KR102062331B1 - Smart solar-tree system - Google Patents

Abstract

One embodiment, the support block is attached while surrounding the ground structure in a width of a predetermined length or more; A first air purification block attached to the support block at a first position spaced apart from the ground structure by a predetermined distance, and purifying and discharging air around the ground structure; A symmetric block attached to a second position symmetrical to the first position with respect to the ground structure, the symmetric block having a load difference within a predetermined size from the load of the first air purification block; And a solar cell coupled directly or indirectly to the ground structure and supplying power produced using sunlight to the first air purification block.

Description

Smart Solar System {SMART SOLAR-TREE SYSTEM}

This embodiment relates to a solar tree technology attached to the ground structure and purifies the air by using the power generated by the solar cell.

As social interest in fine dust increases, research on air purification technology for removing fine dust has been actively conducted.

However, most of the air purification techniques are related to the purification of air in the room, and there are not many techniques related to the purification of the air in the open air. Some products for purifying air in the open air have been proposed, but only the size or capacity of the product used in the room is increased, so that it does not overcome the problems caused by the difference between the outdoor environment and the indoor environment.

Against this background, it is an object of this embodiment to provide a technique for purifying air outdoors.

In order to achieve the above object, one embodiment, the support block is attached while surrounding the ground structure in a width of a predetermined length or more; A first air purification block attached to the support block at a first position spaced apart from the ground structure by a predetermined distance, and purifying and discharging air around the ground structure; A symmetric block attached to a second position symmetrical to the first position with respect to the ground structure, the symmetric block having a load difference within a predetermined size from the load of the first air purification block; And a solar cell coupled directly or indirectly to the ground structure and supplying power produced using sunlight to the first air purification block.

The support block may include a combination of a plurality of sub support blocks, and a coupling part for coupling the plurality of sub support blocks may be located closer to the ground structure than the first air purification block. The coupling part functions as a support point of the lever, and a force proportional to the load of the first air purification block and the symmetrical block is in the direction of the ground structure from the lower side of the contact surface between the support block and the ground structure. Coupling force between the support block and the ground structure may be increased while being pushed out.

In the support block, the first position and the second position have a seating groove having a lower side closed and an open upper side, wherein the first air purification block and the symmetrical block are coupled to the support block without the coupling part. Can be seated on

The symmetric block is a second air purification block having the same configuration as the first air purification block, and the first air purification block and the second air purification block store some or all of the power generated by the solar cell. It may include an energy storage device.

The symmetric block is an energy storage block, the energy storage block includes an energy storage device for storing some or all of the power produced by the solar cell, the load of the energy storage block is the load of the first air purification block. The weight or capacity of the energy storage device may be determined to fall within a predetermined size.

The support block includes four openings that open upward and downward and seating grooves formed in left and right sides of each of the openings, and the body of the first air purification block and the symmetrical block is positioned in the opening and protrudes from the body to the left and right sides. A seating protrusion may be seated on the support block while being located in the seating groove. The first air purification block is located at a first opening of the four openings, and a first energy storage block is located at a second opening to store some or all of the power generated by the solar cell. The second air purification block having the same configuration as the first air purification block is located at the third opening located opposite to the second opening, and the second air purification block having the same configuration as the first energy storage block is located at the fourth opening located opposite the second opening. The second energy storage block of the configuration may be located. The wiring in the support block and the wiring of the first air purification block are electrically connected to each other by an electrical connector positioned at the seating recess and the seating protrusion, and the power produced by the solar cell is connected to the wiring in the support block. Can be supplied.

The solar tree system may further include a solar cell insertion block attached to the ground structure and having an insertion hole into which a supporting rod for supporting the solar cell is inserted.

Another embodiment, the support block is attached to surround the ground structure; At least one air purification block seated on the support block and configured to purify and discharge air around the ground structure; And a solar cell coupled directly or indirectly to the ground structure and supplying electric power produced using sunlight to the first air purification block, wherein the air purification block is an intake formed from an upper side to a lower side. A solar tree system including a suction fan positioned in a path away from the suction path and inducing air to flow into the suction path, and a dust lamination part disposed under the suction path and having heavy dust falling through the suction path. To provide.

The suction fan may be inclined at a predetermined angle with an arrangement direction of the suction path.

A plasma electrostatic precipitator may be disposed on the inner wall of the suction passage.

A detachable dust storage unit is located in the dust stacking unit, and the heavy dust may be stacked in the dust storage unit.

A storage compartment for accommodating an energy storage device may be positioned above the suction fan, and the storage compartment may cover an upper side of the suction fan.

The suction fan introduces air into the suction passage through the forward rotation, and causes air flow to the dust stacking portion or the suction passage through the reverse rotation, thereby removing foreign substances remaining in the dust stacking portion or the suction passage to the outside. Can be discharged.

The solar tree system may further include a vibration generating device for generating vibration in the air purifying block, the suction passage, the dust stacking unit, or the electrostatic precipitator.

As described above, according to the present embodiment, by providing a smart solar system that operates properly in an outdoor environment, it is possible to supply purified air to people who operate outdoors at optimum efficiency.

1 is a perspective view of a solar tree system according to an embodiment.
2 is a perspective view of a support block according to an embodiment.
3 is a cross-sectional view of a support block and a functional block in accordance with one embodiment.
4 is a top view of a state in which a support block and a functional block are coupled according to an embodiment.
5 is a perspective view of a solar cell and a solar cell insertion block coupled according to one embodiment.
6 is an electrical diagram of a solar tree system according to an embodiment.
7 is a block diagram of an air purification block according to an embodiment.
8 is a diagram illustrating a solar tree system installed at a roadside according to an exemplary embodiment.
9 is a diagram illustrating that a solar tree system is installed at a bus stop according to an exemplary embodiment.

Hereinafter, some embodiments of the present invention will be described in detail through exemplary drawings. In adding reference numerals to the components of each drawing, it should be noted that the same reference numerals are assigned to the same components as much as possible even though they are shown in different drawings. In addition, in describing the present invention, when it is determined that the detailed description of the related well-known configuration or function may obscure the gist of the present invention, the detailed description thereof will be omitted.

In addition, in describing the component of this invention, terms, such as 1st, 2nd, A, B, (a), (b), can be used. These terms are only for distinguishing the components from other components, and the nature, order or order of the components are not limited by the terms. If a component is described as being "connected", "coupled" or "connected" to another component, that component may be directly connected to or connected to that other component, but there may be another configuration between each component. It is to be understood that the elements may be "connected", "coupled" or "connected".

An apparatus according to an embodiment is described below as a solar tree system. The present invention is not limited to these names, but such names are intended for the convenience of understanding.

Solar tree can be understood as a compound word of solar cell and tree. Trees obtain energy from sunlight and use that energy to provide beneficial air to people, such as oxygen-rich air or purified air, etc. The solar system described below uses solar cells. Perform energy similar to trees in terms of obtaining energy—for example, power—from sunlight, and using that energy to provide beneficial air to people, for example, air that purifies fine dust, etc. It can be said that. In view of these functional similarities, an apparatus according to an embodiment may be referred to as a solar tree system.

1 is a perspective view of a solar tree system according to an embodiment.

Referring to FIG. 1, the solar tree system 100 may include a support block 110, a function block 120, a solar cell 130, and the like. For convenience of description, the ground structure 10 is shown together with the solar tree system 100, and the ground structure 10 may be a configuration of the solar tree system 100, and It may be a configuration that is not included.

The ground structure 10 is a structure that is installed standing on the ground, for example, may be a structure including a pillar-shaped body, such as a street lamp, traffic guide facilities.

The support block 110 may be attached to the ground structure 10 to support the functional block 120. For example, the support block 110 is attached surrounding the columnar body of the ground structure 10, and supports the functional block 120 so that the functional block 120 is disposed at a predetermined height of the ground structure 10. can do.

The function block 120 is a block including a part of a configuration required to perform the function of the solar tree system 100. For example, the air purification block, the energy storage block, and the symmetric block may correspond to the function block 120. Can be. Functionally, the air purification block performs a function of purifying and discharging the polluted air around the ground structure 10, and the energy storage block stores a part or all of the power produced by the solar cell 130. And, the symmetric block may perform a function of balancing the load by the block attached to the support block 110.

The function block 120 may be supported by the support block 110 while being attached to the support block 110.

The support block 110 may surround the ground structure 10 in a width of a predetermined length or more—wherein, the width means an upper and lower width, and the upper and lower sides may be understood as the longitudinal direction or the gravity direction of the ground structure 10. has exist-.

The function block 120 may be attached at a position spaced apart from the contact surface with the ground structure 10 in the support block 110 by a predetermined distance. In this case, the force that the function block 120 presses the support block 110-for example, the load-acts as a force for pushing the support block 110 in the direction of the ground structure 10 according to the principle of the lever. The coupling force of the support block 110 and the ground structure 10 is increased by the force.

The function block 120 may be seated on the support block 110 without a coupling part. The coupling part can be, for example, a bolt / nut. The function block 120 may be seated on the support block 110 while some outer surface thereof is supported by the support block 120 without such a coupling part. The functional block 120 may be seated on the support block 120 by such a structure, and the support block 110 may be ground-structured by the force that the functional block 120 presses on the support block 110 as described above. The coupling force of 10) may increase. And, accordingly, the functional block 120 can be stably disposed at a certain height of the ground structure (10).

The solar cell 130 may be directly or indirectly coupled to the ground structure 10, and may generate power using solar light.

The solar cell 130 may be directly coupled to the ground structure 10, and may be indirectly coupled to the ground structure 10 through the solar cell insertion block 140 as shown in FIG. 1.

The solar cell insertion block 140 may be attached to surround the ground structure 10. At least one insertion hole may be formed in the solar cell insertion block 140. The support rod for supporting the solar cell 130 is inserted into the insertion hole so that the solar cell 130 is inserted into the solar cell insertion block 140. Can be coupled to.

The solar tree system 100 is installed outdoors to purify the outdoor air and has a feature that is easy to supply to people.

First, outdoor supply and demand of power may not be easy, and the solar tree system 100 may produce power by itself using the solar cell 130 held therein. Of course, when the ground structure 10 is a structure such as a street light, the power supplied to the street light may be used, but when the management of the ground structure 10 and the management of the solar tree system 100 are different from each other, the ground structure Since the power supplied to 10 may not be used indiscriminately, there may be a certain limit in sharing power between the ground structure 10 and the solar tree system 100.

In addition, since the solar tree system 100 has a block shape as illustrated in FIG. 1, the solar tree system 100 may be easily manufactured and installed. The solar tree system 100 may combine each component without a separate coupling component between each component. For example, the functional block 120 may be attached to the support block 110 without a separate coupling part, and the solar cell 130 may also be coupled to the solar cell insertion block 140 without a separate coupling part. Of course, each component can be combined using additional coupling parts in order to further enhance the coupling force, but in the case where it is not necessary to reinforce the coupling force, it is possible to combine each component without the coupling component. It may be a feature of 100.

2 is a perspective view of a support block according to an embodiment.

Referring to FIG. 2, the support block 110 may include two or more openings 220a and 220b. The openings 220a and 220b have a form in which the upper and lower sides are opened, and the upper and lower sides may be understood as the longitudinal direction or the gravity direction of the ground structure 10.

Mounting grooves 230 may be formed at left and right sides of the openings 220a and 220b in the support block 110. The seating recess 230 has a lower side closed, an upper side opened, and when viewed in a plane perpendicular to the longitudinal direction of the ground structure 10, the direction toward the openings 220a and 220b is open and the other direction is blocked. Can be. Here, the left and right sides may be understood as a direction perpendicular to the upper and lower sides.

The body 121 of the function block 120 is located in the openings 220a and 220b, and the seating protrusion 122 protruding from the body 121 of the function block 120 to the left and right is located in the seating groove 230. The block 120 may be seated on the support block 110.

The functional block 120 may be coupled to the support block 110 without a separate coupling component, but an electrical connector may be used for the electrical connection between the functional block 120 and the support block 110. The electrical connector may be located in the seating recess 230 and the seating protrusion 122. The wiring in the functional block 120 and the wiring in the support block 110 may be electrically connected through the electrical connector. The power produced by the solar cell may be supplied to the wiring in the support block 110. The function block 120 may be supplied with the power by being electrically connected to the support block 110 through the above-described electrical connector.

A through part 240 through which the ground structure 10 penetrates may be positioned in the center of the support block 110. The shape of the through part 240 may be the same as or similar to the outer shape of the ground structure 10.

The support block 110 may be configured by combining a plurality of sub support blocks 210a and 210b.

Each of the sub support blocks 210a and 210b may be coupled to each other by the coupling component 250. Coupling component 250 may be, for example, a bolt and / or a nut.

The openings 220a and 220b may be formed in the respective sub support blocks 210a and 210b or may be formed by combining the two sub support blocks 210a and 210b. For example, the first opening 220a is formed in the first sub support block 210a, and the second opening 220b is coupled to the first sub support block 210a and the second sub support block 210b. It can be formed by. As shown in FIG. 2, one opening 220a is formed in each of the sub support blocks 210a and 210b, and two openings 220b are formed by the combination of the respective sub support blocks 210a and 210b. When formed, a total of four openings 220a and 220b may be formed in the support block 110.

3 is a cross-sectional view of a support block and a functional block in accordance with one embodiment.

Referring to FIG. 3, the first functional block 120a may be attached to the first sub support block 210a at a first position spaced apart from the ground structure 10 by a first distance D1, and a second function may be performed. The block 120b may be attached to the second sub support block 210b at a second position spaced apart from the ground structure 10 by a second distance D2.

The load F1 of the first functional block 120a and the load F2 of the second functional block 120b may be substantially the same. Alternatively, the load F1 of the first functional block 120a and the load F2 of the second functional block 120b may have a difference within a predetermined size. The first position and the second position may be positions symmetrical with respect to the ground structure 10. The load F1 of the first functional block 120a and the load F2 of the second functional block 120b are By the same or similar to each other, the load of the solar tree system attached to the ground structure 10 can be evenly disposed.

The first functional block 120a may include an air purifying device therein as an air purifying block for purifying and discharging air around the ground structure 10, and the air purifying device may have a constant weight. When the second functional block 120b has the same configuration as the first functional block 120a, for example, when the second functional block 120b is also an air purification block, the first functional block 120a and the second functional block 120b are the same. The load of the functional block 120b may be maintained substantially the same.

The first functional block 120a may be an air purification block, and the second functional block 120b may be a symmetric block. Here, the symmetric block is a functional block having a load that is substantially the same as the functional block in a symmetrical position with respect to the ground structure 10, and may be a block having only a constant load for balancing the load, or an air purifying block or Like an energy storage block, it may be a block having a constant load and performing other functions.

The first functional block 120a may be a first air purification block, and the second functional block 120b as a symmetric block may be a second air purification block having the same configuration as the first air purification block. In this case, the first air purification block and the second air purification block may include an energy storage device that stores some or all of the power produced by the solar cell. This type can be considered to be a form in which the functions of the energy storage block are combined in the air purification block.

The first functional block 120a may be an air purification block and the second functional block 120b as a symmetric block may be an energy storage block. The energy storage block may include an energy storage device that stores some or all of the power produced by the solar cell. In this form, the load of the energy storage block can be adjusted according to the weight or capacity of the energy storage device. For example, the weight or capacity of the energy storage device may be determined so that the load of the energy storage block falls within a predetermined size with the load of the air purification block. Batteries included in the energy storage device may have a constant energy density. Increasing the capacity of such a battery increases the weight of the battery in proportion to it, and decreasing the capacity of the battery reduces the weight of the battery in proportion. .

Meanwhile, the first sub support block 210a and the second sub support block 210b may be coupled to each other through the coupling part 250. At this time, the coupling part 250 is more ground than the functional blocks 120a and 120b. It may be located closer to the structure 10. In addition, the coupling part 250 may function as a support point of the lever, and the forces F3 and F4 proportional to the loads F1 and F2 of the first functional block 120a and the second functional block 120b are The sub support blocks 210a and 210b are applied to push the sub support blocks 210a and 210b toward the ground structure 10 from the lower side of the contact surface between the sub support blocks 210a and 210b and the ground structure 10. Coupling force between the (10), and the coupling force between the sub support blocks (210a, 210b) can be raised.

4 is a top view of a state in which a support block and a functional block are coupled according to an embodiment.

Referring to FIG. 4, four functional blocks 120a, 120b, 120c, and 120d may be attached to the support block 110 in four directions. The support block 110 may include four openings, wherein the first air purification block is located at the first opening of the four openings, the first energy storage block is located at the second opening, and is opposite to the first opening. The second air purification block having the same configuration as the first air purification block is located at the third opening, and the second energy storage block having the same configuration as the first energy storage block is disposed at the fourth opening located at the opposite side of the second opening. Positioning can balance the load.

5 is a perspective view of a solar cell and a solar cell insertion block coupled according to one embodiment.

Referring to FIG. 5, an insertion hole 520, a through hole 530, a coupling hole 540, and the like may be formed in the solar cell insertion block 140.

At least one insertion hole 520 may be formed in the solar cell insertion block 140, and the support rod 132 supporting the solar cell 130 may be inserted into the insertion hole 520.

Although not shown in the drawing, the insertion hole 520 in which the support rod 132 is inserted and the insertion hole 520 symmetrically positioned with respect to the ground structure have another structure that can be balanced with the load of the solar cell 130. Can be inserted. The other structure may be, for example, a structure having only a load, or a structure having a load similar to that of the solar cell 130 such as a light or a traffic sign.

The ground structure is inserted into the through hole 530, and the shape of the through hole 530 may be similar to that of the ground structure.

The solar cell insertion block 140 may be composed of a plurality of sub-insertion blocks 510a and 510b. Each of the sub-insertion blocks 510a and 510b has a coupling hole in order to couple the sub-insertion blocks 510a and 510b. 540 may be formed. Two sub-insertion blocks 510a and 510b may be coupled to each other while a coupling part, for example, a bolt, is inserted into the coupling hole 540.

6 is an electrical diagram of a solar tree system according to an embodiment.

Referring to FIG. 6, direct current type power may be supplied through an internal wiring.

Power produced by the solar cell 130 may be supplied to the support block 110 through the (+) wiring and the (-) wiring, respectively. When the support block 110 is divided into sub support blocks, the power generated by the solar cell 130 may be supplied to each sub support block through the positive wiring and the negative wiring.

The first electrical connectors 118a and 118b may be located in the seating grooves of the support block 110, and the second electrical connectors 128a and 128b may be located in the seating protrusions of the functional block 120. The first electrical connectors 118a and 118b may have the shape of a female connector, and the second electrical connectors 128a and 128b may have the shape of a male connector. On the contrary, the first electrical connectors 118a and 118b may have the shape of a male connector, and the second electrical connectors 128a and 128b may have the shape of a female connector. Alternatively, both the first electrical connectors 118a and 118b and the second electrical connectors 128a and 128b may be configured as flat electrodes that do not protrude.

In the support block 110, a positive first electrical connector 118a may be positioned at one side of the opening, and a negative first electrical connector 118b may be positioned at the other side thereof. In the function block 120, a (+) second electrical connector 128a is positioned at a position corresponding to the (+) first electrical connector 118a, and a position corresponding to the (-) first electrical connector 118b. A second electrical connector 128b may be positioned at the negative electrode connector 128b.

7 is a block diagram of an air purification block according to an embodiment.

Referring to FIG. 7, the air purification block 700 may include an electrostatic precipitator 710, a suction path 720, a dust stacking part 730, a suction fan 740, and the like.

The air introduced through the suction port 722 from the outside may be purified by the electrostatic precipitator 710 disposed on the inner wall of the suction path 720. The electrostatic precipitator 710 may be operated in a plasma manner, but may also be operated in other manners.

The heavy dust that is not attached to the electrostatic precipitator 710 may be stacked on the dust stacking part 730 positioned below the suction path 720 while falling along the path of the suction path 720 by gravity.

In the dust stacking unit 730, a removable dust container 732 may be located. The heavy dust is stacked on the dust container 732, and is stacked on the dust container 732 by a manager or a fully automatic device at regular intervals. Heavy dust can be removed.

The suction fan 740 may be positioned in a path away from the suction path 720 to induce air to flow into the suction path 720. The suction path 720 may be formed in a vertical direction parallel to the gravity direction, and the suction fan 740 may be located in one side direction of the suction path 720 in the vertical direction. When the suction fan 740 is positioned on the path of the suction path 720, heavy dust may be stacked on the suction fan 740. The suction fan 740 is separated from the suction path 720 as in an exemplary embodiment. When placed in the path, the heavy dust flowing into the suction path 720 may be stacked on the dust stacking part 730 located below the suction path 720 and may not flow into the suction fan 740 or only a small amount may flow into the suction path 720. have.

The suction fan 740 may be inclined at a predetermined angle with the arrangement direction or the gravity direction of the suction path 720. When the inflow direction of the air into the suction fan 740 is parallel to the gravity direction, contaminants are easily stacked on the suction fan 740. As in one embodiment, the suction fan 740 is disposed in the suction path 720 or gravity. When inclined at an angle with respect to the direction, the amount of contaminants deposited on the suction fan 740 may be small.

An upper side of the suction fan 740 may include a storage compartment 760 for storing the energy storage device 770. The storage compartment 760 may cover the upper side of the suction fan 740, so that the air moving from the lower side to the upper side by the inclined suction fan 740 may move to the lower side after hitting the storage compartment 760. .

In addition, while the outlet 750 is positioned below the storage compartment 760, the air hit by the storage compartment 760 may be discharged to the outside of the air purification block 700 through the outlet 750.

Meanwhile, the suction fan 740 may rotate in the forward direction and may rotate in the reverse direction. When the suction fan 740 rotates in the forward direction, air is introduced from the outside through the suction path, and when rotated in the reverse direction, the air is discharged to the outside through the suction path. At this time, when the suction fan 740 rotates in the reverse direction, air flow may occur in the dust stacking unit and / or the suction path, and since the air flows in the opposite direction as when the air flows in the forward direction, the dust stacking unit and / or Alternatively, foreign substances remaining in the suction passage can be discharged to the outside.

The air purifier installed outdoors may be difficult to maintain, and according to the operation method of the suction fan 740 described above, the solar tree system performs the function of air purifying and the night time is low when there are many people. There is a function to clean the inside itself.

On the other hand, the air purification block 700 further includes a vibration generating device (not shown) for generating vibration in the entire air purification block 700, the suction path 720, the dust stacking portion 730 or the electrostatic precipitator 710. By doing so, it is possible to more easily remove the dust stacked on each structure. And, this makes it easier to maintain the solar system.

8 is a diagram illustrating a solar tree system installed at a roadside according to an exemplary embodiment.

Referring to FIG. 8, a plurality of solar tree systems 100 may be installed on the roadside. At this time, the solar tree system 100 may be installed in the street light of the roadside. When the solar tree system 100 is installed in the street lamp, the power produced by the solar tree system 100 may be used as driving power of the street lamp.

9 is a diagram illustrating that a solar tree system is installed at a bus stop according to an exemplary embodiment.

Referring to FIG. 9, the solar tree system 100 may be installed at a bus stop. At this time, the solar tree system 100 may be attached to the bus station structure.

When the solar tree system 100 is installed at the bus station, the power generated by the solar tree system 100 may be supplied to the bus station electronics. For example, the solar tree system 100 may be an arrival time notification device. Can supply power

Alternatively, the solar tree system 100 may include an arrival time notification device as a function block.

Meanwhile, in the above-described embodiment, the air purification block has been mainly described as a functional block of the solar tree system 100. In addition to the functional block, the air flow block, the air conditioning block, the pest control block, the mobile phone charging device block, the direction block, etc. This can be

An airflow block is a block that can supply people with wind, similar to a fan, and can include a fan inside. An air-conditioning block is a block that can supply people with cooled and heated air such as a heater or a heater. It may include a device or a cooling device and a fan. Pest control block is a block that can spray the pest repellent or the air containing the pesticide components to the periphery of the ground structure may include a pest repellent spreader or pesticide spreader inside.

In addition, the mobile phone charger block is a block that can be supplied by converting the power produced by the solar cell into the mobile phone charging voltage, may include a power converter, the directional block contains air containing components beneficial to humans, such as phytoncide The supplying block may include a fragrance device and the like.

The solar tree system 100 may provide various functions to people located around the ground structure while a plurality of different functional blocks are arranged.

As described above, according to the present embodiment, by providing a smart solar system that operates properly for an outdoor environment, it is possible to supply purified air to people who operate outdoors at optimum efficiency.

The terms "comprise", "comprise" or "having" described above mean that a corresponding component may be included unless specifically stated otherwise, and thus does not exclude other components. It should be construed that it may further include other components. All terms, including technical and scientific terms, have the same meanings as commonly understood by one of ordinary skill in the art unless otherwise defined. Terms commonly used, such as terms defined in a dictionary, should be interpreted to coincide with the contextual meaning of the related art, and shall not be construed in an ideal or excessively formal sense unless explicitly defined in the present invention.

The above description is merely illustrative of the technical idea of the present invention, and those skilled in the art to which the present invention pertains may make various modifications and changes without departing from the essential characteristics of the present invention. Therefore, the embodiments disclosed in the present invention are not intended to limit the technical idea of the present invention but to describe the present invention, and the scope of the technical idea of the present invention is not limited by these embodiments. The protection scope of the present invention should be interpreted by the following claims, and all technical ideas within the equivalent scope should be interpreted as being included in the scope of the present invention.

Claims (17)

A support block attached while surrounding the ground structure with a width over a predetermined length;
A first air purification block attached to the support block at a first position spaced apart from the ground structure by a predetermined distance, and purifying and discharging air around the ground structure;
A symmetric block attached to a second position symmetrical to the first position with respect to the ground structure, the symmetric block having a load difference within a predetermined size from the load of the first air purification block; And
A solar cell coupled directly or indirectly to the ground structure and supplying electric power produced using sunlight to the first air purification block.
Solar tree system comprising a. The method of claim 1,
The support block is composed of a combination of a plurality of sub support blocks,
And a coupling part for coupling the plurality of sub support blocks is located closer to the ground structure than the first air purification block. The method of claim 2,
The coupling part functions as a support point of the lever,
A force proportional to the load of the first air purification block and the symmetric block is applied to push the support block toward the ground structure from the lower side of the contact surface of the support block and the ground structure, between the support block and the ground structure. Solar tree system to increase the bond strength of. The method of claim 1,
In the support block, a seating groove is formed in the first position and the second position, the lower side of which is blocked and the upper side of which is opened.
And the first air purification block and the symmetric block are seated on the support block through the seating groove without coupling parts. The method of claim 1,
The symmetric block is a second air purification block having the same configuration as the first air purification block,
The first air purification block and the second air purification block solar tree system including an energy storage device for storing some or all of the power produced by the solar cell. The method of claim 1,
The symmetric block is an energy storage block,
The energy storage block includes an energy storage device for storing some or all of the power produced by the solar cell,
And a weight or capacity of the energy storage device is determined such that the load of the energy storage block falls within a predetermined size with the load of the first air purification block. The method of claim 1,
The support block includes four openings that are opened up and down and seating grooves formed in each of the openings left and right,
The body of the first air purification block and the symmetric block is located in the opening and the mounting projection protruding left and right from the body is located in the seating groove and the solar tree system is seated on the support block. The method of claim 7, wherein
The first air purification block is located at the first opening of the four openings, and a first energy storage block is located at the second opening to store some or all of the power generated by the solar cell. The second air purification block having the same configuration as the first air purification block is located in the third opening located at the side, and the same configuration as the first energy storage block is located in the fourth opening located at the opposite side of the second opening. Solar tree system in which the second energy storage block is located. The method of claim 7, wherein
The wiring in the support block and the wiring of the first air purification block are electrically connected to each other by an electrical connector positioned in the seating recess and the seating protrusion.
Solar tree system is supplied to the power produced in the solar cell by the wiring in the support block. The method of claim 1,
And a solar cell insertion block attached to the ground structure and having an insertion hole into which a supporting rod for supporting the solar cell is inserted. A support block attached to surround the ground structure;
At least one air purification block seated on the support block and configured to purify and discharge air around the ground structure; And
Is coupled directly or indirectly to the ground structure, and includes a solar cell for supplying the power produced by using the sunlight to the air purification block,
The air purification block,
A suction path formed from the upper side to the lower side, the suction fan which is located on the path away from the suction path and guides the air to flow into the suction path, and the heavy dust placed below the suction path and falling through the suction path is laminated. Including dust stacking portion
Solar Tree System. The method of claim 11,
And the suction fan is inclined at a predetermined angle with a direction in which the suction path is disposed. The method of claim 11,
And a plasma electrostatic precipitator on the inner wall of the suction passage. The method of claim 11,
A detachable dust storage unit is disposed in the dust stacking unit, and the heavy dust is stacked in the dust storage system. The method of claim 11,
The solar cell system is located above the suction fan, the storage compartment for storing the energy storage device, the storage compartment covers the upper side of the suction fan. The method of claim 11,
The suction fan introduces air into the suction path through the forward rotation, and causes air to flow into the dust stacking portion or the suction path through the reverse rotation, thereby removing foreign substances remaining in the dust stacking portion or the suction path to the outside. Drain solar system. The method of claim 13,
And a vibration generator for generating vibration in the air purifying block, the suction passage, and the dust stacking unit or the electrostatic precipitator.

Images