KR100626732B1 - Stop Structure with Cell System - Google Patents

Abstract

The present invention converts sunlight into electrical energy by using a conical inclined roof solar panel so that users can temporarily avoid from sun light or rain when getting on or off taxis or buses. To provide a stop structure having a solar cell system that can be used as.

Roof structure 100 in the stop structure provided with the solar cell system of the present invention is a conical inclined roof solar panel 110 having an area corresponding to the planar area of the stop frame 10; A first tracking rail 120 attached to a bottom surface of the roof solar panel 110; A second tracking rail 140 attached to an upper surface of the upper frame 11; A tractor device (200) having a lower roller (214) and an upper roller (213) coupled to be moved by the rotational force of the driving motor (210) on the first and second tracking rails (120, 140); The upper coupling portion 111 of the roof solar panel 110 and the lower coupling portion 13 of the upper frame 11 is coupled between the conical inclination of the roof solar panel 110 It includes a central axis 130 coupled to support the roof solar panel 110.

Solar, Station, Roof Structure, Roof Solar Panel

Description

STRUCTURE FOR BUS STOP HAVING SOLAR CELL SYSTEM}

1 is an exploded perspective view for explaining the configuration of a stop structure having a solar cell system according to the present invention,

2 is a view for schematically explaining the side and enlarged cross-sectional view of the roof structure shown in FIG.

3 is a schematic diagram of a tracking position of the roof structure shown in FIG.

4a to 4c are schematic views showing a change in angle of the roof structure corresponding to the tracking position shown in FIG.

5a and 5b is a perspective view for explaining the configuration of the solar cell module installed in the bus station in accordance with the present invention,

6 is a perspective view for explaining a modification of the bus stop shown in FIG. 5A;

7 is a perspective view for explaining another modified example of the bus station shown in FIG. 5A;

8 is a perspective view for explaining another modification of the stop structure provided with the solar cell system shown in FIG.

           <Description of the symbols for the main parts of the drawings>

10: stop frame 11: top frame

20: Light 100, 100 ', 100 “: Roof structure

110, 110 ': roof solar panel 120, 140: tracking rail

130: central axis 200: tractor device

210: drive motor 213: upper roller

214: lower roller 300: control unit

400: constrained wire 500: solar cell module

501, 502: first and second optical sensor 503: blade type solar panel

The present invention relates to a stop structure provided with a solar cell system, and more particularly, a roof structure of a roof structure type which makes it possible to convert solar light into a required power source of a bus stop and track it according to the irradiation direction of sunlight. The present invention provides a stop structure having a solar cell system having a solar panel of a solar panel or a blade type.

In general, photovoltaic power generation means condensing sunlight to a solar cell or a photovoltaic module to perform power generation.

The solar module is called a solar module as a kind of solar panel, and there are a general type, a window type, a tracking type, and a hybrid type (type in parallel with other clean energy generating means).

The principle of photovoltaic using the photovoltaic module is carried out by the photovoltaic effect. When solar light is irradiated to a pn junction solar farm with n-type doping on a silicon crystal, Electromotive force by electron-holes is generated by light energy, which is called photovoltaic effect. The solar panels can be connected to each other directly and in parallel to make the desired electric power. The system stored in the battery and used as needed is called individual solar power system or stand-alone solar power system. It is called grid-connected solar power system. In particular, the DC power stored in the battery is converted into AC power through an inverter device and then supplied to a power consuming device such as a lamp.

In the configuration of the solar tracking device as disclosed in Korean Utility Model Registration No. 0329018 according to the prior art, a plurality of solar cell unit modules are concentrated in an octagonal shape in a module assembly to form an approximately internal source, and the solar sensor is At the periphery of the module assembly, the horizontal angle of the module assembly is preferably at an angle of about 45 degrees. The light amount detected from sunlight is converted into a voltage, the value is sent to the calculation unit, and the operation unit compares the magnitude of the voltage to the control unit. The controller controls the direction of the module assembly by controlling a roller, which is one of the shank moving means, and a servo motor, which is one of the rotating means, based on the result from the calculating unit.

However, the conventional solar cell is a sensor for detecting the sun light to detect the direction of the sun and to rotate the entire module assembly up or down or left and right according to the direction to face the sun.

When manufacturing the module assembly in large size, there is a problem that the up and down and left and right moving devices that can rotate while bearing its own weight are excessively large, and the manufacturing cost and operating cost are excessively consumed. Since the whole rotates, the radius of rotation necessary for the rotation must be secured to the left and right and up and down, thereby causing a problem in the installation.

In particular, when a solar cell or a solar module is arranged in a station equity structure such as a bus station or a taxi station, when the solar tracking principle as described above is applied, the problem of the enlargement of the roof structure when moving the roof structure vertically and horizontally On the contrary, when only solar cells are arranged on a fixed roof structure, solar conversion efficiency is lowered, and photovoltaic power generation can be efficiently performed only at a specific time period, so that power generation required at a station or the like can be efficiently generated. Unable problem occurs.

Nevertheless, the stops do not emit necessary lights because they use only the reflected light such as advertising panels at night, so it is not enough to use as a safe zone, and the stops without advertising panels do not have any lights. The situation is in an unstable state, and an energy consumption problem occurs when an external power source is used.

Accordingly, an object of the present invention for solving the above-mentioned problems is to convert solar light into electrical energy by using a conical inclined roof solar panel so that users can get out of sunlight, rain, etc. while getting on and off a taxi or bus. It is an object of the present invention to provide a stop structure having a solar cell system that can be used as a power source for an electrical facility such as lighting in an inevitable stop structure.

In addition, another object of the present invention is that the entire roof made of a solar module is able to detect the sunlight to track in accordance with the irradiation direction of the sunlight can be more efficiently converting sunlight into electrical energy, To provide a stop structure having a solar cell system that can be used as a roof.

In addition, another object of the present invention is that the roof formed of the solar module is made of a fixed type, as the solar cell module that can move the blade-type solar panel is installed, solar that can maximize the solar conversion efficiency To provide a stop structure having a cell system.

In addition, another object of the present invention is to simultaneously output the output values of the plurality of first and second optical sensors to move the roof solar panel or to move the blade-type solar panel of the solar cell module, the first and second light To provide a stop structure with a solar cell system that can minimize the use of the sensor.

One of the objects of the present invention as described above is to track the sunlight in the east-west direction and north-south direction with a plurality of first and second light sensors in the roof structure, and is supported by the upper frame of the stop frame according to the irradiation direction of the sunlight A stop structure having a solar cell system for changing an inclination angle, the roof structure comprising: a conical inclined roof solar panel having an area corresponding to a plane area of the stop frame; A first tracking rail attached to a bottom surface of the roof solar panel; A second tracking rail attached to an upper surface of the upper frame; A tractor device having a lower roller and an upper roller coupled to the first and second tracking rails so as to be moved by the rotational force of the driving motor; And a central axis coupled between the upper coupling portion of the roof solar panel and the lower coupling portion of the upper frame and coupled to support the roof solar panel in response to the conical inclination of the roof solar panel. It is achieved by a stop structure having a solar cell system.

Further, according to the present invention, between the top frame and the roof solar panel maintains the shaft length of the central axis at the position of the central axis, the clearance (s) shorter than the axis length of the central axis at the position of the tractor device As it is maintained, it is preferable to combine the roof solar panel to generate a conical inclination with respect to the central axis.

In addition, according to another aspect of the invention, the drive motor is in contact with the elastic electrode on the loop electrode extending in the same rotational direction as the first tracking rail on the bottom surface of the roof solar panel, the loop electrode is a predetermined It is preferable to be connected to the power output terminal of the control unit via a power supply line to receive operating power for the driving motor.

In addition, according to another aspect of the present invention, in the stop structure having a solar system that is supported by the upper frame of the stop frame to change the angle of inclination according to the irradiation direction of sunlight, the rectangular outer frame and the outer frame First and second optical sensors described above to be attached in the vertical and horizontal directions to detect sunlight in the east, west and north and south directions, respectively; A first comparing unit comparing the east light intensity signal and the west light intensity signal outputted from the first light sensor; A second comparing unit comparing the south light intensity signal and the north light intensity signal outputted from the second light sensor; A control unit for outputting any one of an east-west rotation signal, a north-south rotation signal, and a driving power for a driving motor according to the output of the first and second comparators, wherein the control unit receives the east-west rotation signal and receives a solar cell. An east / west rotation unit which outputs a corresponding driving signal to the corresponding motor so as to rotate the outer frame of the module to east or west; Consists of the north-south rotation unit for rotating the blade-type solar panel installed in the outer frame of the solar cell module to the south or north in response to the north-south rotation signal, the solar cell module is a horizontal plate or arched fixed roof structure A stop structure with a solar cell system, characterized in that coupled to the can be provided.

In addition, according to the present invention, the fixed roof structure further comprises a frame fixed roof solar panel in parallel with the solar cell module, the fixed roof solar panel has a transparent or translucent characteristics, low solar cells It is preferably wrapped in any one of iron-reinforced glass, transparent plastic, and float glass, and its edge is preferably made of a lightweight square frame such as aluminum.

In addition, according to the present invention, the solar cell module is parallel to the stop frame together with the conical inclined roof solar panel so as not to cause interference to the stop frame, the first and second optical sensors It is preferable to combine and attach to any one of the roof solar panel or the solar cell module.

In addition, according to the present invention, the roof structure is fixed to the upper and lower ends respectively corresponding to the four corner wire coupling portion and the four corner wire coupling portion of the top frame of the roof solar panel, respectively, a predetermined separation height It is preferable to further include a restraining wire having a wire length corresponding to.

Hereinafter, exemplary embodiments of the present invention will be described with reference to the accompanying drawings 1 to 8.

In the drawings, Figure 1 is an exploded perspective view for explaining the configuration of the stop structure with a solar cell system according to the present invention, Figure 2 is a view for schematically explaining the side and enlarged cross-sectional view of the roof structure shown in FIG. to be. 3 is a schematic diagram of a tracking position of the roof structure illustrated in FIG. 1, and FIGS. 4A to 4C are schematic views illustrating angle changes of the roof structure corresponding to the tracking position illustrated in FIG. 3. In addition, Figures 5a and 5b is a perspective view for explaining the configuration of the solar cell module installed in the bus station in accordance with the present invention, Figure 6 is a perspective view for explaining a modification of the bus station shown in Figure 5a, 7 is a perspective view for explaining another modified example of the bus station shown in FIG. 5A, and FIG. 8 is a perspective view for explaining another modified example of the stop structure provided with the solar cell system shown in FIG.

First, as shown in Figures 1 and 2, the stop structure provided with the solar cell system of the present invention is a stop frame 10 having a structural shape such as a conventional bus stop, taxi stop, and such a stop frame (10) The roof structure 100 is supported by the upper frame 11 of the) and has at least one tracking rail that can change the inclination angle according to the irradiation direction of sunlight.

The roof structure 100 has a roof solar panel 110 having an area corresponding to the planar area of the stop frame 10 in order to generate power required for the operation of the plurality of lights 20 arranged under the upper frame 11. ), And the first tracking rail 120 attached to the bottom surface of the roof solar panel 110 and the conical inclination to the upper coupling portion 111 located in the center of the roof solar panel 110 (for example, the shaft center). A central axis 130 that combines a spherical bearing or universal joint capable of being coupled to a sequential circumference based on the circumferential direction thereof, and the lower end of the central axis 130 is an upper frame. It is fixed to the lower coupling portion 13 located in the center of the (11), and includes a second tracking rail 140 attached to the upper surface of the upper frame 11 in a state in which the lower coupling portion 13 in accordance with the centrifugal do.

Here, the conical inclined roof solar panel 110 has a transparent or translucent property, and wraps the solar cell in any one of low iron tempered glass, transparent plastic, and float glass, and its edge is made of aluminum. It is made of a lightweight square frame.

In addition, between the upper frame 11 and the roof solar panel 110, before the tractor apparatus 200 described below is mounted, a state spaced apart by a predetermined height h corresponding to the shaft length of the central shaft 130 is provided. While maintaining, when the tractor device 200 is coupled to the first and second tracking rails 120 and 140, at least the play of the engaging portion of the tractor device 200 is shorter than the shaft length of the central axis 130. Based on the design point of view.

From this design point of view, as the conical inclination is formed with respect to the central axis 130 while the roof solar panel 110 is supported by the upper frame 11, the irradiation direction of sunlight within a predetermined inclination angle range. The angle of inclination can be changed accordingly.

In the state where the conical inclination is possible, the roof solar panel 110 is a horizontal plane of the upper frame 11 due to the coupling relationship between the first tracking rail 120, the second tracking rail 140, and the tractor device 200. It can be inclined corresponding to the irradiation direction of sunlight within a predetermined inclination angle range on the basis.

That is, the extension shaft 212 extending upward from the gearbox 211 of the tractor device 200 has an upper pivot 230 (pivot) at the top, the upper roller 213 on the upper pivot 230 The hinge axis | shaft is connected to the intermediate part of the rotating shaft. At this time, the upper roller 213 is rotatable in the first tracking rail 120 is coupled to be movable in the rail direction.

In this case, when the conical inclination of the roof solar panel 110 occurs, the first tracking rail 120 is also twisted according to the inclination direction. At this time, the upper roller 213 is smoothed by the upper pivot 230. It is possible to move the trailing (trailing) along the first tracking rail (120).

In addition, the lower roller 214 rotatably coupled to the lower bracket of the gearbox 211 of the tractor device 200 is rotatably coupled while moving in the rotational direction of the rail along the second tracking rail 140. .

The vertical shaft length of the tractor device 200 includes a top roller 213, a bottom roller 214, and a gear box 211, and is formed relatively shorter than the height of the central shaft 130, the drive motor ( The motor rotational force of 210 corresponds to the reduction ratio of the gearbox 211 so as to be converted to the rotational force of the lower roller 214.

The driving motor 210 is a plate-like elastic electrode that is formed on the roof electrode 150 extending in the same rotational direction as the first tracking rail 120 on the bottom surface of the roof solar panel 110 to be in point contact or line contact. 250) is supplied with operating power for the drive motor. The loop electrode 150 is connected to the power output terminal of the controller 300 through a predetermined power supply line.

The lower roller 214 is driven along the second tracking rail 140 while performing a kind of gear rotation (g) by the driving motor 210, and the upper roller 213 which performs the so-called trailing movement corresponding thereto accordingly. ) Simply makes trailing rotation r along the first tracking rail 120.

That is, the roof solar panel 110 has a spherical bearing on the top of the central axis 130 in the direction of the tractor device 200 reaches a predetermined point of the first or second tracking rails (120, 140). As it is tilted, it helps to receive sunlight efficiently.

On the other hand, the first light sensor 501 is attached to match the vertical direction in a light weight frame forming the outside of the roof solar panel 110 to detect any one of the east-west or north-south direction, the second light The sensor 502 is attached to the horizontal frame in a light weight frame so as to sense sunlight in either north-south direction or east-west direction.

Meanwhile, the roof structure 100 corresponds to a predetermined separation height h to prevent the roof solar panel 110 from being separated or released from the central axis 130 by excessive external force (wind power) or earthquake. The top 401 has a length of one wire and corresponds to four corner wire coupling portions 403 of the roof solar panel 110 and four corner wire coupling portions 404 of the upper frame 11, respectively. It is preferable to further include a restraining wire 400 fixed to the lower end 402, respectively.

The control unit 300 used in the present invention is preferably similar to or identical to the control unit disclosed in the solar cell module including the solar tracking device of Patent Application No. 10-2004-0112948 of the same applicant.

That is, the solar tracking device of Patent Application No. 0112948 is attached to the rectangular outer frame and the outer frame in the vertical and horizontal directions to detect the sunlight in the east, west and north and south directions, respectively, the first and second optical sensors 501 described above. 502); A first comparing unit comparing the east light intensity signal and the west light intensity signal outputted from the first light sensor 501; A second comparing unit for comparing a south light intensity signal and a north light intensity signal output from the second light sensor 502; And a control unit 300 for outputting any one of an east-west rotation signal, a north-south rotation signal, and an operating power source for a driving motor according to the output of the first and second comparators.

Here, when the solar tracking device is applied to the solar cell module 500 to be described below, the control unit 300 receives the east-west direction rotation signal to rotate the outer frame of the solar cell module 500 to the east or west. An east / west rotation unit for outputting a driving signal to a corresponding motor; Receives the north-south direction of the rotation signal is composed of a north-south rotation unit for rotating the blade-type solar panel installed in the outer frame of the solar cell module 500 to the south or north.

Here, the control unit 300 transmits to the loop electrode 150 through the power output terminal of the control unit for a corresponding time calculated according to the results of the plurality of first and second optical sensors and the corresponding comparator, and consequently for the driving motor. The operating power is supplied to the driving motor 210 for the time calculated by the controller.

The control unit 300 is electrically coupled with a charging circuit protection unit including a storage battery 310 and a regulator installed in the stop frame 10, so that the electric power generated by the roof solar panel 110 can be charged with electricity and electronics. It is constructed circuitally.

In addition, the control unit 300 may selectively stop the driving motor 210 after the forward rotation or the reverse rotation, by selectively providing the electrode of the operating power source so that the driving motor 210 is positioned at the initial position during the initialization operation. It is desirable to record and store the initialization operation algorithm in memory.

That is, the control unit is a roof structure 100 in an inclined state corresponding to the irradiation direction of the solar light source based on a different operation method, that is, the central axis 130 with the solar cell module having the solar tracking device of the patent application No. 0112948. The roof solar panel 110 to track the sunlight in the conical inclination method.

For example, as shown in Figure 3, the tractor device is located at the initial position (P1) of the second tracking rail placed on the horizontal top frame, this tractor device is a rail every time the operating power for the drive motor is supplied from the control unit It moves along the direction m and eventually moves to the 2nd-4th position P2-P4.

As shown in Figure 4a to 4c, by the first and second tracking rails (120, 130) coupled to the tractor device 200, the roof solar panel 110 is a time zone (morning time, lunch time, In the evening, the inclined state is sequentially changed to face the irradiation direction (e1, e2, e3) of sunlight for each time zone.

That is, as shown in Figure 4a, the tractor device 200 in the initial position (P1) is made of the first tracking rail 120 of the roof solar panel 110 and the horizontal top frame 11 of the stop frame The two tracking rails 140 are coupled to each other while maintaining a clearance s (see FIG. 2) shorter than the axis length h of the central axis 130, thereby causing the roof solar panel 110 to be closed. As directed toward the irradiation direction e1 of sunlight corresponding to the morning time zone, for example, the right inclined state is maintained.

In the tractor apparatus 200 illustrated in FIG. 4B, the control unit supplies operating power for the driving motor to the driving motor of the tractor apparatus 200 in response to changing the irradiation direction of sunlight (the change of the irradiation angle of the sunlight due to earth rotation). While moving from the initial position (P1) to the second position (P2). As the cone-shaped inclination of the roof solar panel 110 corresponding to the movement of the tractor device 200 is inclined, the inclination of the roof solar panel 110 is toward the irradiation direction e2 of the solar light corresponding to the lunch period. From the right inclined state, the state is changed to the front inclined state.

The tractor apparatus 200 shown in FIG. 4C moves from the second position P2 to the third position P3 in response to receiving the motor driving operating power from the control unit in the same manner as described above. The inclination angle of the roof solar panel 110 is changed from the front inclined state to the left inclined state (to be changed toward the irradiation direction e3 of sunlight corresponding to the time zone at evening sunset).

Thus, according to the present invention, the roof solar panel 110 itself has a conical inclination corresponding to the irradiation direction of sunlight, thereby effectively converting sunlight into electrical energy without introducing excessive mechanical driving.

5A and 5B show a stop structure having a solar cell system according to another modification of the present invention.

The stop structure provided with the solar cell system corresponding to the present invention is the solar cell module 500 having the solar tracking device of the patent application No. 0112948, or the top edge of the horizontal plate-shaped fixed roof structure (100 ') or other installation It is desirable to engage in position.

The other surface of the stationary roof structure 100 'is loaded with a storage battery 310, and the stationary roof structure 100' serves to support only the solar cell module 500 having individual solar tracking devices. It only plays the role of the roof.

The solar cell module 500 is to generate power for the operation of a plurality of lights inside the stop, the outer frame is composed of an outer frame of a longer rectangular shape in the vertical direction, the outer edge is composed, the inside of the outer frame The blade-type solar cell panel 503, which is formed in a plurality of rows, is provided long to the left and right. The blade-type solar cell panel 503 has a longitudinal central axis installed on the left and right sides thereof, and is inserted into a pivot hole formed on the inner side of the outer frame, and thus can be rotated up and down. The first optical sensor 501 is attached to the outer frame forming the outline of the solar cell module 500 in a vertical direction to detect sunlight in the east-west direction, and the second optical sensor 502 is horizontal to the outer frame. It is attached and detects sunlight in the north-south direction.

The east light intensity signal and the west light intensity signal are output from the first light sensor 501, and the signals are compared in the first comparison unit, and the comparison result signal is input to the controller.

For example, as a result of comparing the cognate light intensity signal and the west light intensity signal, when the western light intensity is greater and the comparison result signal "1" is input to the control unit, the control unit controls the east / west rotation unit to control the solar cell module 500. Make it rotate west.

The second light sensor 502 detects the intensity of sunlight in the north-south direction and outputs the southern light intensity signal and the northern light intensity signal to the second comparison unit, and the second comparison unit compares the southern light intensity signal with the northern light intensity signal. The comparison result signal is output to the control unit. The control unit receives the comparison result signal and rotates the north / south rotating unit.

Here, the north / south rotation part or the east / west rotation part is configured to rotate the solar cell module 500 according to the forward / reverse rotation of the worm, the worm gear, the rotating shaft, and the motor.

FIG. 6 is the same as that described in FIG. 5 except that the solar cell module 500 having the solar tracking device is provided on the upper part of the arched fixed roof structure 100 ″, so that detailed description thereof will be omitted. do.

As shown in FIG. 7, the stop structure including the solar cell system according to another modified embodiment of the present invention except that the solar cell module 500 and the frame-mounted roof solar panel 110 ′ described above are installed in parallel. Includes similar or identical configurations to the foregoing.

Here, the conical inclination type or fixed roof solar panel (110 ') has a transparent or translucent characteristics, the solar cell is wrapped in any one material of low iron tempered glass, transparent plastic, float glass, its edge It is made of a lightweight square frame such as aluminum.

In FIG. 8, the solar cell module 500 having the solar tracking device described above is not used to support the solar cell module 500 with the conical inclined roof solar panel 110 described in FIGS. A stop structure with a solar cell system of the type paralleled by the ruler bracket 504 is shown.

Here, the first and second optical sensors 501 and 502 are attached to any one of the roof solar panel 110 or the solar cell module 500 and thus have an advantage of minimizing the usage of the optical sensors. .

That is, the first and second optical sensors 501 and 502 detect sunlight in the north-south direction or the east-west direction, and transmit the same to the controller, thereby providing an outer frame and a blade type solar cell module of the solar cell module 500. In addition to allowing to rotate in the east-west direction or north-south direction, respectively, the roof solar panel 110 can be operated in a conical inclined manner.

According to the present invention configured as described above, by providing a conical inclined roof solar panel on the upper part of the station, it is possible to efficiently convert sunlight into electrical energy while tracking sunlight.

In addition, the stop structure provided with the solar cell system of the present invention, despite the use of a lightweight material, by eliminating the disadvantage that the structure is difficult to rotate due to the conical inclination method, the roof solar panel of the solar cell efficiently There is an advantage that can be changed to correspond to the irradiation angle.

In addition, the stop structure provided with the solar cell system of the present invention, according to the provision of a solar cell module having a solar tracking device that can be parallel to the roof solar panel, it is possible to generate electrical energy more efficiently, sufficient power for the lamp There is an advantage that can produce a brighter stop by supplying.

In addition, preferred embodiments of the present invention and modifications thereof are disclosed for the purpose of illustration, and those skilled in the art will be able to make various modifications, changes, additions, etc. within the spirit and scope of the present invention, such modifications and changes are the claims It should be seen as belonging to.

Claims (7)

The roof structure 100 tracks sunlight in the east-west direction and the north-south direction with a plurality of first and second light sensors 501 and 502, and is supported by the upper frame 11 of the stop frame 10. In the stop structure provided with a solar cell system for changing the inclination angle according to the irradiation direction of sunlight, The roof structure 100 includes a conical inclined roof solar panel 110 having an area corresponding to the planar area of the stop frame 10; A first tracking rail 120 attached to a bottom surface of the roof solar panel 110; A second tracking rail 140 attached to an upper surface of the upper frame 11; A tractor device (200) having a lower roller (214) and an upper roller (213) coupled to be moved by the rotational force of the driving motor (210) on the first and second tracking rails (120, 140); The upper coupling portion 111 of the roof solar panel 110 and the lower coupling portion 13 of the upper frame 11 is coupled between the conical inclination of the roof solar panel 110 Stop structure having a solar system, characterized in that it comprises a central axis (130) coupled to support the roof solar panel (110). The method of claim 1, The shaft length of the central shaft 130 is maintained at the position of the central axis 130 between the upper frame 11 and the roof solar panel 110, and the center at the position of the tractor device 200. By maintaining a clearance (s) shorter than the axis length (h) of the shaft 130, the roof solar panel 110 is characterized in that coupled to the conical inclination is generated relative to the central axis (130) Stop structure with solar cell system. The method of claim 1, The driving motor 210 contacts the elastic electrode 250 to the loop electrode 150 extending in the same rotational direction as the first tracking rail 120 on the bottom surface of the roof solar panel 110. The loop electrode 150 is connected to the power output terminal of the control unit 300 through a predetermined power supply line, the stop structure having a solar cell system, characterized in that receiving the operating power for the drive motor. In the stop structure having a solar cell system supported by the upper frame 11 of the stop frame 10 to change the inclination angle according to the irradiation direction of sunlight, First and second optical sensors 501 and 502 described above attached to a rectangular outer frame and vertical and horizontal directions to sense sunlight in the east, west and north and south directions, respectively; A first comparing unit comparing the east light intensity signal and the west light intensity signal output from the first light sensor 501; A second comparing unit for comparing a south light intensity signal and a north light intensity signal output from the second light sensor 502; A control unit 300 for outputting any one of an east-west rotation signal, a north-south rotation signal, and an operating power source for a driving motor according to the output of the first and second comparison units, The control unit 300 receives the east-west direction rotation signal and outputs a corresponding drive signal to the corresponding motor to rotate the outer frame of the solar cell module 500 east or west; It consists of a north-south rotation unit for rotating the blade-type solar panel 502 installed in the interior of the outer frame of the solar cell module 500 to receive the north-south rotation signal to the south or north, The solar cell module 500 is a stop structure having a solar cell system, characterized in that coupled to the horizontal plate or arched fixed roof structure (100 ', 100 "). The method of claim 4, wherein The fixed roof structure 100 ′ further includes a frame fixed roof solar panel 110 ′ parallel to the solar cell module 500. The fixed roof solar panel 110 ′ is transparent or translucent and wraps the solar cell in any one of low iron tempered glass, transparent plastic, and float glass, and its edge is made of a lightweight square frame. Stop structure provided with a solar cell system characterized in that. The method according to claim 1 or 4, The solar cell module 500 is parallel to the conical inclined roof solar panel 110 by the 'b' shaped bracket 504 so as not to cause interference with the stop frame 10, the first And a second optical sensor (501, 502) attached to any one of the roof solar panel (110) or the solar cell module (500). The method according to claim 1 or 4, The roof structure 100 has a top 401 corresponding to four corner wire coupling portions 403 of the roof solar panel 110 and four corner wire coupling portions 404 of the upper frame 11, respectively. The stop structure having a solar cell system, characterized in that it further comprises a restraining wire 400 is fixed to the lower end 402 and having a wire length corresponding to a predetermined separation height (h).

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