KR101237535B1 - The wind power generator having structure capable of changing flow direction - Google Patents

Abstract

PURPOSE: A wind-shifting wind power generator is provided to improve power generation efficiency by applying venturi effect to collected wind. CONSTITUTION: A wind-shifting wind power generator comprises a rotary shaft(15), a blade structure, a wind shifting structure(30), and a power generator. Blades of the blade structure are radially connected in a longitudinal direction to the rotary shaft. The wind shifting structure guides wind to the blades. The power generator generates electricity by receiving a rotary force from the rotary shaft. The wind shifting structure comprises a plurality of funnel-shaped wind shifting guides. The sectional area of a fluid inlet of the funnel-shaped wind shifting guide is larger than the sectional area of a fluid outlet, and the side of the funnel-shaped wind shifting guide is curved.

Description

The wind power generator having structure capable of changing flow direction}

The present invention relates to a wind power generator, the wind blowing in the horizontal direction of the east, west, north and north directions to the wind turbines to increase the wind speed while switching to the structure, and the increased wind efficiency in the above-described structure using the wind power generation efficiency It relates to a wind direction wind generator that can increase the.

Common power generation methods include hydroelectric power generation using hydroelectric power, thermal power generation using fossil fuels, and nuclear power generation using nuclear power. However, these power generation methods require large-scale power generation facilities and huge amounts of energy to operate them.

As fossil fuels such as petroleum and coal as energy sources used in thermal power generation, they are more dependent than other fuels, causing problems such as exhaustion of resources. Moreover, fossil fuels such as petroleum and coal are the main causes of global warming by destroying the ozone layer. In addition, fossil fuels such as petroleum and coal cause environmental pollution, and in particular, fossil fuels such as petroleum and coal are highly dependent on other fuels, causing rapid depletion of resources and environmental pollution.

Therefore, fossil fuels such as petroleum and coal are used to prevent environmental pollution caused by depletion of resources according to the use of petroleum or coal, and various disasters caused by global warming caused by combustion of petroleum and coal, and generation of various pollutants. There is a demand for breakthrough development that does not require

As described above, power generation methods that do not require fossil fuels such as oil or coal include solar power generation, tidal power generation, and wind power generation using solar energy, and the most easily applicable power generation method is solar heat using solar heat. It can be called wind power generation using power and wind power.

The above-mentioned wind power generation refers to a method of converting wind energy into mechanical energy by a windmill and turning the generator to generate electricity. Wind energy varies according to wind speed, and is about 1 kW at a radius of the wind area of 1 m and a wind speed of 10 m / s. Can be obtained.

There are two types of wind power generation systems, a direct use system using an alternating current wind generator for a power system and a storage use system in which electricity from a wind generator is stored in a storage battery and paralleled to a power system. While the former is directly affected by the wind change, the latter has an advantage that can be used on average because it is supplemented with a battery even if the wind is fluctuating, but there is a problem of expensive equipment cost. A typical example of using wind energy as a power source is windmills in the Netherlands, with 100-1,000 kW already being developed in the United States and the United Kingdom.

Such wind power generation is a pollution-free energy source that does not involve waste, and is fully available on a personal scale. Wind power is used for power generation of lighthouses in remote windy islands. In addition, there is an advantage that the power generation facilities can be installed very simply compared to other power generation facilities and does not generate a separate waste due to power generation. In addition, in the case of the above-mentioned wind power generation, the power generation facility is very simple to install than other power generation facilities, and there is an advantage that no separate waste is generated due to power generation.

As shown in FIG. 1, the conventional wind generator 1 is installed at a coastal area where wind speeds are constantly blowing during the year, and includes a plurality of blades at an upper end of the tower 5 having a height of at least 5 m. A rotor (2) having 3) is mounted to generate electric power. The electric power produced by the plurality of wind generators 10 is collected in a storage battery and supplied to a required place.

However, the wind power generator 1 according to the prior art is generated by the rotation of the blade 3 by the wind in contact with the blade 3 surface exposed to the air. Therefore, the area of the blade 3 and the amount of power generation have a close relationship. However, if the area of the blade 3 is increased in order to increase the amount of power generated, another problem arises in that the installation cost and maintenance cost of the wind power generator 1 increase.

In addition, the blade 3 may partially prevent the overload of the rotation of the blade 3 in the case where the contact surface with the wind is narrow and a certain amount of strong wind is generated. There is a problem that can not effectively use the strength of the wind, such as the power generated by the rapid fall of the rotation force falls significantly to the reference value of self-power generation.

In addition, the blade 3 is installed on the top of the tower 5 is directly exposed to the outside. Accordingly, the blade 3 may collide with the flying object due to an unexpected strong wind or gust, and when the collision occurs, the blade 3 may be seriously damaged and eventually the wind generator 1 functions. This leads to damage problems.

In order to solve the above problems, the present invention is to provide a technique that can collect the wind blowing strongly in the air to create a strong downdraft, and to increase the power generation efficiency by using the downdraft for wind power generation.

In addition, the present invention is to provide a technology that can increase the power generation efficiency by applying a structure that can give a venturi effect on the collected wind power.

It is also an object of the present invention to prevent unexpected blade breakage by not exposing the blade to the air.

According to one aspect of the invention, the wind direction wind generator, the rotating shaft; A blade structure including a plurality of blades connected radially with respect to the longitudinal direction of the rotation axis; A wind direction converting structure for changing the wind direction of the wind blowing horizontally to guide the plurality of blades; And a generator configured to generate electricity by receiving rotational force from the rotating shaft, wherein the wind direction converting structure includes a plurality of funnel-shaped wind direction conversion guides having a cross-sectional area of the fluid inlet greater than that of the fluid outlet and having a curved side. The guide central axis, which is a virtual straight line connecting the center of the fluid inlet and the center of the fluid outlet, is coaxial with the rotation axis, and each of the plurality of wind direction conversion guides may be spaced apart at regular intervals along the direction of the guide center axis. .

According to another aspect of the invention, the wind direction conversion wind generator, a plurality of blades, the hub to which the plurality of blades are fixed, a rotor shaft to receive the rotational force of the hub and a generator for generating electricity by receiving the rotational force of the rotor shaft Including a wind generator; And a wind direction converting structure for varying the wind direction of the wind blowing horizontally to guide the plurality of blades, wherein the wind turbine is plural, and the rotor shafts of the plural wind turbines are coaxially located. Are spaced apart at predetermined intervals, and the wind direction converting structure includes a plurality of funnel-shaped wind direction conversion guides having a cross-sectional area of the fluid inlet greater than the cross-sectional area of the fluid outlet and having a curved side, and a center of the fluid inlet and the The guide central axis, which is a virtual straight line connecting the center of the fluid outlet, is coaxial with the rotor shaft, and each of the plurality of wind direction conversion guides may be spaced apart at regular intervals along the direction of the guide central axis.

Here, the plurality of wind direction conversion guide may be disposed to surround the blade structure.

The wind direction converting structure may further include a guide panel positioned in a space formed between the plurality of wind direction converting guides and connecting the outer side and the inner side of different wind direction converting guides.

Here, the wind direction conversion wind generator further comprises a wind collecting structure for guiding the wind blowing horizontally in the direction of the guide central axis, wherein the wind collecting structure, with respect to the longitudinal direction of the guide central axis at the edge of the fluid inlet Radially extending horizontal guides; And a guide partition wall disposed between the horizontal guides and having a direction in the direction of the guide central axis.

Here, the guide partition wall may have a direction toward the guide central axis while forming a curve.

The present invention collects the wind blowing strongly in the air to create a strong downdraft, by using the downdraft to the wind power generation can provide a wind turning wind generator that can increase the power generation efficiency.

In addition, it is possible to provide a wind direction conversion wind generator that can increase the power generation efficiency by applying a structure that can give a Venturi effect on the wind collected.

In addition, it is possible to provide a wind turning wind generator that can prevent unexpected blade failure by not exposing the blade to the air.

1 is a perspective view of a wind generator according to the prior art.
2 is a perspective view of a wind direction wind generator according to an embodiment of the present invention.
3 to 12 is a perspective view showing the configuration of the wind turning wind generator shown in FIG.
13 to 15 is a view showing the shape of the guide partition wall according to another embodiment of the present invention.
16 to 22 is a perspective view showing the structure of the wind direction wind turbine according to another embodiment of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS The present invention is capable of various modifications and various embodiments, and specific embodiments are illustrated in the drawings and described in detail in the detailed description. It is to be understood, however, that the invention is not to be limited to the specific embodiments, but includes all modifications, equivalents, and alternatives falling within the spirit and scope of the invention. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

The terms first, second, etc. may be used to describe various components, but the components should not be limited by the terms. The terms are used only for the purpose of distinguishing one component from another.

The terminology used in this application is used only to describe a specific embodiment and is not intended to limit the invention. Singular expressions include plural expressions unless the context clearly indicates otherwise. In the present application, the terms "comprises" or "having" and the like are used to specify that there is a feature, a number, a step, an operation, an element, a component or a combination thereof described in the specification, But do not preclude the presence or addition of one or more other features, integers, steps, operations, elements, components, or combinations thereof. Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings.

2 is a perspective view of the wind direction conversion wind generator according to an embodiment of the present invention, Figures 3 to 12 is a perspective view showing the configuration of the wind direction conversion wind generator shown in FIG.

As shown in Figures 2 to 13, the wind turning wind generator 10 according to an embodiment of the present invention is a rotating shaft 15, the blade structure 20, the wind turning structure 30 and the generator (not shown) It includes. Referring to FIG. 3, the rotation shaft 15 is installed in a direction perpendicular to the support surface. The blade structure 20 is connected radially with respect to the longitudinal direction (ie, the direction perpendicular to the support surface) of the rotation shaft 15. The blade structure 20 includes a plurality of blades 22. The plurality of blades 22 are connected radially (direction horizontal to the ground) with respect to the rotation axis 15. In this case, the plurality of blades 22 may be connected to the rotating shaft 15 via a hub (not shown) for convenience of connection and tight fixation.

When the blade structure 20 is rotated by the wind, the rotating shaft 15 coupled with the blade structure 20 is rotated. As shown in FIG. 3, the blade structure 20 may be plural. The generator (not shown) is connected to the rotation shaft 15. The generator receives the rotational force from the rotating shaft 15 to generate electricity. Details of the above-described power generation principle of the generator will be apparent to those skilled in the art, and will be omitted since it is somewhat distance from the gist of the present invention.

The wind deflection structure 30 includes two or more wind deflection guides 31. The wind direction conversion guide 31 has a browning shape as a whole. More specifically, the wind direction conversion guide 31 has a cross-sectional area of the fluid inlet greater than that of the fluid outlet and is curved on the side. The shape of the fluid inlet and the fluid outlet may be circular, elliptical, polygonal, or the like, and the shape thereof is not particularly limited. An imaginary straight line guide center axis connecting the center of the fluid inlet and the center of the fluid outlet is coaxial with the axis of rotation 15. Sides of the wind direction conversion guide 31 may have a concave shape with respect to the outward direction with respect to the guide center axis. Each of the plurality of wind direction conversion guides 31 is spaced apart at regular intervals along the direction of the guide central axis. Wind direction conversion guide 31 may be made of metal, reinforced plastics, etc., there is no particular limitation on the material.

The wind turning structure 30 may further include one or more guide panels 33. The guide panel 33 is positioned between the plurality of wind direction switching guides 31. The guide panel 33 connects the outer side and the inner side of the plurality of wind direction conversion guides 31. That is, when the wind direction changing guide 31 is two, the guide panel 33 connects the outer side of the upper wind direction switching guide 31 and the inner side of the lower wind direction changing guide 31. The guide panel 33 serves to prevent the wind introduced between the plurality of wind direction conversion guides 31 from flowing out to the opposite side. That is, the wind introduced between the plurality of wind direction conversion guide 31 has to exit to the fluid outlet of the plurality of wind direction conversion guide 31, if there is no guide panel 33, some of the wind introduced into the wind direction guide (31) ) And flows to the opposite side through the side to exit to the fluid outlet of the wind direction conversion guide (31). At this time, the guide panel 33 performs a function of preventing the flow of the wind flowing through the side of the wind direction conversion guide 31. If there are n wind direction change guides 31, the space between the wind direction change guides 31 becomes n-1. Thus, the guide panel 33 is also located in the space between the n-1 sets of the above-mentioned wind direction conversion guide 31. One set of guide panels 33 may include a plurality of guide panels 33. For example, referring to FIG. 8, there are six wind direction changing guides 31 and five spaces exist between the plurality of wind direction changing guides 31. In addition, there are five sets of guide panels 33. One set of guide panels 33 is indicated as being present in two.

The wind direction conversion guide support part 32 supports and fixes the wind direction change guide 31. In this case, the wind direction conversion guide support part 32 may perform a function of positioning the plurality of wind direction conversion guides 31 spaced apart by a specific distance. As illustrated in FIG. 8, the wind direction conversion guide support part 32 may have a pillar shape having a predetermined length. In addition, the direction change guide support 32 may be attached along the periphery of the fluid inlet of the direction change guide (31). However, the wind direction conversion guide support part 32 shown in FIG. 8 is not limited in its form as long as it is only one embodiment of the present invention. For example, the wind direction conversion guide support part 32 may support only the wind direction change guide 31 positioned at the bottom. At this time, each wind direction conversion guide 31 may be spaced apart by a specific distance through a separate spaced apart frame (not shown). The spacing frame may be attached along the periphery of the fluid inlet of the wind direction conversion guide 31, and may be disposed between each wind direction guide 31.

4 and 5, the wind direction conversion guide 31 may be disposed to surround the blade structure 20. That is, the horizontal cross-sectional area (ie, the cross-sectional area perpendicular to the rotation axis 15) of the fluid outlet of the wind direction conversion guide 31 is larger than the horizontal cross-sectional area that the blade structure 20 runs. The vertical position of the fluid outlet may coincide with the vertical position of the blade 21. Alternatively, the vertical position of the fluid outlet may be higher than the vertical position of the blade 21. That is, the wind direction conversion guide 31 may be located above the blade structure 20 (that is, the upper portion along the longitudinal direction of the rotation axis 15). In addition, the vertical position of the fluid outlet may be lower than the vertical position of the blade 21. When the wind deflection guide 31 is located above the blade structure 20, the horizontal cross-sectional area of the fluid outlet of the wind deflection guide 31 (ie, the cross-sectional area perpendicular to the rotation axis 15) is the blade structure 20. It may be smaller than the running horizontal cross-sectional area.

5 shows how the direction of the wind blowing in the air is changed horizontally. According to reference numeral 35, horizontally blowing winds are introduced between each wind deflection guide 31. At this time, the wind blowing horizontally is guided along the curvature side of the wind direction conversion guide (31). Therefore, the wind blowing in the horizontal direction is changed in accordance with the degree of curvature of the side of the wind direction conversion guide (31). As shown in FIG. 5, the direction of the wind reaching the periphery of the fluid inlet of the wind deflection guide 31 is close to horizontal, but the wind reaching the periphery of the fluid outlet of the wind deflection guide 31 has a direction close to the vertical. do. Thus, according to the present embodiment, the wind blowing horizontally can finally be a vertical downdraft. In addition, the spacing between the fluid inlets of each wind direction guide 31 is greater than the spacing between the fluid outlets. Therefore, the venturi effect is applied to the wind passing between the wind direction conversion guide 31. The venturi effect is the increase in wind speed by the convergence of air into a funnel by two buildings. The Venturi effect is due to Bernoulli's theorem. The Venturi effect is because the side of the wind direction conversion guide 31 has a concave shape with respect to the outward direction with respect to the guide center axis. As a result, the wind speed can be increased due to the shape of the wind direction conversion guide 31, and finally, the increased wind speed increases the power generation efficiency.

10 to 12, the wind direction conversion wind generator 10 according to the present invention may further include a wind collecting structure 40. The wind collecting structure 40 serves to guide the wind blowing horizontally in the direction of the rotation axis 15. The wind collecting structure 40 includes a horizontal guide 41 and a guide partition 42. The horizontal guide 41 extends radially with respect to the longitudinal direction of the rotation axis 15 at the edge of the fluid inlet. The guide partition 42 is positioned between the horizontal guides 41 and has a direction in the direction of the rotation axis 15. The guide partition wall 42 may have a horizontal component (that is, a height) extending in a direction perpendicular to the horizontal guide 41 plane (see FIG. 10). Alternatively, the guide partition 42 may have a height extending at a specific angle with respect to the horizontal guide 41 plane. At this time, the horizontal component (that is, the length) of the guide partition wall 42 extends with the directivity in the direction of the rotation axis 15 as described above. The guide partition wall 42 may be connected to and fixed to both the horizontal guide 41 positioned above the guide partition 42 and the horizontal guide 41 positioned below. Alternatively, the guide partition 42 may be connected and fixed to only one of the horizontal guide 41 positioned above the guide partition 42 or the horizontal guide 41 positioned below. In addition, the guide partition wall 42 may have a predetermined thickness. At this time, the thickness of the guide partition wall is not particularly limited. As illustrated in FIG. 10, the guide partition wall 42 may have a rectangular plate shape, but is not limited thereto. 10 to 12, the horizontal guide 41 may have a plate shape having a predetermined thickness. At this time, the center of the horizontal guide 41 is an empty space in the direction of the rotation axis (15). The shape of the empty space of the horizontal guide 41 has a shape corresponding to the fluid inlet. That is, if the shape of the fluid inlet is a circular or polygonal shape, the shape of the empty space of the horizontal guide 41 becomes a circular or polygonal shape correspondingly. This is because the horizontal guide 41 extends radially with respect to the longitudinal direction of the rotation axis 15 at the edge of the fluid inlet. Due to the repeated structure of the horizontal guide 41 and the guide partition wall 42, the wind collecting structure 40 is formed along the side of the wind collecting structure (40). The wind drawn into the wind attraction hole 43 is guided in the direction of the rotation axis 15 due to the directionality of the guide partition wall 42. At this time, the wind guided in the direction of the rotation axis 15 is changed in direction along the space formed between the plurality of horizontal guides (41). 10 illustrates the direction of the wind flowing into the wind attraction hole 43 through reference numeral 45. Since the guide partition 42 faces the rotation axis 15, the vertical cross-sectional area of the wind attraction hole 43 becomes smaller as it approaches the rotation axis 15. Accordingly, the Venturi effect is applied to the wind moving in the wind attraction hole 43. As a result, the wind guided to the wind attraction hole 43 is increased while moving, and finally, the power generation efficiency is increased.

Wind direction conversion wind generator 10 according to the present invention may further include a wind collecting structure support (50). Referring to FIG. 10, the wind collecting structure 40 is supported and fixed by the wind collecting structure support 50. The wind collecting structure support part 50 may include a support part 51 and a vertical support part 52. The supporting part 51 is horizontally mounted on the support frame 60. The vertical support 52 extends perpendicularly to the base 51. The shape of the support 51 and the vertical support 52 shown in Figure 10 is only one embodiment of the present invention, if the structure that can be spaced apart from the wind collecting structure 40 to the support frame 60 There is no limitation in the shape.

As shown in Figure 2 to 5, the wind direction wind generator 10 according to the present invention may further include a support frame (60). The support frame 60 may include a support plate 61 and a support leg 62. The support frame 60 performs a function of supporting the wind collecting structure support 50. The support leg 62 is plural, and the support leg 62 separates the structures mounted on the support plate 61 from the support surface (for example, the ground, the deck of the ship, the sea surface of the sea, etc.) in the vertical upward direction. Perform the function. The wind collecting structure support part 50 is mounted on an upper portion of the support plate 61 fixed to the support leg 62. The support leg 62 may be cylindrical or polygonal pillar shaped. The support plate 61 may have a plate shape having a predetermined thickness. 2 to 5 is only one example of the present invention, the support frame 60 may be a concrete structure. When the support frame 60 is a concrete structure, a space for storing a power generation facility may be provided therein.

Although not shown in the figure, a barrier film having a grid shape may be installed in a vertical cross section of the wind attraction hole 43. The blocking film serves to prevent the blade 21 from being damaged by blocking the flying object due to the strong wind or the strong wind from flowing into the wind induction hole 43.

13 to 15 is a view showing the shape of the guide partition wall according to another embodiment of the present invention.

As shown in FIGS. 10 to 12, the guide partition wall 42 may have a straight shape toward the rotation axis 15, but as shown in FIGS. 13 to 15, the rotation axis forms a curve. It may have directivity in the (15) direction. According to the present embodiment, the wind guided to the wind induction hole 43 can be expected a stronger Venturi effect because the cross-sectional area of the wind is dramatically reduced due to the above-mentioned curve shape.

16 to 22 are perspective views showing the structure of the wind direction wind turbine according to another embodiment of the present invention.

In describing the present embodiment, components having the same function and structure as those shown in FIGS. 2 to 15 will be denoted by the same reference numerals, and the descriptions thereof will be omitted but may be equally applied to the present embodiment. It is self-evident.

Referring to FIG. 16, the wind power generator 110 includes a rotor 115 and a generator 115 configured to generate electricity by receiving rotational force generated from the rotor 115. The rotor 115 may include a plurality of blades 111, a hub portion 112 to which the blades 111 are fixed, and a rotor shaft (not shown, in FIG. 16, blades 111 and hub portion 112) to receive rotational force of the hub portion 112. Hidden)). The matters related to the wind power generator 110 including the above configuration are already known configurations and will be omitted by those skilled in the art.

Referring to FIG. 17, two or more wind generators 110 are located, and rotor shafts of two or more wind generators 110 are coaxially positioned, and each wind generator 110 is spaced apart at a predetermined interval. Although not shown in the drawing, the wind direction converting wind turbine 10 further includes a fixed frame (not shown) for arranging the plurality of wind turbines 110 as shown in FIG. 17. The fixed frame is not limited in form as long as it is a structure in which the plurality of wind generators 110 can be arranged as described above. For example, the fixed frame is a structure having a skeleton composed of a multi-layer, the support piece extending from the structure is connected to the non-rotating component (for example, the generator 115) of the wind power generator 110 is connected to the wind power generator ( 110 may be fixed. Alternatively, the fixed frame may have a multi-layer shelf structure, and the wind generator 110 may be mounted on each of the shelves.

As illustrated in FIGS. 18 to 21, each of the plurality of wind direction conversion guides 31 is spaced apart at regular intervals along the guide central axis direction. At this time, the rotor shaft and the guide central axis of the plurality of wind power generators 110 are coaxial. The number of the plurality of wind direction conversion guide 21 is one more than the number of the wind turbine 110. That is, if the number of the wind power generator 110 is m, the wind direction conversion guide 21 is m + 1. The wind turning structure 30 may further include one or more guide panels 33. The wind direction conversion guide support part 32 supports and fixes the wind direction change guide 31. Description of the wind direction conversion structure 30 and the wind direction conversion guide support 32 is as described above will be omitted. As illustrated in FIGS. 18 and 22, the wind direction conversion guide 31 may be disposed to surround the wind power generator 110. At this time, the wind flowing in and out through the space existing between the plurality of wind direction conversion guide 31 rotates the blade 111, thereby generating power.

Although not shown in the drawings, according to another embodiment of the present invention, the fluid inlet of the wind direction conversion guide 31 may be lower than the fluid outlet of the wind direction guide 31. That is, the wind collecting structure according to the present embodiment has a shape in which the top and bottom of the wind collecting structure 40 illustrated in FIG. 5 are inverted. According to the present embodiment, the wind introduced between the plurality of wind direction changing guides 31 creates an upward air flow.

Preferred embodiments of the present invention described above are disclosed for purposes of illustration, and those skilled in the art will be able to make various modifications, changes, and additions within the spirit and scope of the present invention. Additions should be considered to be within the scope of the following claims.

10: wind direction wind generator
15: axis of rotation
20: blade structure
21: blade
30: wind direction conversion structure
31: Wind direction conversion guide
32: wind direction conversion guide support
40: windbreak structure
41: horizontal guide
42: guide bulkhead
43: wind manned hall
50: wind collecting structure support
51: support
52: vertical support
60: support frame

Claims (6)

A rotating shaft;
A blade structure including a plurality of blades connected radially with respect to the longitudinal direction of the rotation axis;
A wind direction converting structure for changing the wind direction of the wind blowing horizontally to guide the plurality of blades; And
Including a generator for generating electricity by receiving a rotational force from the rotating shaft,
The wind direction converting structure includes a plurality of funnel-shaped wind direction conversion guides having a cross-sectional area of the fluid inlet larger than the cross-sectional area of the fluid outlet and having a curved side, and a virtual straight line connecting the center of the fluid inlet to the center of the fluid outlet. A guide central axis is coaxial with the rotation axis, and each of the plurality of wind direction conversion guide wind direction conversion wind generator, characterized in that spaced apart at regular intervals along the direction of the guide center axis.
delete The method of claim 1,
And the plurality of wind direction conversion guides are disposed to surround the blade structure.
The method of claim 1,
The wind direction converting structure is located in a space formed between the plurality of wind direction conversion guide, the wind direction wind generator further comprises a guide panel for connecting the outer side and the inner side of the different wind direction conversion guide.
The method of claim 1,
Further comprising a wind collecting structure for guiding the horizontally blowing wind in the direction of the guide axis,
The wind collecting structure,
A horizontal guide extending radially with respect to the longitudinal direction of the guide central axis at the edge of the fluid inlet; And a guide partition disposed between the horizontal guides and having a direction in the direction of the guide central axis.
The method of claim 1,
The guide partition wall has a direction to the direction of the guide central axis while forming a curve (curve) characterized in that the wind turning wind generator.

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