion rate of solar energy, promoting the power generation rate of the solar power station, and improving its economic benefits.

[0044] Figure 1-4 , Fig.10 and Fig.11 The deflection adjustment group 7 is shown to include a deflection guide box 73 hinged on the right end of the built-in plate 31 and a deflection rack 74 hinged on the upper side of the right end of the photovoltaic panel receiving frame 1. The lower end of the deflection rack 74 extends into the deflection guide box 73 and is in sliding cooperation with it. A deflection motor 71 is fixedly installed at the front end of the deflection guide box 73. The lower end output end of the deflection motor 71 is connected to a deflection transmission box 72. The rear end of the deflection transmission box 72 extends into the deflection guide box 73 and is connected to a deflection adjustment gear that cooperates with the deflection rack 74. The output ends of the chasing light adjustment unit and the night reset unit are both connected to the deflection motor 71 signal. The cooperation of the deflection motor 71, the deflection adjustment gear and the deflection rack 74 can effectively realize the control of the deflection of the photovoltaic panel receiving frame 1, and can effectively drive the photovoltaic panel at the upper end of the photovoltaic panel receiving frame 1 to produce deflection rotation, further increase its contact area with sunlight, effectively improve the utilization rate of solar energy, and promote the functionality and economy of the photovoltaic panel receiving frame 1.

[0045] Figure 1-4 It is shown that the input end of the bracket adjustment processing unit is also connected to the environmental data receiving unit and the light sensing unit. The input end of the environmental data receiving unit is connected to the wireless signal transmitter signal located in the bracket controller 8, and the input end of the light sensing unit is connected to the photosensitive sensor signal arranged at the four corners of the left end of the photovoltaic panel receiving frame 1. The cooperation between the environmental data receiving unit and the light sensing unit effectively promotes the accuracy of the photovoltaic bracket in driving the photovoltaic panel to produce sun-chasing action, effectively realizes the intelligence and wisdom of the photovoltaic bracket, promotes the conversion rate of the solar power station, and improves its economic benefits.

[0046] Figure 1-4 It is shown that the output end of the bracket adjustment processing unit is also connected to a night reset unit, and the output end of the night reset unit is respectively connected to the signals of the accompanying steering group 6 and the angle adjustment group 7. The setting of the night reset unit can further improve the functionality and intelligence of the photovoltaic bracket, effectively reduce the calculation difficulty and calculation burden of the bracket adjustment processing unit, fully improve the conversion rate of the photovoltaic panel to solar energy, and can effectively form the function of a bionic sunflower with the light chasing adjustment unit, thereby promoting the functionality and applicability of the photovoltaic bracket.

[0047] Figure 1-11 It is shown that after the photovoltaic bracket is installed, the photovoltaic panel is installed on the right end of the photovoltaic panel receiving frame 1, and then after the wiring connections are completed, the solar power station is officially put into use, and the maintenance platform of the solar power station transmits the daily weather conditions to the environmental data receiving unit through the wireless signal transmitter, and then the environmental data receiving unit transmits the weather data to the bracket adjustment processing unit, and at the same time, the photosensitive sensor located on the photovoltaic panel receiving frame 1 senses the intensity data of sunlight and transmits the electrical signal to the light sensing unit, and the light sensing unit transmits the signal data of the light intensity transmitted by the photosensitive sensors at different positions to the bracket adjustment processing unit, so that the bracket adjustment processing unit can judge the light position and direction according to the weather conditions and the light intensity position data, and then transmits the light chasing instruction to the light chasing adjustment unit. Unit, so that the chasing light adjustment unit transmits the control instruction to the accompanying motor 61 and the deflection motor 71 respectively, so that the accompanying motor 61 controls the photovoltaic panel receiving frame 1 to rotate, and the deflection motor 71 controls the photovoltaic panel receiving frame 1 to produce a deflection, thereby effectively realizing the photovoltaic panel to fully receive solar energy; the bracket adjustment processing unit can also judge the time when night comes according to the signal transmitted by the light sensing unit, and then send a control signal to the night reset unit after night comes, so that the night reset unit controls the accompanying motor 61 and the deflection motor 71 to produce a reset action respectively, driving the photovoltaic panel on the photovoltaic panel receiving frame 1 to return to the initial position, so as to welcome the rising of the sun the next day, and can effectively form the function of a bionic sunflower with the chasing light adjustment unit, thereby promoting the functionality and applicability of the photovoltaic bracket.

[0048] In view of current practical needs, the above-mentioned implementation mode adopted in this application is not limited to the scope of protection. Various changes made within the knowledge scope of technical personnel in this field without departing from the concept of this application still fall within the scope of protection of the present invention.

Claims

1. A photovoltaic support for a solar power station, characterized in that: The invention comprises a support leg (2), a tripod (3) rotatably mounted on the upper end of the support leg (2), and a photovoltaic panel receiving frame (1) hinged to the left end of the tripod (3); a support controller (8) is fixedly mounted on the upper end of the tripod (3); a support foot (21) is fixedly connected to the lower end of the support leg (2); a stabilizing sleeve (4) located on the upper side of the support foot (21) is fixedly connected to the outer end of the support leg (2); a plurality of stabilizing supports (41) are hingedly connected to the lower end of the stabilizing sleeve (4); and an adaptive stabilizing group (5) matching the support foot (21) is connected to the lower end of the stabilizing support (41); The adaptive stabilization group (5) comprises a counterweight stabilization block (51) hinged at the lower end of the stabilization support (41), a counterweight adaptation cavity is provided in the counterweight stabilization block (51), a ground-entering cone groove nail (52) connected to the counterweight adaptation cavity is fixedly connected to the lower end of the counterweight stabilization block (51), an adaptation hole (53) connected to the counterweight adaptation cavity is provided at the upper end of the counterweight stabilization block (51), and electromagnetic control plates (56) that cooperate with each other are slidably arranged on the left and right sides of the counterweight adaptation cavity, two electromagnetic control plates (56) are fixedly connected to the adjacent ends thereof with double-headed extrusion lining plates (57), and a counterweight filler (54) is filled between the two double-headed extrusion lining plates (57); The support controller (8) is equipped with a photovoltaic support control system, the photovoltaic support control system includes a support control processing unit, the input end of the support control processing unit is connected to a command receiving unit, the output end of the support control processing unit is connected to an installation adaptation adjustment unit, the input end of the command receiving unit is respectively connected to a control button provided on the support controller (8) and a wireless signal transmitter located in the support controller (8), and the output end of the installation adaptation adjustment unit is connected to an electromagnetic control board (56); The input end of the support adjustment processing unit is also connected to the environment data receiving unit and the light sensing unit. The input end of the environment data receiving unit is connected to the wireless signal transmitter located in the support controller (8). The input end of the light sensing unit is connected to the light sensitive sensors located at the four corners of the left end of the photovoltaic panel receiving frame (1). The inner wall of the tripod (3) is fixedly connected to a built-in plate (31); the lower end of the built-in plate (31) is fixedly connected to a rotating sleeve (32) which is rotatably mounted on the upper end of the support leg (2); the lower end of the built-in plate (31) is provided with an accompanying steering group (6); the right end of the built-in plate (31) is hingedly connected to an angle adjustment group (7) which is movably connected to the photovoltaic panel receiving frame (1); the output end of the bracket adjustment processing unit is also connected to a light chasing adjustment unit; the output end of the light chasing adjustment unit is respectively connected to the accompanying steering group (6) and the angle adjustment group (7) for signal communication.

2. A photovoltaic support for a solar power station according to claim 1, characterized in that: The output end of the support adjustment processing unit is also connected to a night reset unit, and the output end of the night reset unit is respectively connected to the accompanying steering group (6) and the deflection angle adjustment group (7) signals.

3. A photovoltaic support for a solar power station according to claim 2, characterized in that: The accompanying steering group (6) comprises an accompanying motor (61) fixedly mounted on the outer end of the rotating sleeve (32) and an arc-shaped accompanying rack (64) fixedly mounted on the lower end of the built-in plate (31); the left end output end of the accompanying motor (61) is connected to an accompanying transmission box (62); the upper end of the accompanying transmission box (62) is connected to an accompanying gear (63) meshing with the arc-shaped accompanying rack (64); and the output ends of the chasing light adjustment unit and the night reset unit are both signal-connected to the accompanying motor (61).

4. A photovoltaic support for a solar power station according to claim 3, characterized in that: The deflection adjustment group (7) comprises a deflection guide box (73) hinged on the right end of the built-in plate (31) and a deflection rack (74) hinged on the upper side of the right end of the photovoltaic panel receiving frame (1); the lower end of the deflection rack (74) extends into the deflection guide box (73) and is slidably matched therewith; a deflection motor (71) is fixedly mounted on the front end of the deflection guide box (73); the lower output end of the deflection motor (71) is connected to a deflection transmission box (72); the rear end of the deflection transmission box (72) extends into the deflection guide box (73) and is connected to a deflection adjustment gear matched with the deflection rack (74); the output ends of the light chasing adjustment unit and the night reset unit are both signal-connected to the deflection motor (71).

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