WO2013046999A1

WO2013046999A1 - Sun-tracking solar power generation system

Info

Publication number: WO2013046999A1
Application number: PCT/JP2012/070958
Authority: WO
Inventors: 宮原　隆和
Original assignee: 株式会社エルム
Priority date: 2011-09-27
Filing date: 2012-08-20
Publication date: 2013-04-04
Also published as: JP5634369B2; JP2013074037A

Abstract

The purpose of the present invention is to prevent a decrease in power generation efficiency of solar power generation panels by providing a mechanism that tracks changes in the azimuth angle and height of the sun. In this sun-tracking solar power generation system, a plurality of solar power generation panels are installed on a base and the base is caused to rotate using a single rotation means. It thereby becomes possible to eliminate the problem of shadows of individual solar power generation panels being generated during tracking, install the solar power generation panels in a packed manner, and increase the amount of power generated per unit area. This, in addition to the fact that the system tracks changes in the height of the sun, makes it possible to significantly enhance power generation efficiency. Since the base is caused to rotate using a single rotation means, there is also a significant cost-reducing effect.

Description

Solar tracking solar power generation system

The present invention relates to a photovoltaic power generation system.

In recent years, in order to reduce CO ₂ emissions and nuclear power generation, the need for electric power using renewable energy has increased, and in particular, solar power generation has attracted attention due to improvement in power generation efficiency and price reduction.
Photovoltaic power generation converts the energy of solar light incident on the solar power generation panel into electrical energy, and the efficiency thereof is the solar light vertically incident on the solar power generation panel 10 as shown in FIG. It is indicated by the ratio of the energy of light 20 and the electrical energy that can be extracted from the panel 10.

Assuming that the power generation efficiency of the photovoltaic power generation panel used for photovoltaic power generation is EF, the average energy of sunlight incident on the panel is ES, and the time during which the sunlight is incident is T, the calculated output Po is Po = ES × EF × T, but the same energy can be obtained at the very moment when the solar panel and the solar power generation panel face each other. In fact, the incident angle of sunlight changes every moment, so the output actually obtained is Less than half.
In order to avoid this decrease in efficiency, various solar tracking power generation systems have been devised that move the solar power generation panel to face the sun, but the cost of the tracking mechanism is high, and multiple solar power generation panels are used. If you do, the panel near the sun will block the sunlight that reaches the next panel, so it is necessary to keep it away from the influence, so the number of panels that can be installed in the unit area will be reduced, As a result, the amount of power generation per unit installation area does not increase significantly.

To accurately represent the angle at which the sunlight 20 is incident on the photovoltaic power generation panel 10, two angles, an azimuth angle and an elevation angle, are required. In the description of FIGS. The explanation will be made using only the azimuth angle.

In the case of a fixed type, which is a typical installation example of a photovoltaic power generation panel, the incident angle of sunlight incident on the panel varies greatly depending on the season and time. For example, as shown in FIG. When the angle is 45 degrees, the solar energy 20 actually incident on the panel is cos 45 ° = 0.707 when facing directly, and when the incident angle is 60 degrees as shown in FIG. 14C, cos 60 ° when facing directly = It drops to 0.5 and half.
Furthermore, since the elevation angle changes due to the sun changing altitude according to the time, and when light enters the glass etc. at an angle, obstruction factors such as an increase in the ratio of reflected light overlap, so the output is greatly increased Will be reduced.

JP 2007-258357 A

In order to solve the problem of the output reduction as described above, a solar tracking type power generation apparatus configured to rotate the solar power generation panel has also been proposed.
For example, when the incident angle of sunlight 20 becomes 45 degrees as shown in FIG. 14B, the photovoltaic power generation panel 10 is rotated 45 degrees so as to face the sun as shown in FIG. 15A. Then, sunlight 20 is incident on the panel 100% and the amount of power generation increases. Similarly, as shown in FIG. 15B, even when the incident angle reaches 60 degrees, when the photovoltaic power generation panel 10 is rotated 60 degrees, 100% of the energy of the sunlight 20 is incident on the photovoltaic power generation panel 10 to generate power. Can be increased. In this way, a solar tracking type power generation apparatus configured to solve the problem of output reduction by rotating the solar power generation panel 10 has been proposed. (See, for example, Patent Document 1)

However, in the method of tracking the sun by moving individual or a small number of photovoltaic panels, the amount of each power generation increases, but the photovoltaic panel closer to the sun when rotated as shown in FIG. However, in order to avoid this, it is necessary to install a photovoltaic power generation panel at a considerable distance as shown in FIG. Therefore, the number of photovoltaic power generation panels that can be installed in the same area is reduced as compared with the fixed type, and it is difficult to increase the amount of power generation per area.

Furthermore, since tracking devices are required for each photovoltaic power generation panel or every few panels, for example, the cost is high and it is difficult to obtain an economic effect, so the installation area such as the rooftop of a building is very small. It is only used for power generation.

In order to solve the above problems, in the solar tracking solar power generation system according to the present invention, for example, a plurality of solar power generation panels are loaded on a base having a diameter of 10 m in the same manner as a general installation state, and the base is By rotating, it becomes possible to eliminate the shadow problem that occurs when tracking by individual photovoltaic power generation panels, so that the photovoltaic power generation panels that can be installed per unit area can be loaded closely. Since the area of the area does not decrease, the amount of power generation per unit area increases, and furthermore, since it faces the sun moving from east to south to west as a horizontal plane, the power generation efficiency can be greatly improved.
In addition, since the base on which a large number of photovoltaic power generation panels are mounted is rotated, the drive mechanism of the tracking device required for each one or several conventional photovoltaic power generation panels can be reduced, reducing costs. Great effect.

The invention according to claim 1 of the present invention includes:
Solar tracking solar light configured to automatically rotate a platform loaded with a plurality of photovoltaic power generation panels close to each other so that the photovoltaic power generation panel faces the sun in a horizontal plane by rotating means. In the power generation system,
The rotating means includes
A plurality of rails laid concentrically on the base;
A plurality of wheels for supporting the base so as to roll on the rail;
It is characterized by having.
In claim 2,
The plurality of rails laid concentrically,
Two types of rails are provided: a load support rail configured to support the weight of the base and a derailment prevention rail for preventing the base from being removed or detached due to a typhoon or an earthquake.
In claim 3,
The rotating means includes
Elevation angle interlocking mechanism configured to change the elevation angle of the photovoltaic power generation panel to be loaded according to the altitude of the sun that changes every hour from sunrise to sunset in conjunction with the rotation of the base. Yes.
In claim 4,
The elevation angle interlocking mechanism is
It is equipped with an elevation angle correction mechanism that corrects the elevation angle of the solar photovoltaic panel to be loaded every season or every month according to the position of the sun where the south-middle altitude changes every season or every month.

As explained above, according to the solar tracking solar power generation system according to the present invention,
A plurality of rails laid concentrically on the base;
A plurality of wheels for supporting the base so as to roll on the rail;
Since the entire base can be rotated by one rotating means to track the sun, it is possible to prevent a decrease in the efficiency of solar power generation due to a change in the direction of the sun.
Further, the plurality of rails laid concentrically,
By providing two types of rails, a load supporting rail configured to support the weight of the base and a derailment prevention rail for preventing the base from being derailed or detached due to a typhoon or an earthquake. It can be supported stably and reliably.
Furthermore, by providing an elevation / elevation angle interlocking mechanism, the photovoltaic power generation panel can be adapted to changes in solar altitude from sunrise to sunset.
Further, by providing the elevation angle correction mechanism, it is possible to correct the elevation angle of the solar power generation panel to be loaded in accordance with the solar position where the south-central altitude changes every season or every month.

It is a schematic diagram of the board | substrate loaded with the several solar power generation panel used for the solar tracking type solar power generation system which concerns on this invention. It is a schematic diagram of the state which rotated the base | substrate loaded with the said photovoltaic power generation panel. 1 is a perspective view of an embodiment of a solar tracking solar power generation system according to the present invention. It is a top view of the board | substrate which loaded the photovoltaic power generation panel of a different magnitude | size. It is a top view of the board | substrate loaded with the solar power generation panel used for the solar tracking type solar power generation system which concerns on this invention. It is a side view of the principal part of the said base | substrate. It is a side view of the principal part of another Example of the board | substrate loaded with the solar power generation panel used for the solar tracking type solar power generation system which concerns on this invention. It is a schematic diagram of the rotation means of the board | substrate loaded with the solar power generation panel used for the solar tracking type solar power generation system which concerns on this invention. It is a schematic diagram explaining the tracking mechanism of the photovoltaic power generation panel in the solar tracking type photovoltaic power generation system according to the present invention. It is a top view of the board | substrate loaded with the solar power generation panel used for the solar tracking type solar power generation system which concerns on this invention. It is a side view of the principal part of the said base | substrate. It is explanatory drawing explaining the elevation angle interlocking mechanism and elevation angle correction mechanism of the photovoltaic power generation panel used for the solar tracking type photovoltaic power generation system according to the present invention. It is explanatory drawing of the said elevation angle interlocking mechanism and an elevation angle correction mechanism. It is explanatory drawing for demonstrating the problem by the direction of the sunlight power generation panel of a prior art example, and the incident sunlight. It is explanatory drawing for demonstrating the problem by the direction of the sunlight power generation panel of a prior art example, and the incident sunlight. It is explanatory drawing for demonstrating the problem by the direction of the sunlight power generation panel of a prior art example, and the incident sunlight. It is explanatory drawing for demonstrating the problem by the direction of the sunlight power generation panel of a prior art example, and the incident sunlight.

As shown in FIG. 1, the solar tracking solar power generation system according to the present invention is configured to move a base on which a plurality of solar power generation panels 10 are closely loaded so as to face the sun. As shown in FIG. 2, even if the orientation of the sun changes, the surface of the photovoltaic power generation panel 10 is irradiated by moving the plurality of photovoltaic power generation panels 10 so as to face the sun. Since all of the energy of the sunlight 20 enters the photovoltaic power generation panel 10 and the photovoltaic power generation panel 10 can be loaded closely, the power generation amount per unit area can be greatly improved.

In the following, an embodiment of the solar tracking solar power generation system according to the present invention is shown in FIG.
As shown in FIG. 3, a plurality of (for example, 20 sets) of photovoltaic power generation panels 10 are disposed on a base 30 in a state of being inclined at a predetermined elevation angle and in close contact with each other. The base 30 is configured to be rotationally driven in a horizontal plane as indicated by an arrow by a rotating means described later. The predetermined elevation angle is set to an angle with good power generation efficiency according to the latitude of the installation location.

In this way, by configuring the base 30 loaded with 20 sets of photovoltaic power generation panels 10 on one base to rotate so as to follow the azimuth angle of the sun by one rotating means, Even with 20 sets of solar power generation panels 10, the sun can be tracked by a single rotating means, so that the effect of easily improving the cost effectiveness of the solar tracking type solar power generation system can be obtained.

Fig. 4 shows an example of a large-scale solar power plant in which a plurality of substrates having a diameter of 10 m, for example, are used. When only a plurality of bases having one type of diameter are used, a considerable vacant space is generated between them. As shown in FIG. 4, for example, in a gap between a plurality of bases 31 having a diameter of 10 m, By arranging the bases 32 and using the bases with different diameters, it becomes possible to greatly reduce the free space between the bases, and efficiently install a large number of bases on a limited installation area. It can be arranged. In addition, you may arrange | position a board | substrate with a smaller diameter in the clearance gap between the several base | substrate 31 with a diameter of 10 m, and the base | substrate 32 with a diameter of 4 m.

Next, as Example 1 of the solar tracking type solar power generation system according to the present invention, an actual base structure and an example of laying the same will be described with reference to FIGS. 5 and 6.
FIG. 5 shows a plan view of a specific configuration example of the base 30 and the rails 40 to 44 that support and hold the base 30.
The base 30 is constructed by connecting metal L angles and the like in a grid pattern, and a solar power generation panel is loaded on the base 30.
The rails 40 to 44 are disposed and fixed concentrically on a base under the base 30. The first purpose of the rails 40 to 44 is to load a considerable number of photovoltaic power generation panels and to distort the base 30 made of a strong and heavy material such as a metal L angle. The second purpose is to support the base 30 so that it can rotate smoothly. The third purpose is that the base is lifted by strong winds such as typhoons and earthquakes. This is to prevent the wheel 44 from coming off.

In this embodiment, an example in which two types of rail shapes are used as described later is shown. However, the shape need not be limited as long as the above three objects can be achieved. For example, as shown in FIG. It is also possible to adopt a configuration that can achieve two purposes.
In FIG. 5, rails 41 and 43 indicated by broken lines are rails 51 using an L-angle metal shown in FIG. 6A, and are described in the claims together with a first guide wheel 53 described later. It corresponds to the load support rail made.
The

rails

40, 42, and 44 shown by the concentric solid lines are rails 52 using a C-channel metal shown in FIG. 6B, and are described in the claims together with the second guide wheel 54 described later. It corresponds to the anti-derailing rail.

In carrying out the present invention, first, foundations and pavements made of concrete, asphalt, or the like are constructed in a target area to form a base, and rails 40 to 44 formed in an arc shape on the surface of the base are anchor bolts. Fix with etc. In this construction, if the surface of the base has unevenness, the base loaded on the rails 40 to 44 may be distorted and cannot be rotated smoothly. / Specified value within 1000 is desirable. When the unevenness is larger than the specified value, it is desirable to adjust the undulation on each rail by inserting a spacer or the like between the surface of the base and each rail.
In this way, after the rails 40 to 44 are constructed, the base 30 is assembled thereon, and the guide wheels are attached to the positions where the base 30 and the rails 40 to 44 face each other.
Since this embodiment is an example in which two types of rails are used, an example in which two types of guide wheels are used will be described with reference to FIG.

FIG. 6A shows a first guide wheel 53 and an L-angle rail 51.
The first guide wheel 53 is fixed at a position facing the L-angled rail 51 on the lower surface of the base 30, supports the load of the base 30, and moves in a direction rotating around the center of the base 30. On the other hand, although the wheel rotates with little resistance as a wheel, the flanges 531 and 532 provided so as to sandwich the L-angle rail 51 support the stress against the force other than the rotation direction. There is no easy derailment. The first guide wheel 53 is attached to the position of the mark marked on the base 30 in FIG. The rail 51 is fixed to the base with an anchor bolt 50 or the like.

FIG. 6B shows a second guide wheel 54 and a C-channel rail 52.
The second guide wheel 54 is fixed at a position facing the C-channel rail 52 on the lower surface of the base 30 and does not have a function of preventing the wheel from being removed from the rail because there is no flange, but holds the C-channel. As described above, the floating prevention body 55 that extends so as to go around to the lower side of the rail 52 can prevent a problem that the base 30 is lifted from the rail 52 and peeled off due to a strong wind or an earthquake. The second guide wheel 54 is attached to the position of the mark ● marked on the base 30 in FIG. The rail 52 is fixed to the base with an anchor bolt 50 or the like.

In this way, by supporting the base with a large number of guide wheels and rails fixed to the base, it can be easily supported by a base loaded with a considerable weight of solar cells and rotated with little resistance, It is possible to prevent problems such as a strong wind such as a typhoon or an earthquake that causes the wheel to be removed from the rail. Furthermore, since the base itself does not have to be made of a rigid metal material, a base with a large area can be constructed at low cost.

Next, in the solar tracking type solar power generation system according to the present invention, one example of a rotating means for tracking the sun will be described as a second embodiment.
In the present embodiment, a ring having an L angle formed on an arc as shown in FIG. 7A is fixed as a passive wheel 60 at a position indicated by an alternate long and short dash line inscribed in the base 30 shown in FIG. Next, the tracking drive motor 63 and the moving wheel 61 made of a non-slip material such as rubber attached to the shaft of the motor have rigidity in the radial direction and the vertical direction freely in the radial direction of the passive wheel 60. In this way, the base 30 is rotated by holding the moving wheel 61 against the passive wheel 60 with an appropriate force by an urging means such as a spring and rotating the motor 63. And the structure corresponding to the rotation means described in the claim is implement | achieved.

Here, assuming that the diameter of the passive wheel 60 is Dm1 and the diameter of the moving wheel 61 is Dm2, a reduction gear having a large reduction ratio with a reduction ratio of Dm1 / Dm2 can be configured. Conversely, the torque of the motor 63 is Dm2 / Since it becomes Dm1, even a small motor can rotate a large base.
As the rotating means for rotating the base 30, there are various configurations such as a configuration using a belt drive and a gear drive in addition to the configuration using the friction between the moving wheel 61 and the passive wheel 60 as in the present embodiment, and any configuration is included in the present invention. Naturally, it is included in the technical scope of the rotating means described in the claims.

Next, in the solar tracking solar photovoltaic power generation system according to the present invention, the elevation angle of the photovoltaic power generation panel 10 is configured to change according to the altitude of the sun that changes every hour from sunrise to sunset. The depression angle interlocking mechanism will be described.

FIG. 9 (A) shows the solar power generation panel 10 in a state of facing the altitude at the midsummer of the solar summer solstice at a point of 35 degrees north latitude. The sun that appears with the sunrise gradually increases in altitude. Depending on the radii, the sun rises and reaches the highest altitude at approximately midday at noon.
Since the earth's earth axis is tilted approximately 23.4 degrees, the south-central altitude of the summer solstice at the latitude of 35 degrees north latitude is 78.4 degrees, and the elevation angle of the photovoltaic power generation panel 10 facing it is 11.6 degrees. .
For this reason, the elevation angle of the photovoltaic power generation panel 10 needs to be greatly changed to 90 degrees at sunrise, 21.6 degrees at south-south, and 90 degrees at sunset.

Although the change of the elevation angle of the photovoltaic power generation panel 10 with time can be realized by using an actuator such as a motor, in the present invention, it is realized by using the rotation of the base 30 that rotates following the sun.

As an elevation angle interlocking mechanism for changing the elevation angle of the photovoltaic power generation panel 10, in this embodiment, as shown in FIGS. 9A and 9B, the lower end portion of the photovoltaic power generation panel 10 is A link member 11 that is connected to the base 30 so as to be rotatable in the direction and is connected to a part of the back surface of the photovoltaic power generation panel 10 such as an intermediate portion so as to be rotatable in the elevation angle direction, and a lower end portion of the link member 11 is provided. The slide beam 32 is rotatably connected to the elevation angle direction. The slide beam 32 is fixed to a slide body 33 that slides along the upper surface of the base 30.

With the above configuration, the slide body 33 is slid in the arrow direction shown in FIGS. 9A and 9B, so that the slide beam 32 is slid in the arrow direction, and the link member 11 is interlocked with FIG. Since the state of A) rises to the state of FIG. 9B and pushes the back surface of the photovoltaic panel 10, the photovoltaic panel 10 rises from the state of FIG. 9A to the state of FIG. 9B. The elevation angle changes.
With the above configuration, the elevation angle of the photovoltaic power generation panel 10 can be changed, so that the slide body 33 is slid by a predetermined slide amount in the direction of the arrow in accordance with the altitude of the sun that changes every hour from sunrise to sunset. By doing so, the direction of the photovoltaic power generation panel 10 can be tracked to the altitude of the sun.

Furthermore, as shown in FIG. 10 and FIG. 11, the plurality of slide beams 32 are fixed to a plurality of slide bodies 33 that slide along a structure in which the sun of the base 30 runs in the north-south direction when the sun is in the middle. This overall structure will be described with reference to FIG. 10. A base 30 that rotatably holds the lower end of the solar power generation panel 10 and a link member 11 that is on the base 30 and changes the elevation angle of the solar power generation panel 10. A plurality of slide beams 32 that support and slide and a slide body 33 that connects the plurality of slide beams 32 constitute an elevation / elevation angle interlocking mechanism that can simultaneously change the elevation angle of the plurality of photovoltaic panels 10. ing.

A single slide body 331 passing through the center point of the rotating base 30 rotates the base 30 in order to change the elevation angle of the photovoltaic power generation panel 10 in accordance with the change in solar altitude from sunrise to sunset. The link mechanism 5 (refer FIG. 11) which slides the slide body 33 and the slide beam 32 using is provided.
The link mechanism 5 includes a link body 34 that extends downward from the slide body 331, a fixed body 36 that is separated from the rotation center of the base 30 by a distance a to the north side, and the link body 34 and the fixed body 36 that are rotatably connected. And a fixed base 37 provided with a plurality of attachment mechanisms 371 so that the fixing position of the fixed body 36 can be changed every season or every month.

A plurality of attachment mechanisms 351 that are rotatably attached to the fixed body 36 are provided on the fixed body 36 side of the link bar 35 in order to change the effective length for each season or every month.
The link mechanism 5 including the mounting mechanism 371 for the fixed base 37 and the mounting mechanism 351 for the fixed body 36 has a configuration corresponding to the elevation angle correcting mechanism described in the claims.

The link mechanism 5 will be described with reference to FIGS. 12 is a side view seen from the west side with the photovoltaic power generation panel 10 and the slide 33 as the center, and FIG. 13 is a plan view of FIG.
The center point of the rotating base 30 is O, the length of the photovoltaic panel 10 is 2f, the connection point of the link material 11 is the center of the back surface of the photovoltaic panel 10, and the length of the link material 11 is f, R is the position of the rotatable connecting portion at the lower end of the photovoltaic power generation panel 10, d is the distance from the center point O to R, P is the connection between the link material 11 and the slide beam 32, and the fixed body 36 is fixed. The position is A, the distance from the center point O to the fixed position A is a, the distance from the fixed body 36 of the link bar 35 to the link body 34 (effective length) is c, and a and c are obtained by the following calculation. .

From FIG. 12 and FIG.

From the cosine theorem, the equation for the length of each side is

It becomes.
If the solar altitude at sunrise is 0 degree, the photovoltaic panel 10 is vertical, so b = 0.

Therefore, equation (1) is

It becomes.
Next, the relationship between each line segment during the South-Central time

Here, to simplify the formula, if db−e = e

Therefore, when substituting into equation (2) and rearranging

To further organize

Next, substituting e = db into equation (5) and solving for c

Substituting this c into equation (3)

It becomes.

From the above formula, the solar south solar altitude and sunrise time of each season, month or day are obtained from the latitude and longitude of the installation location of the photovoltaic power generation panel 10, and the elevation angle φ of the solar cell panel directly facing the same mid south altitude is obtained. And by substituting the azimuth angle θ of sunrise into the equations (6) and (7), the distance a from the center point O to the fixed body 36 and the length c of the link bar 35 can be obtained. By interlocking with the rotation of 30, the photovoltaic power generation panel can be generally directly opposed to the azimuth and altitude of the sun.
In addition, the above calculation and the above mechanism are simplified, and are not intended to strictly face the sun. To construct a solar tracking power generation system with a simple structure, that is, at low cost. It is effective enough.

When the latitude of the installation location is 35 degrees north latitude and 135 degrees east longitude, f = 1 and d = 4 in FIG. 12, and the azimuth angle θ in FIG. The values of line segments a and c at the winter solstice are as shown in Table 1 below.

As explained above, according to the solar tracking solar power generation system according to the present invention,
By rotating means, following the change in the direction of the sun from sunrise to sunset,
By the elevation angle correction mechanism provided with the link mechanism 5 and the elevation angle interlock mechanism provided with the link member 11, the slide beam 32, and the slide body 33, not only follows the change in solar altitude from sunrise to sunset, Since it can follow the changes in the altitude of the sun in every four seasons or every month, it is possible to prevent a decrease in power generation efficiency throughout the year.
In addition, since neither the elevation angle correction mechanism nor the elevation angle interlocking mechanism uses an actuator such as a motor, a control device, or the like, a solar tracking power generation system can be realized at low cost.

10 Photovoltaic panel 30 Base 40 to 44

Rail

40, 42, 44 C channel shaped anti-derailing rail 41, 43 L-angle load support rail 11 Link material, elevation angle interlocking mechanism 32 Slide beam, elevation angle interlocking mechanism 33 Slide body, elevation angle interlocking mechanism 351 attachment mechanism, link mechanism 36 fixed body, link mechanism 37 fixed base, link mechanism 371 attachment mechanism, link mechanism 5 link mechanism, elevation angle correction mechanism

Claims

Solar tracking solar light configured to automatically rotate a platform loaded with a plurality of photovoltaic power generation panels close to each other so that the photovoltaic power generation panel faces the sun in a horizontal plane by rotating means. In the power generation system,
The rotating means includes
A plurality of rails laid concentrically on the base;
A plurality of wheels for supporting the base so as to roll on the rail;
A solar tracking solar power generation system characterized by comprising:
The plurality of rails laid concentrically,
Two types of rails are provided: a load support rail configured to support the weight of the base, and a derailment prevention rail for preventing the base from being derailed or detached due to a typhoon or an earthquake. The solar tracking solar power generation system according to claim 1.
The rotating means includes
Elevation angle interlocking mechanism configured to change the elevation angle of the photovoltaic power panel to be loaded according to the altitude of the sun that changes every hour from sunrise to sunset in conjunction with the rotation of the base. The solar tracking type solar power generation system according to claim 1, wherein the solar tracking type solar power generation system is provided.
The elevation angle interlocking mechanism is
Equipped with an elevation angle correction mechanism that corrects the elevation angle of the photovoltaic panel to be loaded every season or every month according to the position of the sun where the altitude changes from season to month or from month to month. The solar tracking type solar power generation system according to claim 3.