KR101803496B1 - Artificial intelligent shading apparatus based on curved solar cell array - Google Patents

Abstract

The present invention relates to an artificial intelligent shading apparatus based on a curved solar cell array. More specifically, it performs its own operation based on sunlight, which is a new renewable energy, and performs autonomous shading control based on artificial intelligence and big data. Also, it performs temperature control according to each period by using renewable energy, and develops an auxiliary role in urban operation through city-wide or regional operation based on its own power, in the case of emergency, such as cold or continuous heat and stormy weather. The artificial intelligent shading apparatus further includes a control device part and a membrane structure module.

Description

[0001] The present invention relates to an artificial intelligent shading apparatus based on a curved solar cell array,

More particularly, the present invention relates to an artificial intelligent shading apparatus based on a curved solar cell array, and more particularly, to an artificial intelligent shading apparatus based on a curved solar cell array, In addition, it is possible to perform temperature control according to each period by using renewable energy. In case of emergency, such as cold or continuous heat and tropical weather, To an artificial intelligent shading device based on a curved solar cell array for developing an auxiliary role in operation.

In general, crosswalks are installed at the intersections of crossings or roads so that people can pass them. Traffic lights are installed on the crosswalks so that people can pass safely in order to prevent safety accidents. Recently, a shading device is installed near a pedestrian crossing so that it can get away from the cold and the heat before crossing the pedestrian crossing.

In addition to this, a large number of awnings panels and awnings are installed in order to avoid sunlight mainly in a small or large athletic field, a camping place, and the like.

However, these conventional canopy appliances or facilities simply make people avoid the sunlight, and there is a limitation in that the installation cost is too high and the volume is very large, which is also ineffective.

Korean Patent Application No. 10-2011-0073966 "Traffic light for crosswalk to be installed the awning"

SUMMARY OF THE INVENTION The present invention has been made to solve the above-mentioned problems, and it is an object of the present invention to provide a curved solar cell capable of performing autonomous sunshade control based on artificial intelligence and big data, And to provide an array-based artificial intelligent shading apparatus.

In addition, the present invention provides an artificial intelligent shining film apparatus based on a curved solar cell array for adjusting temperature and angle of a sunshine for each period using renewable energy.

In addition, the present invention not only improves the efficiency of energy use based on human body recognition, but also improves the efficiency of energy utilization in a crowded and disruptive state such as a heat wave or a tropical storm, In order to develop an artificial intelligent shading device based on a curved solar cell array.

However, the objects of the present invention are not limited to the above-mentioned objects, and other objects not mentioned can be clearly understood by those skilled in the art from the following description.

In order to achieve the above object, an artificial intelligent shining apparatus based on a curved solar cell array according to an embodiment of the present invention includes a curved solar cell array module 110, a control unit 120, The curved solar cell array module (110) is a curved solar cell array-based artificial intelligent beveling apparatus (100) in which a membrane structure module (130) is sequentially stacked from top to bottom, The cover 111 in the coated state, the condensing efficiency type lens 112, the condensing space 113, the curved solar cell array 114, the curved solar cell array body 114a and the first heat insulating panel 115 The light emitted from the transparent cover 111 through the transparent condensing efficiency lens 112, which is located at the uppermost end of the artificial intelligent shining apparatus 100 based on the curved solar cell array, After the occurrence in the space 113, a plurality of solar cells (N and m are two or more natural numbers different from each other) formed in the curved panel facing downward and curved in the three-dimensional space and mounted on the respective lattice positions of the curved panel facing downward in the three- Condensing efficiency of the condensing efficiency type lens 112 is L1 and the total vertical length of the condensing efficiency type lens 112 is L1, L1: L2: L3 = 1.2: 3 when the longest vertical length on both sides of the curved solar cell array body 114 and the curved solar cell array body 114 is L2 and the central longest vertical length of the condensing space 113 is L3, When the curvature of the upper surface of the curved solar cell array 114 is R1 and the curvature of the upper surface and the lower surface of the condensing efficiency type lens 112 are the same curvature R2 in a state of 1: 0.7, the relationship between R1 and R2 The ratio is formed in the range of R1: R2 = 1: 1.18 to 1.21, A curved solar cell array body 114a is formed on the lower surface of the cell array 114 as a plane that can be laid on the plane of the first adiabatic panel 115. The curved solar cell array body 114a has a heat generation And the first heat insulating panel 115 is positioned below the curved solar cell array body 114a so that the curved solar cell array module 110 can be mounted on the control unit 120 The membrane structure module 130 includes a Peltier element array 131, a heat absorption pipe 132, a second heat insulation panel 133, The foldable canopy membrane 134 and the membrane structure body 135 and the Peltier element array 131 is formed at the lower end of the control unit 120. The Peltier element array 131 has an L x K grid structure L, As a set of the respective Peltier elements 131u formed in the control unit 120 The heat absorbing pipe 132 is connected to the Peltier element array 131 (not shown). The heat absorbing pipe 132 is connected to the Peltier element array 131 The heat transfer liquid or water supplied from the outside flows through the upper surface of the lower Peltier element array 131. When the lower Peltier element array 131 performs the downward cooling function according to the flow of the heat transfer liquid or water, When the lower Peltier element array 131 performs the heat generating function downward, the cooling function is performed in accordance with the cooling output that is output upward. Thus, a plurality of curved solar cell arrays based on artificial intelligence The heating or cooling function for the recycled water or the domestic water is provided in the jar 100 in which the shading film device 100 is formed, The panel 133 is located above the heat absorbing pipe 132 and functions to increase the heat transfer efficiency of the heat absorbing pipe 132 when the heat absorbing pipe 132 performs the heat generating or cooling function, The folding canopy membrane 134 functions to block thermal energy or cooling energy from being transmitted to the contact surface when the membrane module 120 and the membrane module 130 are in contact with each other at the upper and lower portions, The angle of the membrane structure body 135 can be controlled by driving the driving unit 134a and the supporting unit 140 can be controlled by the curved solar cell array module 110, the control unit 120, 130 may be sequentially stacked from the upper part to the lower part. One or more than one of the struts may be formed at both ends of the structure. Each strut of the supporting part 140 may include a curved solar cell array module 110 and a control unit 120, a first height adjustment stage 141 for adjusting the space between the first And a second height adjustment stage 142 for adjusting the space between the device unit 120 and the membrane structure module 130. The height adjustment stage 142 is provided at the height adjustment stage, The control unit 120 includes a sensor module 121, an I / O interface 122, a control unit 123, a storage unit 124, and a rechargeable battery 125, The control unit 123 includes a power supply module 123a, a sensing module 123b, a winging film control module 123c and a temperature control module 123d. The power supply module 123a supplies the rechargeable battery 125 The I / O interface 122, the control unit 123 and the storage unit 124 using the electric energy generated by the sensor module 121. The sensing module 123b supplies power to the sensor module 121, After receiving the current temperature measurement value and the roughness measurement value from the constituent temperature sensor 121a and the illuminance sensor 121b, a plurality of steps (1 to m (N is a natural number equal to or greater than 2) from the storage unit 124, extracts a plurality of step-by-step illuminance ranges for the illuminance measurement from the storage unit 124, (1) to (j), the temperature control information corresponding to the number or area information of the Peltier elements 131u to be controlled among the Peltier element arrays 131 according to the downward cooling adjustment intensity value , and j is a natural number equal to or greater than 2), and the shading film control module 123c extracts angle adjustment information of the folding shading film 134, which matches the illuminance range of the folding shading film 134, according to the angle adjustment information received from the sensing module 123b. And the temperature control module 123d performs the angle adjustment of the Peltier element 131i to be controlled among the Peltier element arrays 131 according to the temperature control information received from the sensing module 123b O interface 122 to control the operation of the downward cooling function or the downward heat generation function for the number or area of the I / O interface.

Here, in the artificial intelligent shading apparatus based on a curved solar cell array according to another embodiment of the present invention, the cover 111 is formed of a planar structure or a dome-shaped structure and has a self-cleaning spraying function do.

The artificial intelligent shading apparatus based on the curved solar cell array according to the embodiment of the present invention performs its own operation based on sunlight of new and renewable energy and performs autonomous shading control based on artificial intelligence and big data And the like.

In addition, the artificial intelligent shining apparatus based on a curved solar cell array according to another embodiment of the present invention provides an effect of adjusting the temperature and setting the awning angle according to each period by using renewable energy.

In addition, the artificial intelligent shining apparatus based on a curved solar cell array according to another embodiment of the present invention not only improves the energy utilization efficiency based on human body recognition, but also enhances energy efficiency in a crowded state, It also has the effect of developing an auxiliary role in urban operation through city-wide or regional operation based on its own power even in an emergency.

FIG. 1 is a cross-sectional view illustrating a state of a default state or horizontal spreading setting of an artificial intelligent shining apparatus 100 based on a curved solar cell array according to an embodiment of the present invention.
FIG. 2 is a cross-sectional view illustrating a state of the artificial intelligent shading apparatus 100 based on the curved solar cell array of FIG. 1 in a low-temperature maintenance state or an upward spreading state.
FIG. 3 is a cross-sectional view illustrating a state where the artificial intelligent shining apparatus 100 based on the curved solar cell array of FIG. 1 is maintained at a high temperature or in an upward or downward folded state.
FIG. 4 is an exploded cross-sectional view for explaining the components of the artificial intelligent shining apparatus 100 based on the curved solar cell array of FIG. 1 in detail.
5 is a block diagram specifically showing the components of the control unit 120 of the artificial intelligent shining device 100 based on the curved solar cell array of FIG.
FIG. 6 is a view for explaining a structural design for improving the light-condensing efficiency of the artificial intelligent shining apparatus 100 based on a curved solar cell array according to an embodiment of the present invention.
FIG. 7 is a block diagram specifically illustrating other components of the control unit 120 of the artificial intelligent shining apparatus 100 based on the curved solar cell array of FIG.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a detailed description of preferred embodiments of the present invention will be given with reference to the accompanying drawings. In the following description of the present invention, detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

In the present specification, when any one element 'transmits' data or signals to another element, the element can transmit the data or signal directly to the other element, and through at least one other element Data or signal can be transmitted to another component.

FIG. 1 is a cross-sectional view illustrating a state of a default state or horizontal spreading setting of an artificial intelligent shining apparatus 100 based on a curved solar cell array according to an embodiment of the present invention. FIG. 2 is a cross-sectional view illustrating a state of the artificial intelligent shading apparatus 100 based on the curved solar cell array of FIG. 1 in a low-temperature maintenance state or an upward spreading state. FIG. 3 is a cross-sectional view illustrating a state where the artificial intelligent shining apparatus 100 based on the curved solar cell array of FIG. 1 is maintained at a high temperature or in an upward or downward folded state. FIG. 4 is an exploded cross-sectional view for explaining the components of the artificial intelligent shining apparatus 100 based on the curved solar cell array of FIG. 1 in detail. 5 is a block diagram specifically showing the components of the control unit 120 of the artificial intelligent shining device 100 based on the curved solar cell array of FIG. FIG. 6 is a view for explaining a structural design for improving the light-condensing efficiency of the artificial intelligent shining apparatus 100 based on a curved solar cell array according to an embodiment of the present invention.

1 to 4, a curved solar cell array-based artificial intelligent confinement system 100 includes a curved solar cell array module 110, a control unit 120, a membrane structure module 130, And a support portion 140.

The curved solar cell array module 110 has a cover 111 in a waterproof and dustproof coating state in order to prevent external dust and the like from sitting on the condensing efficiency type lens 112 and lowering the efficiency of light condensation, A curved solar cell array base 114a, and a first insulation panel 115, including an efficient lens 112, a light collecting space 113, a curved solar cell array 114, a curved solar cell array body 114a, The artificial intelligent screening apparatus 100 of FIG.

Here, although the cover 111 is shown as a planar structure, it may be formed as a dome-shaped structure according to another embodiment of the present invention, may be formed as a replaceable type that can be periodically replaced, .

Accordingly, the curved solar cell array module 110 uses the condensing efficiency type lens 112, which is a curved lens having a curved upper surface and a lower curved surface, so that the divergence of light passing through the cover 111 made of a transparent material, (N, m) structure mounted on each lattice position of the curved panel facing downward in the three-dimensional space and having a cross-section with a downwardly directed cross- m can be dispersed in the entire area of the curved solar cell array 114 which is an aggregate of the respective curved solar cells 114u formed of two or more natural numbers equal to or different from each other.

6, when the longest vertical length on both sides of the condensing efficiency type lens 112 is L1 and the longest vertical length on both sides of the entire curved solar cell array 114 and the curved solar cell array body 114a is L2 And the central longest vertical length of the light collecting space 113 is L3 and the relationship ratio of length is L1: L2: L3 = 1.2: 1: 0.7, the curved solar cell array 110 of the curved solar cell array module 110 And the curvature of the upper surface and the lower surface of the condensing efficiency type lens 112, which is a curved lens, is the same curvature R2, the relationship ratio between R1 and R2, as shown in Table 1 below, When R1: R2 = 1: 1.18 to 1.21, the light-collecting efficiency is better than that of the other embodiments.

That is, in Table 1 below, the relative electric energy filling rate is expressed relative to the value of R1: R2 = 1: 1 in the state of L1: L2: L3 = 1.2: 1: 0.7, , It can be seen that the filling rate is lowered when the ratio R1: R2 = 1: 1.18 to 1.21, which is a preferable ratio of relationship between R1 and R2, is out of the range of other not-shown ratios.

division R1: R2 Relative electric energy charge rate Test Example 1 1: 1.15 1.05 Test Example 2 1: 1.16 1.03 Test Example 3 1: 1.17 1.12 Test Example 4 1: 1.18 1.23 Test Example 5 1: 1.19 1.34 Test Example 6 1: 1.20 1.28 Test Example 7 1: 1.21 1.45 Test Example 8 1: 1.22 1.25 Test Example 9 1: 1.23 1.15 Test Example 10 1: 1.24 1.11 Test Example 11 1: 1.25 1.08

The upper surface of the curved solar cell array 114 is superimposed on the curved surface of the curved solar cell array 114 and the lower surface of the curved solar cell array 114 is stably laid on the plane of the first heat insulating panel 115 The curved solar cell array body 114a may be formed of a conductive material to have a heat generating function.

The first heat insulating panel 115 is located below the curved solar cell array body 114a so that when the curved solar cell array module 110 is in contact with the control unit 120, And to prevent the heat from being transmitted.

The membrane structure module 130 may include a Peltier element array 131, a heat absorbing tube 132, a second adiabatic panel 133, a foldable sheath membrane 134 and a membrane structure body 135.

The Peltier element array 131 is an aggregate of the Peltier elements 131u formed in an LxK lattice structure (L and K are equal to or different from each other) and can provide light condensing efficiency dispersed over the entire area.

The Peltier element array 131 is converted from the condensed energy to electric energy from the curved solar cell array 114 under the control of the control unit 120 and is cooled or heated using the electric energy stored in the rechargeable battery 125 Can be performed.

The heat absorber 132 is formed on the upper surface of the Peltier element array 131 and flows from the outside with the heat transfer liquid or water supplied thereto and the lower Peltier element array 131 is cooled down The Peltier element array 131 performs a cooling function according to the cooling output that is output upward when the lower Peltier element array 131 performs a heat generating function downward, It is possible to provide heating and cooling functions for recycled water or domestic water within a complex in which a plurality of curved solar cell array-based artificial intelligent shining apparatuses 100 are formed.

The second adiabatic panel 133 is positioned above the heat absorber 132 and functions to increase the heat transfer efficiency of the heat absorber 132 when the heat absorber 132 performs a heat or cooling function, And functions to prevent thermal energy or cooling energy from being transmitted to the contact surface when the controller unit 120 and the membrane module 130 are in contact with each other at the upper and lower portions.

The foldable canopy membrane 134 may be angled with the membrane structure body 135 such as horizontal, upward, downward, etc. according to the shading membrane drive unit 134a for performing angle adjustment.

For this purpose, the foldable canopy membrane 134 may be formed at each end in the longitudinal direction, or at each corner or edge region when the membrane structure body 135 is a rectangular parallelepiped. In the case where the membrane structure body 135 is cylindrical, Four ends spaced 90 degrees apart from each other on the horizontal plane, eight spacers spaced 45 degrees apart on the horizontal plane, and other variable numbers. Further, the shape of the membrane structure body 135 is not limited to the rectangular parallelepiped shape or the cylindrical shape, but may be formed in a different cylindrical shape.

The support part 140 is formed in a structure in which the curved solar cell array module 110, the control device part 120 and the film structure module 130 are sequentially stacked from the top to the bottom, .

In addition, in another embodiment of the present invention, each strut of the support portion 140 includes a first height adjustment stage 141 for adjusting the space between the curved solar cell array module 110 and the control unit 120, And a second height adjustment stage 142 for adjusting a space between the controller unit 120 and the membrane module 130. The height adjustment unit 142 adjusts the height And a height adjustable structure.

5, the control unit 120 may include a sensor module 121, an I / O interface 122, a control unit 123, a storage unit 124, and a rechargeable battery 125 have.

The control unit 123 may include a power supply module 123a, a sensing module 123b, a winging film control module 123c, and a temperature control module 123d.

The power supply module 123a is connected to the charge battery 125 of the control unit 120 from the curved solar cell array module 110 via the I / O interface 122, And performs control on the curved solar cell array 114 of the cell array module 110.

Thereafter, the power supply module 123a supplies power to the sensor module 121, the I / O interface 122, the control unit 123, and the storage unit 124 using the electric energy supplied to the rechargeable battery 125 .

The sensing module 123b receives the current temperature measurement value and the roughness measurement value from the temperature sensor 121a and the illuminance sensor 121b constituting the sensor module 121, (A natural number of 2 or more) temperature range from the storage unit 124 and extract the illuminance range from the storage unit 124 in steps (1 to j steps, j is a natural number of 2 or more).

Then, the sensing module 123b calculates the number and / or the number of the Peltier elements 131u to be controlled among the Peltier element arrays 131 according to the downward cooling adjustment strength value of the Peltier element array 131 matched with the plurality of stepwise temperature ranges. Or the temperature control information corresponding to the area information.

In addition, the sensing module 123b may extract angular adjustment information of the folding orifice film 134 matched with a plurality of stepwise illuminance ranges.

The shading film control module 123c performs angle adjustment of the folding shading film 134 according to the angle adjustment information received from the sensing module 123b. That is, the shading film control module 123c controls the shading film driving section 134a for driving the folding shading film 134 in accordance with the downward angle BA, the horizontal angle HL and the upward angle UA as the angle adjustment information Control can be performed.

The temperature control module 123d controls the number of the Peltier elements 131u to be controlled and / or the downward cooling function for the area in the Peltier element array 131 or the downward cooling function for the Peltier element array 131u according to the temperature control information received from the sensing module 123b. And can control the I / O interface 122 to control the operation of the heating function.

Next, FIG. 7 is a block diagram specifically showing other components related to another embodiment of the control unit 120 of the artificial intelligent shining apparatus 100 based on the curved solar cell array of FIG. 7, in addition to the components shown in FIG. 5, the control unit 120 further includes a control module 123e and a human body detection control module 123e for each season / day and night, And a human body detection sensor 121c may be additionally provided in the sensor module 121 and the sensor module 121, respectively.

Accordingly, the season / day / night control module 123e accesses an external server for providing date and time information and weather information including a weather service server connected to the network through the transmission / reception unit 126, And adjust the angle of the folding orifice 134 according to the received date and time information.

That is, the season / day / night control module 123e controls the shading film control module 123c to control the angle of the folding shading film 134 to a downward angle when the date information is late spring, summer, The position information of the sun based on the received date and time, the location information of the artificial intelligent shading device 100 based on the curved solar cell array, and the direction information of each folding shading film 134 are stored The angle adjustment can be performed only on the folding orifice film 134 in the strong direction of the sunlight after it is extracted from the portion 124.

More specifically, the season / day / night control module 123e analyzes the position of the sun according to each date and time, and determines whether the sunlight is relatively strong in the plurality of foldable canopy films 134 It is possible to adjust the upward angle of the folding canopy 134 close to the sun, and the sunlight illuminance information according to the position and date and time of the analyzed sun when the upward angle is analyzed for control, Based information collection server.

The human body detection type control module 123f controls the human body detection sensor 121c constituting the sensor module 121 to detect the human body sensor 121c from the lower part of the membrane module 130 of the temperature- 140), and a solar cell array-based thermostat-controlled waffle apparatus 100. In this case, the at least one human body can be recognized.

To this end, the human body sensor 121c is vertically and horizontally matched with each Peltier element 131u constituting the Peltier element array 131 of the membrane module 130 formed above the horizontal surface of the canopy space, Or a structure in which each Peltier element 131u is matched with a region of the adjacent Peltier element 131u in a 1: 1 manner.

Here, the area constituted by the adjacent Peltier elements 131u may be artificially divided unit information to provide a cooling or heating function for one person.

In another embodiment of the present invention, the human body detection sensor 121c is formed by a plurality of cell-unit infrared sensor mounted on a panel that crosses between the pillars constituting the supporting portion 140 using a separate panel Or may be formed by removing the Peltier element 131u in the central region of the Peltier element array 131 or by an imaging device which is heat-treated as a part of the Peltier element 131u.

Accordingly, when the human body detection sensor 121c is formed by the camera, the region where the human body is located through the image capturing can be detected based on the image recognition.

With this configuration, the human-body-sensing control module 123f can recognize the coordinates or the area where the human body is recognized from the human body detection sensor 121c or recognize at least one human body.

The human body detection type control module 123f controls the number of Peltier elements 131u to be controlled and / or the number of Peltier elements 131u to be controlled among the Peltier element arrays 131 matching the human recognition coordinates or areas received by the human body detection type control module 123f O interface 122 to control the operation of the downward cooling function or the downward heat generating function for the seasonal / day / night control module 123e and the Peltier element array 131 O interface 122 to control the operation of the downward cooling function or the downward heat generating function only for the number of Peltier elements 131u matched with the human body recognition coordinates or area received in the human body detection type control module 123f can do.

On the other hand, the human-body-sensing control module 123f receives the human-recognized coordinate or area in real time, and when it enters the border area within the awning space for a preset time in the border area in the awning space, As shown in FIG. 3, when the folding shade film 134 is folded downward or upward, the folding shade film 134 formed at a position matched with the direction information is extracted. In order to control the horizontal folding state and the upward state as shown in FIG. 2, O interface 122 to control the operation of the shading film control module 123c through a request for the shading film control module 123c and the season / day / night control module 123e.

As described above, preferred embodiments of the present invention have been disclosed in the present specification and drawings, and although specific terms have been used, they have been used only in a general sense to easily describe the technical contents of the present invention and to facilitate understanding of the invention , And are not intended to limit the scope of the present invention. It is to be understood by those skilled in the art that other modifications based on the technical idea of the present invention are possible in addition to the embodiments disclosed herein.

100: Artificial intelligent shading device based on curved solar cell array
110: Curved solar cell array module
111: cover
112: condensing efficiency type lens
113: condensing space
114: Curved solar cell array
114a: Curved solar cell array body
115: first insulating panel
120:
121: Sensor module
122: I / O interface
123:
123a: power supply module
123b: sensing module
123c: Shade film control module
123d: Temperature control module
124:
125: Rechargeable battery
130: membrane structure module
131: Peltier element array
132: Heat absorber
133: Second insulation panel
134: folding canopy membrane
135: membrane structure body
140: The housewife

Claims (2)

The curved solar cell array module 110, the control unit 120, and the film structure module 130 are sequentially stacked from top to bottom between the support portions 140, In the intelligent screening apparatus 100,
The curved solar cell array module 110,
A condensing efficiency type lens 112, a condensing space 113, a curved solar cell array 114, a curved solar cell array body 114a, a first heat insulating panel (not shown) 115 located at the uppermost end of the curved solar cell array based artificial intelligent shining apparatus 100,
the divergence of light passing through the cover 111 made of transparent material is generated in the condensing space 113 by using the condensing efficiency type lens 112 which is a curved lens and a section in which a plurality of the lower- (n and m are mutually the same or different two or more natural numbers) mounted on the respective lattice positions of the curved panel facing the lower side in the three-dimensional space of the curved solar cells 114u, Provides a light collection efficiency that is distributed over the entire area of the incoherent solar cell array 114,
The maximum vertical length on both sides of the condensing efficiency type lens 112 is L1 and the maximum vertical length on both sides of the entire curved solar cell array 114 and the curved solar cell array body 114a is L2, When the central longest vertical length is L3, the curvature of the upper surface of the curved solar cell array 114 is R1 and the curvature of the condensing efficiency type lens 112 (L1: L2: L3 = ) When the curvatures of the upper surface and the lower surface are defined as the same curvature R2, the ratio of the ratio of R1 to R2 is R1: R2 = 1: 1.18 to 1.21,
A curved solar cell array body 114a is formed on the lower surface of the curved solar cell array 114 as a plane that can be laid on the plane of the first heat insulating panel 115 and a curved solar cell array body 114a Is formed of a conductive material so as to have a heat generating function,
The first heat insulating panel 115 is positioned below the curved solar cell array body 114a and when the curved solar cell array module 110 is in contact with the control unit 120, To prevent the transmission of the message,
The membrane structure module 130 includes a membrane-
Is formed at the lower end of the control unit 120, including a Peltier element array 131, a heat absorbing pipe 132, a second heat insulating panel 133, a folding canopy membrane 134 and a membrane structure body 135 ,
The Peltier element array 131 is an aggregate of Peltier elements 131u formed of L × K lattice structures (L and K are equal to or different from each other) and is controlled by the control unit 120, Performs a cooling or a heating function by using electrical energy stored in the rechargeable battery 125, which is converted from energy of light from the cell array 114 to electrical energy,
The heat absorber 132 is formed on the upper surface of the Peltier element array 131. The heat transfer liquid or water supplied from the outside flows and the lower Peltier element array 131 moves downward In the case where the lower Peltier element array 131 performs the heat generating function downward, the cooling function is performed according to the cooling output that is outputted upward, , A heating or cooling function for recycled water or domestic water is provided in a complex in which a plurality of curved solar cell array-based artificial intelligent shining apparatuses 100 are formed,
The second adiabatic panel 133 is positioned above the heat absorber 132 and functions to increase the heat transfer efficiency of the heat absorber 132 when the heat absorber 132 performs a heat or cooling function, And functions to prevent thermal energy or cooling energy from being transmitted to the contact surface when the controller unit 120 and the membrane module 130 are in contact with each other at the upper and lower portions,
The folding canopy membrane 134 may be angled with the membrane structure body 135 by driving the shading membrane drive unit 134a to perform angle adjustment,
The support part (140)
One or three or more of the curved solar cell array module 110, the controller unit 120, and the film structure module 130 may be formed at both ends in a structure in which the films are sequentially stacked from the top to the bottom, Each strut of the curved solar cell array module 140 includes a first height adjustment stage 141 for adjusting the space between the curved solar cell array module 110 and the control unit 120, And a second height adjustment stage 142 for adjusting the height of the space between the height adjusting stages 130 and 130,
The control unit 120,
A sensor module 121, an I / O interface 122, a control unit 123, a storage unit 124, and a rechargeable battery 125,
The control unit 123 includes a power supply module 123a, a sensing module 123b, a winging film control module 123c, and a temperature control module 123d,
The power supply module 123a performs power supply to the sensor module 121, the I / O interface 122, the control unit 123, and the storage unit 124 using the electric energy supplied to the rechargeable battery 125 In addition,
The sensing module 123b receives the current temperature measurement value and the roughness measurement value from the temperature sensor 121a and the illuminance sensor 121b constituting the sensor module 121 and then outputs a current temperature measurement value , m is a natural number equal to or greater than 2) from the storage unit 124 and a plurality of step-by-step illuminance ranges are extracted from the storage unit 124 for the illuminance measurement values, and a plurality of Peltier element arrays (Step 1 to step j) of the Peltier element array 131 according to the downward cooling regulation intensity value of the Peltier device 131, j is a natural number equal to or greater than 2), the angle adjustment information of the folding orifice film 134 matched with the illumination range is extracted,
The shading film control module 123c performs angle adjustment of the folding shading film 134 according to the angle adjustment information received from the sensing module 123b,
The temperature control module 123d controls the temperature of the Peltier element array 131 in accordance with the temperature control information received from the sensing module 123b so that the number of Peltier elements 131u to be controlled, And controls the I / O interface (122) so as to control the operation of the artificial intelligent shading device (100) based on the curved solar cell array.
The method according to claim 1,
Wherein the cover (111) is formed of a planar structure or a dome-shaped structure and has a self-cleaning spraying function.

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