WO2021182753A1

WO2021182753A1 - Farming smart solar power generation system

Info

Publication number: WO2021182753A1
Application number: PCT/KR2021/001581
Authority: WO
Inventors: 김선호
Original assignee: 주식회사 연호
Priority date: 2020-03-12
Filing date: 2021-02-05
Publication date: 2021-09-16
Also published as: KR102172622B1

Abstract

The present invention relates to a farming smart solar power generation system and, more specifically, to a farming smart solar power generation system in which a plurality of rotary solar panels are installed in a fixed structure to be uniformly rotatable by the link unit, and a work plate is mounted on the fixed structure, thus increasing the space efficiency of the farmland to secure sufficient sunlight in the farmland, and increasing the efficiency of the maintenance work of the solar panels. To this end, provided is the farming smart solar power generation system comprising: a post that is fixed upward in a farmland; a top frame mounted at the upper end portion of the post; a plurality of support frames mounted along the top frame in a direction perpendicular to the top frame; a plurality of solar panels installed on the respective support frames at equal intervals to be rotatable along the sunlight; a link unit that connects the plurality of solar panels to operate simultaneously, and a driving unit that drives the link unit to enable the plurality of solar panels to move simultaneously in one direction.

Description

Agricultural Smart Solar Power System

The present invention relates to an agricultural type smart solar power generation system, and more particularly, to an agricultural type smart solar power generation system capable of increasing the efficiency for cultivation and solar panel maintenance.

In general, a photovoltaic device refers to a power generation system that uses solar energy to produce electricity on a large scale by expanding a panel to which a solar cell is attached. The solar power generation device can be used semi-permanently and can be said to be a device with new and renewable alternative energy production and environment-friendly features due to the use of non-polluting solar energy sources. Since photovoltaic power generation has a limit in the amount of solar energy received per unit area, it is required to be installed in the form of a condensing panel, while a considerable area of installation space is required. In the case of a solar power generator installed on land, there are many difficulties in the limitation of the installation space, so small-scale solar power generation using the roof or wall space of a building is mainly used. Of course, it is possible to clear a mountain area to provide a space to install a solar power generation device, but there is a problem in that it does not conform to eco-friendly development in terms of damaging the forest.

In order to solve this problem, recently, an agricultural solar power generation device using arable land has been provided. As an example of an agricultural solar power generation device using arable land, FIG. 1A shows that the solar power generation device is simply installed according to the terrain without considering the incident angle of sunlight, and each solar panel provides a dense form with each other, have. Such a photovoltaic power generation device has a problem in that the light collecting efficiency according to the incident angle of sunlight falls, as well as a sufficient amount of sunlight is not provided to the cultivated land. 1B shows that the solar power generation device is installed according to the terrain, but in order to consider the incident angle of sunlight, a driving device is installed for each solar panel, and then each solar panel can be rotated using the power of the driving device. Accordingly, the photovoltaic device of FIG. 1B may improve the amount of sunlight in arable land as well as the light collecting efficiency compared to the photovoltaic device of FIG. 1A .

However, the conventional agricultural solar power generation device described above has the following problems.

First, in the conventional agricultural photovoltaic device, a plurality of photovoltaic panels are integrally formed with each other to constitute a photovoltaic device, and as shown in FIG. There is a problem with lack of sunlight. In addition, the conventional agricultural solar power generation device has a problem in that it is difficult to achieve uniform growth of crops because the amount of sunlight is significantly different as shown in FIG. 1B . Accordingly, the conventional agricultural photovoltaic power generation device has a problem of not only reducing the efficiency of cultivation, but also causing damage to crops such as flooding of the cultivated land due to the concentrated dripping water from all solar panels to the cultivated land in rainy weather. Furthermore, all solar panels have a problem in that the ventilation efficiency of the cultivated land may be lowered, thereby increasing the incidence of pests and diseases.

Second, the conventional agricultural photovoltaic power generation device has a problem in that it is difficult to maximize the bearing capacity in arable land because the solar panel is installed only on the main post. Accordingly, there is a disadvantage of having a structure vulnerable to natural environments such as typhoons.

Third, the conventional agricultural solar power generation device has a problem in that the efficiency of the solar panel maintenance work is lowered. In the conventional agricultural solar power generation device, since a plurality of solar panels are integrally configured, it is not easy for workers to access each solar panel, so there is a problem in the convenience of maintenance work. In particular, the conventional agricultural photovoltaic power generation device has a problem in that the work efficiency is lowered because the worker has to move one by one between the photovoltaic panels due to the interference of the photovoltaic panel when spraying and spraying chemicals on the farmland.

(Patent Document 1) Republic of Korea Registration No. 10-1997331

The present invention has been devised to solve the above problems, and an object of the present invention is to independently install a plurality of solar panels in a fixed structure so as to ensure sufficient amount of sunlight in arable land through securing the spacing between solar panels, This is to provide an agricultural smart solar power generation system that can increase the efficiency of solar panel maintenance work by installing a work platform in a fixed structure to increase access to each solar panel.

The present invention, in order to achieve the above object, a post fixed upward from the cultivated land; a top frame installed on the upper end of the post; a plurality of support frames installed along the top frame in a direction perpendicular to the top frame; a plurality of solar panels installed at equal intervals on each of the support frames and installed so as to be rotated according to sunlight; a link unit for linking the plurality of solar panels at the same time; and a driving unit that drives the link unit to allow a plurality of solar panels to move in one direction at the same time.

At this time, it is preferable that a working platform corresponding to the installation range of a plurality of solar panels is installed around the pole under the top frame.

In addition, the link portion is installed along the top frame, both ends of the main shaft shaft-coupled to the support frame; a plurality of connecting rods provided to correspond to each support frame for each support frame; an interlocking bracket installed between the main shaft and each of the connecting rods to change the rotational motion of the main shaft into a reciprocating motion of the connecting rod; Variable means installed between the connecting rod and the photovoltaic panel, the reciprocating motion of the connecting rod to the rotational motion of the photovoltaic panel: it is preferable to include.

At this time, the solar panel, the fixed post fixed upwardly from the support frame; and a rotating post installed between the solar panel and the fixed post to rotate the fixed post in an axial direction, wherein the variable means includes a T link and a pulling rod, wherein the T link is of One end is axially coupled to the connecting rod, and the other end of the T-link forms an extension arm extending to both sides about its axis in a state in which it is axially coupled to the fixed post, and the pulling rod is an extension arm of the T-rod. It is installed between and the solar panel, and it is preferable that the solar panel can be rotated around a fixed post while pulling the solar panel to one side or the other side by the rotation of the T rod.

In addition, it is preferable that the driving unit is controlled to rotate the solar panel by a predetermined angle every predetermined time through a timer and PLC.

Agricultural smart solar power generation system according to the present invention has the following effects.

First, the agricultural smart solar power generation system has an effect that sufficient sunlight can be provided to arable land through the gap between the solar panels by installing a plurality of solar panels independently in a fixed structure. In particular, since a plurality of photovoltaic panels are installed at a distance from each other, it is possible to prevent intensive falling water to the cultivated land even in rainy weather, thereby preventing damage to the crops from flooding, and since it can increase ventilation, the effect of minimizing the occurrence of pests and diseases have.

Second, the agricultural smart photovoltaic power generation system has an effect of providing strong support as a photovoltaic panel is installed on the fixed structure after filing and fixing fixed structures such as posts and frames on arable land. In particular, the agricultural smart solar power generation system has an effect of increasing the rigidity of the entire solar power generation system by providing a sense of unity by being connected by a link between a plurality of solar panels.

Third, the agricultural smart solar power generation system configures a link part on a plurality of solar panels and configures only one driving part that can drive the link part so that the plurality of solar panels can be rotated uniformly, The number of parts in the power generation system can be minimized. Accordingly, there is an effect that can increase the production cost and maintenance efficiency.

Fourth, the agricultural smart photovoltaic power generation system by configuring a work platform below the photovoltaic panel, the operator can easily perform access to each photovoltaic panel. Accordingly, the agricultural smart solar power generation system has the effect of increasing the efficiency of the solar panel maintenance work. In particular, the working scaffold of the agricultural smart solar power generation system is installed above the cultivated land and can be provided as an installation structure, and a watering device and a chemical spraying device can be installed on the working scaffold. Accordingly, the agricultural smart solar power generation system has the effect of increasing the cultivation convenience and efficiency of the cultivator by using the work platform.

Fifth, in the agricultural smart solar power generation system, the rotational driving for the solar tracking of the solar panel is made through the time equalization control method through the timer, so parts such as the solar tracking sensor are not required, so it is important to minimize the parts. Accordingly, there is an effect of increasing the maintenance efficiency and reducing the manufacturing cost.

1A is a photograph showing an agricultural solar power generation system according to the prior art, and is a photograph showing a state in which the agricultural solar power generation system in a state in which the incident angle of sunlight is not taken into consideration is installed on farmland.

FIG. 1b is a photograph showing an agricultural photovoltaic power generation system according to the prior art, and is a photograph showing a state in which an agricultural photovoltaic power generation system in a state of considering the incident angle of sunlight is installed on arable land.

Figure 2 is an exploded perspective view showing the agricultural smart solar power generation system according to a preferred embodiment of the present invention from the bottom.

3 is a perspective view showing an agricultural smart solar power generation system according to a preferred embodiment of the present invention.

Figure 4 is a perspective view showing the rear surface of the solar panel of the agricultural smart solar power generation system according to a preferred embodiment of the present invention.

5 is a perspective view showing a state in which the link portion of the smart solar power generation system for farming according to a preferred embodiment of the present invention is installed on the solar panel.

6 is a perspective view showing the main part of an agricultural smart solar power generation system according to a preferred embodiment of the present invention.

7 is a perspective view showing the main part in which the variable means of the agricultural smart solar power generation system according to the preferred embodiment of the present invention is installed.

8 is a perspective view showing the main part of the agricultural smart solar power generation system according to the preferred embodiment of the present invention.

9A and 9B are operational diagrams showing the operation of the driving unit of the agricultural smart solar power generation system according to a preferred embodiment of the present invention.

10 is a photograph showing a state in which an agricultural smart solar power generation system according to a preferred embodiment of the present invention is installed in arable land.

The terms or words used in the present specification and claims are not to be construed as limited in their ordinary or dictionary meanings, and on the principle that the inventor can appropriately define the concept of the term in order to best describe his invention. It should be interpreted as meaning and concept consistent with the technical idea of the present invention.

Hereinafter, an agricultural smart solar power generation system according to a preferred embodiment of the present invention will be described with reference to the accompanying FIGS. 2 to 10 .

Agricultural smart solar power generation system, as shown in FIGS. 2 and 3 , a post 100 , a frame 200 , a solar panel 300 , a link unit 400 , and a driving unit 500 . And, it includes a work platform (600).

The post (支柱) 100 is a configuration for supporting the photovoltaic structure by being piled on the cultivated land, and is installed vertically upward from the cultivated land. It is preferable that the post 100 is provided as one in order to increase the space efficiency of the cultivated land. The post 100 is preferably divided into a top post 110 , a main post 120 , and a base post 130 as shown in FIG. 2 rather than being integrally configured. The top post 110 is provided so that a working scaffold 600 to be described later can be installed. The main post 120 provides the installation height of the solar panel from the ground, that is, cultivated land. At this time, the height of the main post 120 is preferably provided at a height at which the equipment can be moved smoothly in the cultivated land. The base post 130 is a configuration that is fixed and embedded in the cultivated land. At this time, the screw pile 131 is installed on the foundation post 130 , and the screw pile 131 makes the supporting force of the post 100 more solid. Since the physical properties of the cultivated land are relatively soft, the holding force 100 can be maximized through the screw pile 131 .

The frame 200 serves as a frame in which the photovoltaic panel 300 and the work platform 600 are installed, and is preferably composed of a top frame 210 and a support frame 220 . The top frame 210 is provided for installation of the support frame 220 and the work scaffold 600 , and is installed at the upper end of the post 100 . The top frame 210 is installed in a vertical state with respect to the post (100). The support frame 220 is provided for installing the solar panel 300 and the link unit 400 , and is installed on the top frame 210 . In addition, the support frame 220 is provided for installation of the work platform 600 together with the top frame 210 . The support frame 220 is installed in a direction perpendicular to the top frame 210 in the longitudinal direction of the top frame 210 . A plurality of support frames 220 are installed along the top frame 210 .

The solar panel 300 serves to generate electricity by condensing sunlight, and includes a plurality of solar cells (cells). The electricity production principle of the solar panel 300 is the same as a known technology, and a known technology may be applied to the solar cell of the solar panel 300 . A plurality of photovoltaic panels 300 are provided, and the plurality of photovoltaic panels 300 are installed on the support frame 220 while being spaced apart from each other. As the plurality of photovoltaic panels 300 are spaced apart from each other in this way, a gap is generated between the photovoltaic panels 300, and the amount of sunlight in the cultivated land can be sufficiently secured through the gap.

The solar panel 300 includes a fixed post 310 and a rotating post 320 as shown in FIG. The fixing post 310 is configured to fix the solar panel 300 to the support frame 220 , and is installed upward from the support frame 220 . The rotational post 320 is a configuration provided for the rotation of the solar panel 300 but installing the solar panel 300 together with the fixed post (310). That is, the solar panel 300 is installed to rotate along the sunlight in order to increase the light collecting efficiency, and the solar panel 300 is rotated through the rotation post 320 . The rotating post 320 is shaft-coupled to the fixed post 310 so that it can be rotated at the upper end of the fixed post 310 . As shown in FIG. 4, the rotating post 320 and the fixed post 310 are coupled to each other through a flange 330, and for convenience of explanation, the flange 330 installed on the fixed post 310 is called a fixed flange 331. And, the flange 330 installed on the rotation post 320 is called a rotation flange 332 . An arc-shaped guide groove 331a for guiding the rotation of the rotating post 320 is formed in the fixing flange 331, and the rotating flange 322 has a guide protrusion 332a moving along the guide groove 331a. is preferably formed.

The link unit 400 serves as a mediator for interlocking a plurality of independent solar panels 300 to the support frame 220 . As described above, the solar panel 300 is installed to rotate along the sunlight, and the link unit 400 serves to uniformly rotate the plurality of solar panels 300 as shown in FIG. 5 . will do The configuration of the link unit 400 can minimize the configuration of the driving unit 500 to be described later. The link unit 400 includes a main shaft 410 , a connecting rod 420 , an interlocking bracket 430 , and a variable means 440 . The main shaft 410 is rotated in one direction and the other direction by the power of the driving unit 500 and serves to reciprocate the connecting rod 420 and is installed along the top frame 210 . Both ends of the main shaft 410 are shaft-coupled to the outermost support frame 220 as shown in FIGS. 5 to 7 . The connecting rod 420 is a medium that allows the solar panel 300 to be rotated in both directions while performing a reciprocating straight motion by the rotational motion of the main shaft 410 . The connecting rod 420 is installed in a direction perpendicular to the main shaft 410 as shown in FIG. 5 , and is installed to correspond to each support frame 220 as shown in FIG. 6 . The interlocking bracket 430 serves to transmit the rotational motion of the main shaft 410 to the connection rod 420 , and is installed between the main shaft 410 and the connection rod 420 . One end of the interlocking bracket 430 is fixed to the main shaft 410 and rotates in the same direction as the rotational direction of the main shaft 410 , and the other end of the interlocking bracket 430 is axially coupled to the connecting rod 420 to the main shaft 410 . The rotational motion of the shaft 410 can be changed to the straight motion of the connecting rod 420 .

The variable means 440 of the link part 400 serves to change the straight motion of the connection rod 420 into the rotational motion of the solar panel 300 , and between the connection rod 420 and the solar panel 300 . is installed on The variable means 440 includes a T-link 441 and a pulling rod 442 as shown in FIGS. 7 to 9b. The T link 441 is interlocked by the reciprocating motion of the connecting rod 420 to rotate to both sides. Precisely, the T-link 441 is that both ends of the T-link 441 move up and down like a seesaw by the reciprocating motion of the connecting rod 420 . One end of the T-link 441 is shaft-coupled to the connecting rod 420 as shown in FIG. 7 , and the other end of the T-link 441 is shaft-coupled to the fixing post 310 . In addition, the other end of the T-link 441 forms an extension arm (441a) extending to both sides around the fixing post (310). The pulling rod 442 serves to rotate the solar panel 300 around the fixed post 310 while pulling the solar panel 300 to one side or the other side by the rotational movement of the T link 441 . The pulling rod 442 is installed between the extension arm 441a of the T link 441 and the solar panel 300 . Although not shown, the end of the pulling rod 442 is installed to be fixed to a spherical ball member, so that it can flexibly correspond to the rotation angle of the solar panel 300 . At this time, it is preferable that a spring 442a is installed in the middle of the pulling rod 442 . The pull rod 442 can smoothly perform rotation and restoration of the solar panel 300 while the spring 442a expands and contracts. In addition, both ends of the pull rod 442 may be connected through a ring-shaped ring (not shown) binding between the solar panel 300 and the T-link 441 , and do not interfere with the rotation of the solar panel 300 . If it is not configured, it will be free.

The driving unit 500 generates power to rotate the solar panel 300 , and actually serves to rotate the main shaft 410 . As the driving unit 500 rotates the main shaft 410 to one side or the other, the plurality of solar panels 300 can move at once by interlocking the connecting rod 420 connected to the main shaft 410 . It is understandable that Accordingly, only one driving unit 500 may be installed, and since parts may be reduced, manufacturing cost may be reduced as well as maintenance efficiency may be increased. The driving unit 500 has a characteristic of being able to alternately rotate the main shaft 410 in both directions only by rotating in one direction. To this end, the driving unit 500 includes a motor 510 , a crank rod 520 , and a main shaft link 530 as shown in FIGS. 8 to 9B .

The motor 510 of the driving unit 500 includes a reducer, and a motor 510 of a known technology may be applied. The motor 510 is not directly coupled to the main shaft 410 , but is disposed on one side of the main shaft 410 . The crank rod 520 serves to transmit the power of the motor 510 to the main shaft 410 , and is eccentrically coupled to the motor 510 . The crank rod 520 is installed to rotate in a direction horizontal to the rotation direction of the motor 510 as shown in FIG. 8 . The main shaft link 530 is connected between the main shaft 410 and the crank rod 520 , and serves to transmit the rotational force of the crank rod 520 to the main shaft 410 . One end of the main shaft link 530 is fixed to the main shaft 410 and interlocks with the rotation of the main shaft 410 , and the other end of the main shaft link 530 is shaft-coupled to the crank rod 520 . By the configuration of the driving unit 500 as described above, even if the motor 510 generates rotational power in only one direction, the crank rod 520 rotates in a horizontal direction with respect to the rotation direction of the motor 510 while rotating the main shaft 410 . The main shaft link 530 is rotated alternately in one direction and the other direction around. At this time, in the process of rotating the crank rod 520 coupled to the motor 510 , within the range where the shaft of the crank rod 520 is located below the motor 510 , as shown in FIG. 9A , the main shaft link 530 rotates in one direction to cause the main shaft 410 to move the connecting rod 420 to one side, and the shaft of the crank rod 520 is shown in FIG. 9B within the range located above the motor 510 As shown, the main shaft link 530 rotates in the other direction to cause the main shaft 410 to move the connecting rod 420 to the other side. Accordingly, even if the motor 510 generates rotational power in only one direction, the main shaft 410 rotates in both directions and reciprocates the connecting rod 420, as shown in FIGS. 9A and 9B, T The link 441 may cause the solar panel 300 to rotate in both directions.

The work scaffold 600 serves to increase the convenience and efficiency of the solar panel 300 maintenance work. The work scaffold 600 provides a work space for the worker in maintaining the plurality of photovoltaic panels 300 installed in the frame 200 by the worker, thereby increasing accessibility to the photovoltaic panel 300 and improving work convenience. that made it higher. The work scaffold 600 is installed under the solar panel 300 as shown in FIGS. 2 and 3 , and precisely, the top frame 210 and the top post 110 of the post 100 . It is installed by hanging on the support frame (220). The range of the work scaffold 600 corresponds to the range in which the solar panel 300 is installed, and includes a ladder 610 . It is preferable that the working scaffold 600 is provided as a mesh so that the amount of sunlight to the cultivated land can be sufficiently secured. Such a work scaffold 600 may be understood as a configuration called a so-called catwalk. On the other hand, the work scaffold 600 can be utilized as a structure in which a watering device (not shown) and a chemical spraying device (not shown) facing the cultivated land can be installed. That is, the working scaffold 600 is provided as a structure in which various devices can be easily installed, and the watering device and the chemical spraying device can be easily installed on the working scaffold 600 . Accordingly, the agricultural smart solar power generation system has the advantage of increasing the cultivation efficiency of the cultivator.

Hereinafter, the installation and operation of the agricultural smart solar power generation system configured as described above will be described.

The worker piles up the post 100 on the cultivated land, and installs the top frame 210 and the support frame 220 at the upper end of the post 100 . Thereafter, the operator installs a plurality of solar panels 300 in a line for each support frame 220 , and installs the link unit 400 along the top frame 210 and the support frame 220 . At this time, the connecting rod 420 and the variable means 440 of the link unit 400 connect the plurality of solar panels 300 , and the driving unit 500 is installed on the main shaft 410 of the link unit 400 . do. In addition, the worker installs the work scaffold 600 on the top frame 210 and the support frame 220 with the top post 110 as the center, so as shown in FIG. is done In this agricultural smart photovoltaic system, even if a large number of photovoltaic panels 300 are installed on the frame 200 as shown in FIG. 10 , the photovoltaic panels 300 are spaced apart from each other. can provide enough. In particular, the agricultural smart solar power generation system has the advantage of not reducing the growth of crops by providing an equal amount of sunlight to the cultivated land.

That is, in the conventional agricultural photovoltaic power generation system, the shade may be concentrated on the cultivated land due to all solar panels, and it is difficult to increase the efficiency of cultivation because the amount of sunlight is significantly different from the place where the shade does not occur, but the present invention The agricultural smart solar power generation system of the solar panel 300 evenly supplies the amount of sunlight to the arable land through the interval between the solar panels 300, so that the cultivation efficiency can be increased, and the falling water can be dispersed even in rainy weather to prevent flood damage.

On the other hand, the solar panel 300 is installed so as to be rotated along the sun in order to increase the efficiency of light collection. To this end, the present invention includes a timer for checking the time, and includes a PLC capable of controlling the operation of the driving unit according to the time of the timer. In the present invention, a time equalization control method in which the solar panel 300 can be rotated according to time is applied. That is, when the solar panel 300 rotates along the sun, the present invention is not a method using a tracking sensor, but a method such that the solar panel 300 is rotated equally at a predetermined time. Since the sun moves constantly during the day, for example, from 8:00 a.m. to 6:00 p.m., it rotates constantly at 7.5 degrees from the reference point at 30-minute intervals to track the movement of the sun. Come back and prepare for the next day.

At this time, let's look at the operation of the solar panel 300 is rotated. The driving unit 500 operates through the timer and PLC control to rotate the motor 510 . The motor 510 rotates in one direction, and the crank rod 520 also rotates by the rotation of the motor 510 to rotate the main shaft link 530 . As shown in Figure 9a, when the shaft position of the crank rod 520 is located at the lower part of the motor 510, the main shaft 410 rotates in one direction to move the connecting rod 420 to one side, and connect By the movement of the rod 420, the T-link 441 is rotated to the left in the drawing. At this time, one side extension arm 441a of the T link 441 rotates the solar panel 300 to one side by pulling the one side pulling rod 442 of the solar panel 300 . At this time, the solar panel 300 is rotated to one side about the fixed post 310 through the rotating post 320 and faces the sun. Thereafter, by the continuous rotation of the motor 510, the shaft of the crank rod 520 is positioned above the motor 510 as shown in FIG. 9B, and the main shaft 410 rotates in the other direction to rotate the connecting rod 420 ) to the other side. By the movement of the connecting rod 420, the T-link 441 is rotated to the right in the drawing, and the other extension arm 441a of the T-link 441 pulls the other pulling rod 442 of the solar panel 300. The solar panel 300 is rotated to the other side. The rotational operation of the solar panel 300 may be linked with only one driving unit 500 through the link unit 400 , and the operation of the driving unit 500 may be performed when the solar panel 300 is constant as described above. It is understandable that it can be designed through a PLC so that it can be rotated by a certain angle every time.

As described so far, the agricultural smart solar power generation system according to the present invention can prevent a decrease in cultivation efficiency by securing sufficient sunlight in the arable land, and improve the efficiency of maintenance work for the solar panel through the installation of a working scaffold can be raised

Although the present invention has been described in detail with respect to the described embodiments, it is apparent to those skilled in the art that various modifications and variations are possible within the scope of the technical spirit of the present invention, and it is natural that such variations and modifications belong to the appended claims.

Claims

poles fixed upwards from arable land;

a top frame installed on the upper end of the post;

a plurality of support frames installed along the top frame in a direction perpendicular to the top frame;

a plurality of solar panels installed at equal intervals on each of the support frames and installed so as to be rotated according to sunlight;

a link unit for linking the plurality of solar panels at the same time; and

Agricultural smart solar power generation system comprising: a driving unit that drives the link unit to allow a plurality of solar panels to move in one direction at the same time.
According to claim 1,

Agricultural smart solar power generation system, characterized in that a work platform corresponding to the installation range of a plurality of solar panels is installed on the periphery of the post to the lower side of the top frame.
According to claim 1,

The link unit,

a main shaft installed along the top frame, both ends of which are shaft-coupled to the support frame;

a plurality of connecting rods provided to correspond to each support frame for each support frame;

an interlocking bracket installed between the main shaft and each of the connecting rods to change the rotational motion of the main shaft into a reciprocating motion of the connecting rod;

Agricultural smart solar power generation system comprising: a variable means installed between the connecting rod and the solar panel, the variable means for changing the reciprocating motion of the connecting rod to the rotational motion of the solar panel.
4. The method of claim 3,

The solar panel is

a fixing post fixed upwardly from the support frame; and

It is installed between the solar panel and the fixed post, including a rotating post installed to rotate the fixed post in the axial direction,

The variable means,

It includes a T-link and a pull rod,

One end of the T link is axially coupled to the connecting rod, and the other end of the T link forms an extension arm extending to both sides about its axis in a state axially coupled to the fixed post,

The pulling rod is installed between the extension arm of the T rod and the solar panel, and the solar panel can be rotated around the fixed post while pulling the solar panel to one side or the other by the rotation of the T rod. Agricultural smart solar power generation system, characterized in that it allows.
According to claim 1,

Agricultural smart solar power generation system, characterized in that the driving unit is controlled to rotate the solar panel by a certain angle every predetermined time through a timer and PLC.