KR101572147B1 - Small hydro power generation module, Module type power generator, and Module type hybrid power generator having solar power generation module and wind power generation module - Google Patents

Abstract

According to the present invention, a modular hybrid power generator having a small hydraulic power generation module, a photovoltaic power generation module, and a wind power generation module comprises: a first small hydraulic power generation module having a water tank, a first passage connected to the water tank, and a switch unit installed to open and close the first passage; a second small hydraulic power generation module having a second passage disposed below the first small hydraulic power generation module connected to the first passage, and a waterwheel embedded therein to generate power by water dropping from the second passage to store power in a storage battery; an electricity consumption module comprising an electric light or an electric device installed to receive electricity from the storage battery; a photovoltaic power generation module having a light collecting plate to collect solar light; and at least one wind power generation module having a casing, an inlet disposed on the casing to pass wind therethrough, a wing embedded therein to rotate by wind power, a magnet installed to rotate with the wind, and a coil installed adjacent to the magnet.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a small hydro power generation module, a module type power generator, and a module type hybrid power generator module having a solar power generation module and a wind power generation module, wind power generation module}

The present invention relates to a power generating device, and more particularly, to a small power generating module that is manufactured in a strut shape to generate electricity using natural wind, solar power, and small hydro power and is capable of supplying electric power to a lamp or CCTV of a street lamp, And a modular hybrid power generation device having a module and a wind power generation module.

Generally, a street lamp is supplied with external power and is illuminated by a sodium lamp or a mercury lamp, and it is common to control the lighting time of the street lamp by manual control or remote control. In addition, there is also a stand installed on a roadside or an alleyway, and a crime prevention CCTV is installed on this landing so as to be supplied with external power.

In order to operate such a streetlight or CCTV, recently, there have been proposed technologies for supplying power by self-generated power without supplying external power, for example, technologies using wind power or solar light.

However, currently, only one of the wind power generation and the solar cell power generation is used to generate electric power. Such a single power generation device has a problem in that it can not be used for a long period of time due to a shortage of electric power generation.

In addition, since the present wind turbine system is designed to utilize a wide range of natural winds, there is a problem in that the induction wind of the narrow range and the zone generated on the road side can not be utilized due to the movement of the vehicle.

Korean Patent No. 10-1023014 (published on Mar. 24, 2011) Korean Patent No. 10-0681731 (Announcement of Feb. 15, 2007)

In order to solve the above-mentioned problems, it is an object of the present invention to provide a hybrid structure in which a power generation device using natural wind, wind guidance of a vehicle induction wind, sunlight, and a small hydro power is modularly manufactured, A small-sized hydro-power generation module, a solar power generation module, and a wind power generation module.

In order to achieve the above object, a small hydro power generation module according to the present invention comprises: a first small hydroelectric power generating module having a reservoir, a first passage communicating with a water reservoir, and an opening and closing part configured to open and close a first passage; And a second small hydropower generation module having a water passage for generating electricity by the water falling in the second passage and storing the water in the accumulator, do.

Here, the opening / closing part includes a ball valve provided in the first passage and a motor provided to rotate the ball valve, and is configured to be discharged to the first passage at a time when the water level reaches a predetermined level or a water pressure.

An intermediate column having a predetermined height installed between the first small hydroelectric power generation module and the second small hydro power generation module; A sealing member fitted in the upper flange of the second small hydropower generation module or the lower flange of the first small hydropower generation module for sealing the first passage and the second passage; A control sensor which senses the water pressure or the water level stored in the water tank and generates an operation signal to the motor when the water level or the water level reaches the set value, and a drain port (not shown) processed in the second small hydro power generation module 250); And at least one of the following:

Meanwhile, a modular power generation apparatus having a small power generation module according to the present invention includes: the small power generation module; An electric power consumption module mounted on the first small hydropower generation module or the second small hydropower generation module or mounted between the first small hydropower generation module and the second small hydropower generation module and connected with a lamp or an electronic device installed to supply electric power to the battery, .

Meanwhile, the modular hybrid power generation apparatus according to the present invention includes: the first small hydropower generation module and the second small power generation module; An electric power consumption module having a lamp or electric device installed to receive electricity from the battery; A photovoltaic power generation module having a light collecting plate installed to collect sunlight; At least one wind turbine module having a casing, an inlet provided in the casing to allow wind to pass, a wing embedded to rotate by wind force, a magnet installed to rotate with the wing, and a coil arranged adjacent to the magnet, At least one of an electric power consumption module, a solar power generation module and a wind power generation module disposed between the first small hydroelectric power generation module and the second small hydro power generation module is installed to store electric power in the battery, A third passage of the electricity consuming module disposed between the first passage and the second passage for flowing water from the first passage of the first small hydropower generation module to the second passage of the second small hydropower generation module, And at least one of the fourth passage and the fifth passage of the wind power generation module is provided so as to communicate with each other.

here. The electric power consumption module may further include a support base protruding outwardly by a predetermined length and equipped with a lamp or an electric appliance.

In addition, the solar cell module further includes a support bar protruding outwardly by a predetermined length and equipped with a condenser plate.

In addition, the wind power generation module is mounted on the outer circumferential surface of the wind power generation module so that the center axis having the fifth passage in a hollow form is fixed to the coil side, and the wing is fixed to the other side of the inlet side, And a guide plate installed on the outer surface of the casing for guiding a part of the outside air to the inlet.

And a sealing member fitted in the upper flange or the lower flange or the upper / lower flange of each module for sealing the first passage, the second passage, the third passage, the fourth passage and the fifth passage, All of the guide plates mounted on the outer surface of the casing may be arranged in the same position or direction, or may be arranged in different positions or directions.

Further, the casing further includes an induction groove formed in a spiral shape so as to be connected to the exhaust hole while being inclined upward along the inner surface, and an induction protrusion formed by processing the induction groove to partition adjacent induction grooves, wherein the induction protrusion flows upward A slope surface machined to have a constant slope so as to maintain the flow of air, and a cut surface sloped to a slope than the slope surface to block the downward flow of the air.

At least one passage of the first passage, the second passage, the third passage, the fourth passage, and the fifth passage is provided with a plurality of passages extending along a circumferential surface And further comprises a protruding protrusion.

As described above, according to the present invention, a modular power generation apparatus using wind power, solar light, and a small power is installed in a pillar shape, and electric power produced from each module power generation apparatus is stored, It is possible to supply enough electric power to the streetlight or CCTV by using it.

In addition, various types of power generation devices are produced in a modular fashion, which is easy to manufacture and can be easily installed and installed in the field.

Particularly, a modular hybrid power generation device is installed on the road side, and power can be generated by using the vehicle induction wind generated by the vehicle on which the wind power generation module moves.

Considering the characteristics of the road, it is possible to set the height of the modular hybrid power generation device in consideration of the height at which the induction wind can be maximized or the height for small hydroelectric power generation.

In addition, by using various types of power generation apparatuses, it is possible to generate sufficient power in various ways according to the weather, to accumulate reserve power, and to operate the streetlight or CCTV whenever necessary.

BRIEF DESCRIPTION OF THE DRAWINGS The accompanying drawings, which are incorporated in and constitute a part of the specification, illustrate preferred embodiments of the invention and, together with the description, serve to further the understanding of the technical idea of the invention, It should not be interpreted.
FIG. 1 is a side view schematically showing a modular hybrid power generation apparatus having a small hydro power generation module, a solar power generation module, and a wind power generation module according to a preferred embodiment of the present invention.
2 is a side cross-sectional view showing the first small hydropower generation module shown in Fig.
3 is a side view of the second small hydropower generation module shown in FIG.
4 is a side cross-sectional view of the electric power consumption module shown in Fig.
5 is a side cross-sectional view of the solar cell module shown in FIG.
6 is a side cross-sectional view of the wind power generation module shown in Fig.
7 is an internal view showing the inner surface of the casing shown in Fig.
8 is an enlarged view of the "A"

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. However, the detailed description of known functions and configurations incorporated herein will be omitted when it may unnecessarily obscure the subject matter of the present invention.

<Configuration>

FIG. 1 is a side view schematically showing a modular hybrid power generation apparatus having a small hydro power generation module, a solar power generation module, and a wind power generation module according to a preferred embodiment of the present invention. 2 is a side cross-sectional view showing the first small hydropower generation module shown in Fig. 3 is a side view of the second small hydropower generation module shown in FIG. 4 is a side cross-sectional view of the electric power consumption module shown in Fig. 5 is a side cross-sectional view of the solar cell module shown in FIG. 6 is a side cross-sectional view of the wind power generation module shown in Fig. 7 is an internal view showing the inner surface of the casing shown in Fig. 8 is an enlarged view of the "A"

As shown in FIG. 1, a modular hybrid power generation system including a small hydro-power generation module, a solar power generation module, and a wind power generation module according to a preferred embodiment of the present invention includes a first small hydro power generation module 100, Module 200, an electric power consumption module 300, a solar power generation module 400, and a wind power generation module 500.

1 and 2, the first small hydropower generation module 100 is a module for receiving rainwater and storing and discharging the rainwater. The module 100 includes a water storage tank 110 and a water storage tank 110, An opening and closing part 130 installed to open and close the first passage 120 and a control sensor 140 installed to control the opening and closing of the opening and closing part 130.

Here, the water storage tank 110 is formed in a substantially hemispherical shape to store rainwater. The water storage tank 110 may be formed integrally with the processed body of the first passage 120, or may be separately manufactured and coupled.

In addition, the first passage 120 may be provided at the lowermost part of the water storage tank 110 to discharge the water of the water storage tank 110 downward. The first passage 120 is provided to allow the water in the water storage tank 110 to flow to the third passage 310 of the electricity consumption module 300, as shown in FIGS. 1, 2 and 4. The first passage (120) is provided with a projection (121) so that the diameter thereof becomes narrower on a part thereof. The protruding portion 121 is a portion for utilizing the Bernoulli's principle. As the speed of the discharged water is rapidly advanced, a small amount of water drops quickly to the second small hydro power generation module 200, Can be obtained. The protrusion 121 is provided in the passage of any one of the first passage 120, the second passage 240, the third passage 310 described later, the fourth passage 420 and the fifth passage 521 .

The opening and closing part 130 is for opening and closing the first passage 120 and includes a ball valve 131 installed to open and close a groove machined on a part of the first passage 120, A motor 132 installed therein, and a control sensor 140 installed to operate the motor 132. Therefore, when the rainwater having a predetermined height or higher is collected in the water storage tank 110 or the collected rainwater reaches a predetermined pressure or higher, the control sensor 140 senses the rainwater to operate the motor 132, Is rotated so that the first passage 120 and the water storage tank 110 are opened. Of course, when the water in the water storage tank 110 is discharged, the ball valve 131 is returned and rotated by the control sensor 140 and the motor 132 to close the first passage 120 and the water storage tank 110.

As shown in FIGS. 1 and 3, the second small hydro power generation module 200 is a module that generates electricity using water falling from the first small hydro power generation module 100, It is preferable to install the first small hydro power generation module 100 as far as possible to maximize the water drop. Of course, the second small hydropower generation module 200 may be installed on the ground, or may be installed at an intermediate portion of the entire height of the hybrid power generation apparatus. The second small hydropower generation module 200 includes a water turbine 210 installed to generate electricity while being rotated by the water discharged from the water storage tank 110, a storage 220 storing electricity generated in the water turbine 210, And a controller 230 for controlling the power of the power supply 220 to be supplied to the CCTV 320 or the electric lamp installed in the electric power consumption module 300. The battery 220 and the controller 230 may be connected to the first small hydropower generation module 100, the electricity consumption module 300, the solar power generation module 400 or the wind power generation module 500 ). The lower portion of the second small hydroelectric power generation module 200 has at least one drain port 250 formed in the lower portion of the lower flange side so that the water dropped by the aberration 210 is discharged to the outside.

Here, the second small hydropower generation module 200 further includes a sealing member 600 fitted in the second passage 240 passing through the upper flange of the second small hydroelectric power generation module 200. 1 and 6, the sealing member 600 connects the fifth passage 521 and the second passage 240 of the wind power generation module 500 and connects the fifth passage 521 to the second passage 240 To prevent water from leaking. The sealing member 600 may be formed to have a substantially T shape and may be formed in the shape of a rectangular parallelepiped such that the second small hydroelectric power generation module 200, the electric power consumption module 300, the solar power generation module 400 and the wind power generation module 500 And can be fitted to the upper flange or the lower flange. In addition, the sealing member 600 is formed in a substantially "cross" shape, and can be mounted on both flanges that are in contact with each other when the modules 100, 200, 300, The sealing member 600 will be described with reference to the second small hydro power generation module 200 and the wind power generation module 500 as an example. The lower portion of the sealing member 600 is fitted and fixed to the upper flange so that the diameter of the third passage 310 from the fifth passage 521 to the second passage 240 can be made constant . The lower flange of the wind power generation module 500 and the upper flange of the second small hydro power generation module 200 are in contact with each other and are engaged with each other, It can be sealed to the site.

As described above, the power generation apparatus including the first small hydroelectric power generation module 100 and the second small power generation power generation module 200 may be combined with the electricity consumption module 300 so that the electric power generation module 300 may be constructed to generate only hydroelectric power. The first small hydroelectric power generation module 100 and the second small hydro power generation module 200 may be spaced apart from each other so that the first small hydro power generation module 100 and the second small hydro power generation module 200 are spaced apart from each other. The height may be increased or a separate intermediate column (not shown) may be installed. At this time, the electricity consumption module 300 may be installed in the intermediate column.

As shown in FIGS. 1 and 4, the electricity consumption module 300 is a module having a security CCTV 320 or a lighting lamp installed to operate by receiving generated power. The first small power generation module 100 And between the solar power generation module 400 and the wind power generation module 500. As shown in FIG. The electric power consumption module 300 is provided with a third passageway 310 having a hollow shape and further includes a substantially horizontal support 330 so that the CCTV 320 or the lamp may be installed and positioned at a longer center of a road side .

As shown in FIGS. 1 and 4, the solar power generation module 400 includes a condenser 410 installed to collect sunlight to generate electric power, and a fourth passage 420 having a hollow shape . The solar power generation module 400 may be positioned below the first small hydro power generation module 100 and coupled with the electricity consumption module 300 or the wind power generation module 500. The photovoltaic power generation module 400 is installed such that the generated power is stored in the battery 220. The solar cell module 400 may further include a support bar 430 protruding outward so that the solar cell module 400 can be inclined when the condenser plate 410 is installed.

1, 6, 7 and 8, the wind power generation module 500 is a module for generating electricity using wind power, and includes a casing 510, a central shaft 520, a coil 530, A rotating body 540, a blade 550 and a magnet 560. [

1 to 3, the casing 510 has an upper flange and a lower flange provided at both ends thereof, an inlet 570 formed to have a predetermined area to allow the outside air to flow therein, an inlet 570, An induction plate 580 fixed to the outer surface so as to guide the outside air, and an exhaust port 590 formed in the outer surface so as to discharge the inside air to the outside.

Here, the upper flange and the lower flange are positioned so as to close both end faces of the casing 510, and are machined with a larger diameter than the middle portion of the casing 510. The upper flange and the lower flange are used when the casing 510 is arranged in the height direction and fastened to each other.

Further, the induction plate 580 is processed to change the flow of a part of the outside air flowing in one direction to the inside of the casing 510. At this time, the induction plate 580 contacts a curved surface having a certain curvature similar to a part of a substantially circular arc in plan view so that the external air, which changes in the flow direction, flows into the casing 510 while maintaining the flow velocity and wind pressure as much as possible . The induction plate 580 induces a part of the vehicle induction wind generated by the vehicle operation to the inside of the casing 510, in particular, when the modular hybrid electric power generation apparatus of the present invention is installed on the road side, It can be possible.

At least one of the inlet ports 570 is machined so that external air flowing along the guide plate 580 flows into the casing 510.

The exhaust port 590 is a hole for introducing the air that has flowed into the casing 510 through the inlet port 570 and rotated by the vane 550 to the outside and at least one hole is provided between the upper flange and the inlet port 570 Processed.

 7 and 8, the casing 510 includes an induction groove 511 connected to the exhaust port 590 and an induction protrusion 512 for separating the induction groove 511 from each other, . The guide groove 511 flows into the casing 510 and rotates the blade 550 and then winds the air rotating together with the blade 550 while consuming the wind pressure and discharges the air upward through the air outlet 590 One groove is continuously machined from the lower portion to the upper portion of the casing 510. [ The guide protrusion 512 is formed by processing the guide groove 511. The guide protrusion 512 has a gentle inclined surface 512a provided to smoothly maintain the flow of the air flowing upward, And has a cut-off surface 512b that is machined to a near steeply steep for the sake of simplicity. Here, the side surface of the inclined surface 512a may be a straight line or a curved line.

The center shaft 520 is disposed at the center of the plane of the casing 510, and both ends are fixed to the upper flange and the lower flange. The central shaft 52 is provided with a fifth passage 521 having a hollow shape.

At least one coil 530 is installed along the outer circumferential surface of the central axis 520.

The rotating body 540 is installed such that both end portions of the rotating body 540 are rotatable about the central axis 520 while surrounding the coil 530.

The wings (550) are installed on the outer circumferential surface of the rotating body (540) at a regular interval in a plane. The blade 550 is rotated in one direction by the wind pressure of the air introduced into the casing 510, and the rotating body 540 is also rotated at this time. The blade 550 can be manufactured to have a curved surface having a substantially constant curvature in a plane so as to receive wind pressure as much as possible. In addition, the vanes 550 may be formed in the form of a straight line on the side surface, or a curved surface inclining from the upper end to the lower end.

The magnet 560 is disposed adjacent to the coil 530 while being fixed to the inner surface of the rotating body 540. Thus, the magnet 560 rotating with the vane 550 and the rotating body 540 causes electricity to be generated in the coil 530. The wind power generation module 500 generating the electric power is installed such that electric power is stored in the storage battery 220.

Here, when the plurality of wind power generating modules 500 are fastened to each other, the induction plate 580 may be fastened in the same direction and position, and the induction plates 580 may be fastened in different directions It may be concluded. This is to make maximum use of the vehicle induction wind in consideration of the topography and characteristics of the road.

The modular hybrid power generation apparatus of the present invention having the above-described structure can generate electricity from the wind power generation module 500 on a windy day and from the solar power generation module 400 on a clear day, 1 small hydro power generation module 100 and the second small hydro power generation module 200. Of course, the wind power generation module 500, the first small hydro power generation module 100, and the second small hydro power generation module 200 can generate electricity at the same time on a windy and rainy day. On the windy day, And the photovoltaic power generation module 400 can generate electricity.

As described above, those skilled in the art will appreciate that the present invention may be embodied in other specific forms without departing from the spirit or essential characteristics thereof. It is therefore to be understood that the above-described embodiments are to be considered in all respects as illustrative and not restrictive. The scope of the present invention is defined by the appended claims, rather than the detailed description, and all changes or modifications derived from the meaning and scope of the claims and equivalents of the claims are to be construed as being included within the scope of the present invention do.

100: First small hydropower module
110: Water tank
120: first passage
121:
130:
131: Ball valve
132: motor
140: control sensor
200: Second Small Hydro Power Module
210: aberration
220: Battery
230:
240: second passage
250: drain
300: Electric consumption module
310: Third passage
320: CCTV
330: Support
400: Solar power generation
410: condenser plate
420: fourth passage
430: support bar
500: Wind power module
510: casing
511: Guiding groove
512: guiding projection
521a:
521b: blocking face
520: center axis
521: fifth passage
530: Coil
540: rotating body
550: Wings
560: Magnet
570: Inlet
580: Induction plate
590: Exhaust hole
600: sealing member.

Claims (12)

A first small hydro power generation module 100 having a first passage 120 communicating with a water storage tank 110 and a water storage tank 110 and an opening and closing unit 130 configured to open and close the first passage 120;
A second passage 240 disposed below the first small hydropower generation module 100 and communicating with the first passage 120 and a second passage 240 communicating with the storage battery 220 by the water falling from the second passage 240, And a second small hydroelectric module (200) having a water turbine (210) built therein for storing,
An intermediate column having a predetermined height installed between the first small hydro power generation module 100 and the second small hydro power generation module 200; A sealing member 600 fitted to the upper flange of the second small hydro power generation module 200 or the lower flange of the first small hydro power generation module 100 for sealing the first passage 120 and the second passage 240; A control sensor 140 that senses the water pressure or the water level stored in the water storage tank 110 and generates an operation signal to the motor 132 when the water pressure or the water level is reached; And a drain port 250 processed in the second small hydro power generation module 200 so that the water dropped by the aberration 210 is discharged to the outside; And at least one of the first and second modules.
The method according to claim 1,
The opening and closing part 130 includes a ball valve 131 installed in the first passage 120 and a motor 132 installed to rotate the ball valve 131,
The small hydroelectric power generating module is installed to discharge the water to the first passage (120) at a time when the water level reaches a certain level or the water pressure in the water storage tank (110).
The method according to claim 1,
The first passage 120 or the second passage 240 may further include a protrusion 121 protruding along a circumferential surface of the first passage 120 or the second passage 240, Power generation module.
delete The small-scale hydroelectric power generating module according to any one of claims 1 to 3, wherein the first small hydro power generation module (100) and the second small hydro power generation module (200) of the small hydro power generation module;
The first small hydro power generation module 100 or the second small hydro power generation module 200 may be installed in the first small hydro power generation module 100 or the second small hydro power generation module 200 or may be installed between the first small hydro power generation module 100 and the second small hydro power generation module 200, And an electric power consumption module (300) having the electric power or the electronic equipment installed therein.
The small-scale hydroelectric power generating module according to any one of claims 1 to 3, wherein the first small hydro power generation module (100) and the second small hydro power generation module (200) of the small hydro power generation module;
An electric power consumption module 300 having a lamp or electric device installed to receive electricity from the battery 220;
A photovoltaic power generation module 400 having a light collecting plate 410 installed to collect sunlight;
An inlet 570 provided in the casing 510 for allowing the wind to pass therethrough, a vane 550 built to rotate by wind force, a magnet 560 installed to rotate with the vane 550, a magnet 560 And at least one wind power generation module (500) having a coil (530) installed adjacent to the wind power generation module (500)
The photovoltaic generation module 400 and the wind power generation module 500, which are installed between the first small hydroelectric power generation module 100 and the second small hydro power generation module 200 in the height direction, are connected to the modules 100, 200, 300, At least one of which is configured to store power in the battery 220,
The first passage 120 and the second passage 240 are formed in order to flow water from the first passage 120 of the first small hydro power generation module 100 to the second passage 240 of the second small hydro power generation module 200. [ At least one of the third passage 310 of the electric power consumption module 300 and the fourth passage 420 of the solar power generation module 400 and the fifth passage 521 of the wind power generation module 500 A modular hybrid power generation device having a solar power generation module and a wind power generation module installed so that passages can communicate with each other.
The method according to claim 6,
The electric power consumption module 300 includes a solar power generation module and a wind power generation module that are protruded outward by a predetermined length to support a lamp or an electric device.
The method according to claim 6,
The solar power generation module (400) includes a solar power generation module and a wind power generation module, which are further provided with a support bar (430) protruding outwardly by a predetermined length and equipped with a condenser plate.
The method according to claim 6,
The wind power generation module 500 includes a center shaft 520 having a fifth passage 521 in a hollow form while the coil 530 is mounted on the outer circumferential surface of the wind power generation module 500 while the magnet 560 is fixed to one surface of the coil 530 side, A rotating body 540 fixed to the other surface of the inlet 570 side and configured to rotate with respect to the central axis 520 together with the vane 550, a rotating body 540 mounted on the outer surface of the casing 510, And an induction plate (580) installed to be guided to the inlet (570). The module includes a solar power generation module and a wind power generation module.
The method according to claim 6,
The upper and lower flanges of the respective modules 100, 200, 300, 400 and 500 for sealing the first passage 120, the second passage 240, the third passage 310, the fourth passage 420 and the fifth passage 521, Or a sealing member (600) sandwiched between the upper and lower flanges,
When the casing 510 is fastened, all of the guide plates 580 mounted on the outer surface of the casing 510 are arranged in the same position or direction, Module and a wind power generation module.
The method according to claim 6,
The casing 510 has an induction groove 511 formed in a helical shape so as to be connected to the exhaust port 590 while being inclined upward along the inner surface and a guide groove 511 formed by processing the induction groove 511 to define adjacent induction grooves 511 Further comprising an induction projection 512,
The guide protrusion 512 has an inclined surface 512a formed to have a predetermined inclination so as to maintain the flow of the upwardly flowing air and a blocking surface 512b formed so as to have a level of inclination lower than the inclined surface 512a in order to block the downward flow of air And a wind power generation module.
The method according to claim 6,
At least one of the first passage 120, the second passage 240, the third passage 310, the fourth passage 420, and the fifth passage 521 may be provided with at least one passage And a protruding portion (121) protruding along a circumferential surface which is formed to have a diameter smaller than that of the other portion on a part of the circumferential surface of the solar cell module, and a wind power generation module.

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