KR101226937B1 - Modularized blade wind generation system - Google Patents

Abstract

In the blade modular wind power generation system of the present invention, a blade piece is formed in a semi-circular shape as a whole, and several blade pieces are combined to form a blade segment, and blade blades are uniformly stacked in consideration of gap angles. The present invention relates to a wind power generation system that forms a blade module, and assembles and combines the formed blade module as necessary to complete the entire system.
The present invention is a semi-circular shape as a whole to accommodate the power generation medium from the outside having a certain thickness, the shaft coupling portion is divided into a conformal ring shape at one end to be coupled to the central shaft axis, the other end By preparing a predetermined number of blade pieces in which the busbar pieces are formed in a concave shape so as to face in the same direction as the semi-circular ring shape, each of the axial coupling portions are combined to form blade segments, and the formed blade segments are laminated by a predetermined height. A blade forming a blade module and combining the formed blade module with at least one blade; A booster formed on the outside of the blade and formed together with the blade through the lamination of the blade segment in a bone shape; A shaft shaft supported in a rotatable state for power generation of the wind power generation system, the shaft shaft being formed in a pillar-shaped shaft to rotate by an external rotational force; A power generation module positioned on an extension line of the shaft shaft to generate power by receiving rotational driving force of the shaft shaft; .
Therefore, the present invention, by adopting a structure for increasing the rotational acceleration, such as blade shape, booster addition to increase the power generation efficiency of the wind power generation system, provides an effect of performing a low cost environmentally friendly and very efficient wind power generation.

Description

Modularized blade wind generation system

The present invention relates to a wind power generation system having a buster, and to prepare a blade piece in the form of a semi-circular ring as a whole, to form a blade segment by combining several blade pieces, the blade segment is fixed in consideration of the angle to be twisted It is possible to install blade modules of various sizes by assembling them, and assembling and combining the formed blade modules as many as necessary to complete the entire system, so that it is relatively convenient to install not only large but also small and medium sized wind power generation systems. The present invention relates to a blade modular wind power generation system that can increase the efficiency of operation and operation management.

In addition, this patent application is registered in the Republic of Korea Patent No. 936503 (Invention: Segment Twisting Wind Power Generation System with Booster Blade, Registered on Jan. 5, 2010) registered by the applicant and the Republic of Korea which is filed by the applicant As related to the patent application No. 2009-60378 (name of the invention: blade type wind power generation system having a booster blade, filed on 2009.7.2), it is to improve the power generation efficiency and to further improve the developed technology, and the present invention Since many of the contents of the previously filed technology will be described with reference to the previously filed content.

As a new energy source that can replace fossil fuels such as petroleum, there are many new energy sources for humans to pursue, including solar energy, wind energy, artificial sun, hydrogen energy, sea water energy, and bio energy. Among them, like other energy sources, wind power is a new energy source of the future that is attracting attention due to its eco-friendliness and renewables.

Wind power is a natural source of pollution-free energy. It is the current generation technology that is the most economical energy source among the alternative energy sources. It is a generation technology that directly supplies the power generated by converting the wind power to rotational power to the power system or the consumer. In other words, it generates electricity through the energy conversion process of wind power, and the produced power can be consumed by home, industrial, etc., or sold by reversing power to KEPCO. If such wind power is used, the land use efficiency can be improved by utilizing the sites such as mountains, coastal backcountry, and embankments. In particular, Korea has a long coastline and has favorable conditions for wind power generation.

The conventional technology related to wind power is the Republic of Korea Patent No. 308339 has a wing of the wind power generator improved the shape of the blade, Figure 35 is a view of the Republic of Korea Patent No. 308339 'wing of the wind power generator'.

As shown in the figure, the wing of the wind turbine is installed such that at least three or more horizontal shafts 11 are radially freely rotatable about the support shaft 10, and can rotate the wings that are arcuately curved on each horizontal axis. The planetary gear 15, which is rotated about the support shaft at the inner end of each of the blades coupled to the horizontal axis, and rotates about the support shaft at the upper part of the wing. By installing a disk-shaped connecting gear 16 having a gear tooth meshing with the planetary gear, the variable angle of one wing is transmitted to the other wing to have the same displacement angle.

This is because the wing of the conventional wind turbine is fixed, if a strong wind such as a typhoon is broken or damaged wing or support, and if you reduce the size of the wing to prevent this, the wind is less windy By improving the shortcomings, the angle changes depending on the strength of the wind, so that the wind gets more and more wind when it is a breeze, and when the wind is strong, it receives less wind resistance. There is an advantage.

Another conventional technology related to wind power is the Republic of Korea Patent Publication No. 10-2004-24956 'power transmission structure of Savonius wing and vertical axis wind power generation system', Figure 36 is the Republic of Korea Patent Publication No. 10-2004 2004-24956 shows the power transmission structure of Savonius wing and vertical axis wind power generation system.

Such a conventional 'small wind turbine equipped with a cylindrical blade' is a vertical axis wind power generation for increasing the rotational speed of the savonius blade used in the vertical axis wind power generation system using the drag of the wind as shown in FIG. The power transmission structure of the system, a pair of end plates located on the upper and lower sides, at least one blade installed between the pair of end plates subjected to wind drag, and a power transmission device provided on the circumferential surface of the end plate It provides a power transmission structure of the savonius wing and the vertical axis wind power generation system using the same, characterized in that it is made to increase the power generation efficiency of the generator and is a vertical axis wind power generation system with excellent adaptability to low wind speed.

Another conventional technology related to wind power is the German patent application DE3928538, Figure 37 is a view showing the wind power generator of the German patent application DE3928538.

As shown in the drawing, the wind power generator of DE3928538 is a continuous guide file of a conductive body (one path for transmitting electricity) for the main purpose of transferring current from the solar panels formed in the wind power generator itself. It is composed of a shape that reduces the blind spots of individual curved bodies and improves efficiency.

Although the conventional systems or devices for wind power generation adopt a new structure and configuration to increase the efficiency of wind power generation, there are many problems in its own way.

First, the Republic of Korea Patent No. 308339 'wing of the wind power generator' technology is configured such that the horizontal shaft 11 is rotated in accordance with the operation of the connecting gear 16 and the planetary gear 15, but in large, such as power transmission, self weight Due to the complex configuration, there are many difficulties in performing wind power generation.

In addition, the Republic of Korea Patent Publication No. 10-2004-24956 'power transmission structure of Savonius wing and vertical axis wind power generation system' is also installed between the pair of end plates located on the upper and lower sides, and the pair of end plates It is formed in a structure that can receive the drag of the wind, it is difficult to increase the desired rotational power.

Lastly, the wind power generator of German patent application DE3928538, which is formed in the form of mounting solar cells on the entire blade, is used to maintain the electric flow, and the production process of the wind power generation system is difficult and the productivity is lowered. The process of combining the blades is difficult, and there are problems such as a commercialization process.

In addition, it is possible to generate power regardless of the direction and strength of wind in facilities, devices, and systems for wind power generation, and technologies that can increase the efficiency of wind power generation from large power plant facilities to small sizes are urgently required. It is true.

Therefore, an object of the present invention for solving the above-mentioned problems, having a certain thickness and has a semi-circular blade-shaped body (10B) as a whole to accommodate the power generation medium from the outside in the assembled state, the central shaft shaft ( In order to engage with the 130, the shaft coupling portion 10A is formed at one end of one blade piece 10 in an isometric ring shape, and the coupling portion piece 10Ac of the shaft coupling portion 10A is formed on the shaft shaft shaft. A blade segment is formed by engaging with the engaging portion of another axially coupled axial engagement portion about 130, and the busta piece 10C is formed in a concave shape so as to face in the same direction as the semi-circular shape at the other end. In addition, the present invention provides a blade piece of a blade modular wind power generation system.

And another object of the present invention, having a certain thickness and has a semi-circular shape as a whole to accommodate the power generation medium from the outside, the shaft coupling portion is divided into a conformal ring shape at one end to be coupled to the central shaft axis To prepare a predetermined number of blade pieces formed in the concave shape so that the other side end in the same direction as the semi-circular ring shape in the other end, by combining the respective axial coupling portion to form a blade segment, the formed blade segment Forming a blade module by stacking the blade module by a predetermined height and forming the blade module by combining at least one blade module; A booster formed on the outside of the blade and formed together with the blade through the lamination of the blade segment in a bone shape; A shaft shaft supported in a rotatable state for power generation of the wind power generation system, the shaft shaft being formed in a pillar-shaped shaft to rotate by an external rotational force; A power generation module positioned on an extension line of the shaft shaft to generate power by receiving rotational driving force of the shaft shaft; To provide a blade modular wind power generation system comprising.

In the blade piece of the blade modular wind power generation system of the present invention, the blade piece body of the blade piece body in order to increase the rotational force by the power generation medium received from the outside to the surface of the blade piece body of the semi-circular shape, At least one auxiliary booster piece which is bent outwardly from the center to form a concave shape; The auxiliary booster is preferably formed at one or more necessary points on at least one side of the inner side and the outer side of the semi-circular shape to the blade piece body surface.

In addition, in the blade piece of the blade modular wind power generation system of the present invention, the blade piece is formed in a shape that the upper portion is coupled to the blade piece body protruding from the blade piece body to receive the power generation medium from the outside to rotate and pressurized A rotary pressing stage is included; The blade piece body and the busta piece may be formed to be angled or inclined by forming one or more of them to be angled or inclined.

In addition, in the blade piece of the blade modular wind power generation system of the present invention, the blade piece body is formed into a shape to be completed when the other blade piece on the top of the blade piece body and the blade piece body that is connected to the bus piece piece when combined with another blade piece. At least one assembly groove is formed to adjust the coupling angle for the coupling, and another assembly groove for coupling to the assembly groove is formed on the opposite side where the assembly groove is formed; It is preferable that the blade piece body further includes a reinforcing bar supporting and reinforcing between the shaft shaft direction of the center and the shaft shaft direction portion outside the busta piece in order to increase the rigidity of the blade piece body.

In addition, the blade modular wind power generation system of the present invention, it is possible to further comprise a membrane plate formed in the panel form to prevent any one or more of the upper and lower increments of the blade.

In addition, in the blade modular wind power generation system of the present invention, the blade is directly coupled to form an upright form without changing the coupling angle when the blade piece of the upper layer and the blade piece of the lower layer; When combined with the blade piece of the upper layer and the blade piece of the lower layer by engaging so as to deviate from each other at a predetermined angle is formed in a twisted shape as a whole; When the upper blade piece and the lower blade piece are combined, the lower blade piece protrudes more than the blade piece of the upper layer into the inner bone shape, and the wind blown to the upper surface of the protruding lower blade piece is hit by a rotational pressure. It is possible to assemble to form a stage.

In the blade modular wind power generation system of the present invention, the power generation module is configured to include a plurality of generators having a constant power generation capacity; Each of the plurality of generators included is configured to act as a power generation load by configuring the additional operation if it exceeds the allowable power generation range; The amount of power generation beyond the input allowable range of the configuration for receiving the output from the power generation module may include a dump load to flow out of the blade modular wind power generation system.

By such a configuration, the blade modular wind power generation system of the present invention can be installed at a required angle without limitation, including vertical and horizontal angles.

In addition, in the present blade modular wind power generation system, when at least two blade modular wind power generation systems are installed at a predetermined interval, the supporter device is coupled to and supported between shaft shafts of the respective blade modular wind power generation systems. It is possible to further configure.

The supporter device includes: a supporter fixing body configured to couple to support an upper end of a shaft shaft of the at least two blade modular wind power generation systems to be installed; One end is coupled to one supporter stationary body and the other end is coupled to the other supporter stationary body is preferably configured to include a supporter bar for supporting between the supporter stationary body.

In addition, the blade modular wind power generation system according to the present invention and the detailed description of each of the components in the blade piece thereof, it is possible to provide such a configuration and the technical information, respectively, individually or in combination with each other.

Accordingly, the present invention provides the following important effects.

The present invention adopts a structure for increasing the rotational acceleration, such as blade form, booster addition to increase the power generation efficiency of the wind power generation system.

In addition, it takes a structure that is laminated through blade pieces or blade segments, and at the same time introduces the concept of modularity to provide ease of installation, repair and management.

In addition, it can be installed at the desired shape and angle without limiting the installation direction such as horizontal, vertical or oblique, thereby increasing the efficiency of space utilization.

In addition, the present invention can be installed regardless of the location, it is expected to receive the spotlight because it is possible to perform low-cost, eco-friendly and very efficient wind power generation, economical development.

1 is a view for explaining a blade piece of the blade modular wind power generation system according to an embodiment of the present invention.
Figure 2 is a view for explaining the size and shape of the blade piece of Figure 1 modular modular wind power generation system.
Figure 3 is a view showing the kind of busta pieces for the blade piece of Figure 1 modular modular wind power generation system.
Figure 4 is a view for explaining the reinforcement for the blade piece of the blade modular wind power generation system of Figure 1;
5 is a view showing a blade modular wind power generation system according to an embodiment of the present invention.
Figure 6 is a view for explaining the coupling process of the blade piece for Figure 5 modular modular wind power generation system.
Figure 7 is a view for explaining the angle adjustment process when assembling and combining the blade modular wind power generation system of Figure 5;
8 is a view for explaining the characteristics of the bonding process for the blade piece in FIG.
9 is a view for explaining the blade plate of the blade for the blade modular wind power generation system of FIG.
10 is a view for explaining the upright blade of the blade modular wind power generation system of FIG.
11 is a view for explaining the surface formation form of the blade modular wind power generation system of FIG.
FIG. 12 is a view illustrating a form in which an auxiliary booster is further changed to a blade of the blade modular wind power generation system of FIG. 5. FIG.
FIG. 13 is a view for explaining various modification forms for the blades of the blade modular wind power generation system of FIG. 5; FIG.
FIG. 14 is a view of the major parts of the FIG. 5 blade modular wind power system. FIG.
15 is a view for explaining the structural robustness for the blade modular wind power generation system of FIG.
16 is a view for explaining the convenience of repair in the blade modular wind power generation system of FIG.
17 is a view showing a blade modular wind power generation system according to an embodiment of the present invention for comparison with a propeller type wind power generation system.
18 is a view for explaining the action of the wind in the blade modular wind power generation system of FIG.
19 is a view for explaining the operation of the auxiliary booster in the blade modular wind power generation system of FIG.
20 is a view for explaining the flow of wind in the wind bone formed in the blade modular wind power generation system of FIG.
21 is a view for explaining that the rotational efficiency is increased through the wind flow formed in the blade modular wind power generation system of FIG.
22 is a plan view for explaining the operation of the overall wind in the blade modular wind power generation system of FIG.
23 is a view for explaining the action of the wind according to the altitude for the blade modular wind power generation system of FIG.
24 is a view for explaining the wind power generation efficiency in the vertical installation structure of the blade modular wind power generation system of FIG.
25 is a view for explaining the wind power generation efficiency in the horizontal installation structure of the blade modular wind power generation system of FIG.
26 is a view for explaining the installation form of the cylinder structure for the blade modular wind power generation system of FIG.
FIG. 27 is a view for explaining a vertical installation form of the blade modular wind power generation system of FIG. 5; FIG.
FIG. 28 is a view for explaining a horizontal installation form of the blade modular wind power generation system of FIG.
29 is a view showing a vertical installation example of the blade modular wind power generation system of FIG.
30 is a view for explaining the support structure for the grouping installation case of the blade modular wind power generation system of FIG.
31 to 34 is a view for explaining an example in which the blade modular wind power generation system 5 is installed.
35 is a view of the Republic of Korea Patent No. 308339 'wing of the wind power generator'.
36 is a view illustrating a power transmission structure of Savonius wing and vertical axis wind power generation system in Korean Patent Laid-Open Publication No. 10-2004-24956.

Hereinafter, with reference to the drawings will be described in detail the blade modular wind power generation system and the blade piece thereof.

1 is a view for explaining a blade piece of the blade modular wind power generation system according to an embodiment of the present invention, Figure 2 is a view for explaining the size and shape of the blade piece of the blade modular wind power generation system of FIG.

And Figure 3 is a view showing the kind of busta pieces for the blade piece of the blade modular wind power generation system of Figure 1, Figure 4 is a view for explaining the reinforcement for the blade piece of the blade modular wind power generation system of Figure 1;

As shown, the blade piece 10 of the blade modular wind power generation system according to an embodiment of the present invention is a component or part of a power generation system for generating power, and has a predetermined thickness and generates power from the outside in an assembled state. Has a blade-like body (10B) of semi-circular ring shape to accommodate the overall, shaft coupling portion (10A) is formed at one end is divided into a conformal ring shape to be coupled to the central shaft shaft 130, the other end The busta piece 10C is formed in a concave shape so as to face in the same direction as the semi-circular ring shape.

The blade piece 10 of this embodiment can be manufactured in various forms and is not limited to the form. However, as shown in FIG. 2, the diameter 10Cd of the busta piece 10C is designed to be about 1/3 of the diameter 10d of the blade piece 10, and the diameter 10Dd of the auxiliary booster 10D is Designed to be less than 2/3 of the diameter (10Cd) of the booth piece (10C), E grade (stability) or F grade (very stable) of atmospheric stability (Pasquill, 1961), altitude of 10m above ground, and wind speed of 6m / Second, when the average annual temperature difference is calculated based on the 30 degrees, the results of the experiment showed that the efficiency of the rotational power can be maximized.

In addition, as will be described later, the blade modular wind power generation system 100 to be formed in accordance with the present embodiment, in consideration of the average wind speed and annual average temperature difference, atmospheric stability, wind direction, etc. of the place to be installed, blade piece 10 and booth piece It is important and preferable to increase or decrease the diameter of (10C).

In addition, in the blade piece 10, the busta piece 10C can be formed in a variety of forms as shown in Figure 3, which is the Republic of Korea Patent Application No. 2009-60378 filed by the applicant It is also described in the issue (filed July 7, 2009), but again.

As described above, in the blade piece 10 of the present embodiment, the busta piece 10C receives the wind blowing to the outer circumference of the blade modularized wind power generation system 100 to be formed to perform a function of increasing the rotational force of the wind power generation. It is a component.

First, the crescent moon-shaped busta piece 10C as shown in (A) is the most generally conceivable busta piece 10C shape, and the center is concavely recessed like a crescent moon. Next, (B) is the same concept as (A) but its shape is 'c' shape, and (C) shape is a busta piece (10C) having a flat shape, which is located at the end of the outer periphery of rotation. This busta piece (10C) is to receive a stronger wind to generate a force, a case similar to the arrow.

And (D), (E), (F) shape is a busta piece (10C) of the structure structured to receive the lift, using the general principle of lift generation that does not bend or bent but has a central bulge In this case, one side is elliptical and shows an example of applying an airfoil structure that is tapered toward the opposite end. Therefore, according to the above principle (D) has the shape of the airfoil (airfoil) structure and is formed along the curved surface of the blade piece body (10B), (E) also has the shape of the airfoil structure and the blade piece body ( In the form of an angle with respect to 10B), (F) is structured in the form of a circle, respectively, and the busta piece 10C is formed.

In addition to the blade piece 10, it is possible to form a buster piece 10C of various forms that is formed at the outer edge end portion of the blade piece body 10B to increase the rotational force.

In addition, the blade piece body 10B of the blade piece 10 is a blade piece in order to increase the rotational force by the power generation medium received from the outside to the surface of the blade piece body 10B of the semi-circular shape, as shown It is possible to add at least one auxiliary booster piece 10D that is curved outward from the center of the body 10B to form a concave shape. In addition, such an auxiliary booster piece 10D is formed at one or more necessary points on at least one side of the inner and outer sides of the semi-circular shape to the surface of the blade piece body 10B.

Referring again to FIG. 1, the blade piece 10 of the present embodiment forms a rotary pressing end 10E in such a manner that an upper portion coupled to the blade piece body 10B protrudes from the blade piece body 10B. The rotary pressurization stage 10E receives the power generation medium from the outside and performs rotational pressure. As will be described later, this contributes to increasing the wind power generation by increasing the rotational efficiency of the blade modular wind power generation system (100).

In the blade modular wind power generation system 100 of the present embodiment, the blade piece body 10B is a bus blade piece 10C and another blade piece 10 on top of the blade piece body 10B that is connected to the boot piece piece 10C. When combined with a) is formed a plurality of assembly grooves (10H) for adjusting the angle of coupling to form a shape to be completed. The plurality of assembly grooves 10H may be divided into a main assembly groove 10Ha and an auxiliary assembly groove 10Hb. In the present embodiment, as shown, one main assembly groove 10Ha and a plurality of auxiliary assembly grooves ( 10Hb) is formed.

As will be described in detail later, the main assembly groove (10Ha) and the auxiliary assembly groove (10Hb) provides a foundation on which the blade 110 of the present blade modular wind power generation system 100 can be formed in a twisted shape.

In addition, the blade piece 10 can be reduced in cost by mass production by injection by a mold. In addition, it can be manufactured by injection molding such as automobile bumper, and when it is made of polypropylene (PP) material, it can be about 2kg in length and 50cm in height and weighs about 5kg. Can increase.

In addition, the blade piece 10 in order to reinforce the strength of the large blade is injected and to increase the rigidity of the blade piece body (10B), the shaft shaft 130 in the center and the shaft shaft 130 in the busta piece (10C) direction It is possible to further configure the reinforcing rod (10S) to support the reinforcement between the parts, it is possible to manufacture a solid by coating the outside of the blade piece 10 with fiber glass (fiber glass).

5 is a view showing a blade modular wind power generation system according to an embodiment of the present invention.

In addition, Figure 6 is a view for explaining the coupling process of the blade piece for Figure 5 blade modular wind power generation system, Figure 7 is a view for explaining the angle adjustment process in the assembly coupling of Figure 5 blade modular wind power generation system.

In addition, Figure 8 is a view for explaining the characteristics of the coupling process for the blade piece of Figure 7, Figure 9 is a view for explaining the blade plate of the blade for the blade modular wind power generation system of Figure 5;

10 is a view for explaining the upright blade of the blade modular wind power generation system of FIG.

As shown, the blade modular wind power generation system 100 according to the present embodiment may be broadly classified into a blade 110, a booster 120, a shaft shaft 130, and a power generation module 140.

One of the important contents of the blade modular wind power generation system 100 of the present embodiment is that the blade 110 can be modularized and configured, and according to the configuration and assembling of such modularization, characteristics and effects different from those of conventional wind power generation can be achieved. Indicates.

The modularization concept of the blade 110 is to form the blade 110 of the present blade modular wind power generation system 100, the blade segment (110s) formed by the blade piece 10 is combined to a certain height as necessary. . That is, the blade module 110m may be formed by assembling and combining several blade segments 110s, or may be formed by assembling and combining dozens or hundreds of blade segments 110s.

First, as described above, the blade 110 has a predetermined thickness and has a semi-circular shape as a whole to receive a power generation medium from the outside, and is divided into a conformal shape at one end to be coupled to the central shaft shaft 130. 10 A of axial coupling parts are formed, and the blade piece 10 in which the busbar piece 10C is formed in concave shape so that it may face in the same direction as a semi-circle shape at the other end may be 2 pieces in this embodiment. It is formed by using. The shaft segments 10A of each of the blade pieces 10 are combined to form blade segments 110s, and the blade segments 110s thus formed are stacked by a predetermined height to form a blade module 110m and such blades. At least one module 110m is combined to form the blade 110.

In addition, in the blade modular wind power generation system 100 of the present embodiment, the rotary booster 120 is padded outside the blade 110 and formed together with the blade 110 through the lamination of the blade segments 110s in a bone shape. It is a component part.

In addition, the shaft shaft 130 is supported in a rotatable state for the power generation of the present blade modular wind power generation system 100, is formed in the form of a pillar-shaped shaft to rotate by an external rotational force.

And the power generation module 140 is located on the extension line of the shaft axis 130 is a component that generates power by receiving the rotational driving force of the shaft axis (130).

It is necessary to prepare each component for the configuration of the blade modular wind power generation system 100 according to the present embodiment, but it is particularly important to prepare the blade 110 well according to the wind power to be performed.

For the blade 110 of the present embodiment, first, it is important to determine how many blade pieces 10s to form the blade segment 110s. As shown, in the blade modular wind power generation system 100, one blade segment 110s may be formed by assembling and combining two blade pieces 10, and the blade pieces 10 may be three or four, or the same. One blade segment 110s may be formed as described above. What is important is to form the blade segment (110s) in what form can be good for the installation environment according to the efficiency of wind power or the situation. The shape of the blade segment 110s is preferably taken into consideration of the overall situation of the blade modularized wind power generation system 100 to be completed, and here, the two blade pieces 10 are assembled by being engaged with each other in the blade segment 110s. Forming, and will be described based on the process of forming the blade 110 by modularizing the formed blade segment (110s).

In each case, the shaft coupling portions 10A of the blade pieces 10 are coupled to face each other to form the blade segment 110s as shown.

In addition, the assembly configuration of the blade modular wind power generation system 100 according to the present embodiment is to proceed in a manner of largely preparing each of the components separately and assembled, the blade piece 10 or the blade on the shaft shaft 130 The segments 110s may be distinguished by assembling one by one.

In addition, according to the completion form of the blade 110 can be largely divided into a twist (twist) form and an upright form.

First, the twisted blade 110 is formed in a twisted shape as a whole by combining the blade piece 10 of the upper layer and the blade piece 10 of the lower layer so as to be shifted from each other at a predetermined angle.

In this process, one blade piece 10 is combined by setting it upright in an upright form without adjusting a desired shape or angle θ, for example, the angle θ, or by adjusting it to a desired degree such as 2 degrees, 3 degrees, 4 degrees, and the like. In addition, the blade 110 may be formed by continuing the process of joining another blade piece 10 to the blade piece 10, which will be described later, but is the same as in the case of laminating and then forming the blade segment 110s.

The blade 110 of this embodiment in the assembly process, the upper blade in the inner bone shape when the upper blade piece 10 and the lower blade piece 10 is coupled by the rotary pressing stage 10E described above. The lower blade piece 10 protrudes more than the piece 10, and is forced by the wind blown into the upper surface of the protruding lower blade piece 10.

In addition, as shown in the blade modular wind power generation system 100 of the present embodiment, the membrane plate 150 is formed in a panel form to block any one or more of the upper and lower portions of the blade 110 is formed.

And in the blade modular wind power generation system 100 of the present embodiment, unlike the above-described, when the blade piece 10 of the upper layer and the lower blade piece 10 is combined, the blade 110 is straightened in an upright form without changing the coupling angle. It is also possible to form a combination, except for the shape of the blade 110 is the same as in the twist (twist) form.

Now look at the case of forming the blade segment (110s) with two blade pieces (10) first to find the actual assembly coupling process.

In this case, as shown in the figure, after joining the shaft coupling portions 10A of the two blade pieces 10, the blades are firmly coupled to the assembling grooves 10h formed in each of the two blade pieces 10 by means of screws or the like. Segments 110s are formed. The blade segment 110s can be formed by inserting the blade segments 110s formed in the shaft shaft 130 one by one, and the booster 120 is naturally formed in this process.

When inserting the blade segment 110s into the shaft shaft 130, it is important to consider the angle of twist between each blade segment 110s in consideration of the wind power generation. As described above, the adjustment of the angle is possible by appropriately controlling the insertion position of the main assembly groove 10Ha and the auxiliary assembly groove 10Hb as a plurality of assembly grooves 10H formed in the blade piece 10 of the present embodiment. .

In the present embodiment, the blade 110 may be formed while being directly stacked on the shaft shaft 130 as shown. As described above, in the case of forming one blade segment 110s with two blade pieces 10, first, the shaft shaft 130 is positioned at the center, and the engaging portion 10Ac of the one blade piece 10 is replaced with the shaft shaft ( 130, then it is possible to form the blade segment 110s by engaging the engaging portion 10Ac of the other blade piece 10 accordingly. Then, the blade segment 110s formed as described above is adjusted to a desired shape or angle again to combine one blade piece 10 and to continue the process of combining another blade piece 10 thereto, the blade 110. Can be formed.

In addition, in this embodiment, after the blade module 110m is formed, the blade 110 is coupled to the shaft shaft 130 by a desired height or width to form the blade 110. That is to modularize.

If the blade 110 to be formed in this way to modularize the blade modular wind power generation system 100, there are many advantages in operation, performance, repair, convenience and the like.

The power generation module 140 of the blade modular wind power generation system 100 may be configured to include one or more generators 140g to maximize power generation for each wind speed, as well as to effectively use the generated power. In the present embodiment is shown a blade modular wind power generation system 100 is installed three generators, this description will be described centering on this. However, in the blade modular wind power generation system 100, such a generator (140g) can be installed one or as many as desired, there is no limit to the number of installation.

For example, when three generators are installed as in this embodiment, the first generator 141g is operated to generate power until the rotational speed of the blade 110 generated at a wind speed of 6 m / sec is 15 rpm, and 16 rpm When the excess time, the first generator (141g) and the second generator (142g) by operating all three generators (141g, 142g, 143g,) from 17rpm to generate power in a small wind can be maximized. In addition, the connection control of the generator can be controlled by turning on / off the generator output terminal not only by the rotation speed of the blade 110 but also by the output voltage or current of each generator. Therefore, as described above, a plurality of generators may be provided, and such is preferable.

In addition, the power generation module 140 of the blade modular wind power generation system 100 according to the present embodiment, the amount of power generation beyond the input allowable range of the rear end components that receives the output from the power generation module 140 is the blade modular wind power generation A dump load 160 is additionally configured to flow out of the system 100, which is also a component for preparing for instantaneous overpowering. Therefore, if the output from the power generation module 140 exceeds the allowable range to some extent, the excess power flows to the outside, and the systems or devices using the output of the blade modular wind power generation system 100 are safe.

In addition, the blade modular wind power generation system 100 is a current to a certain extent, such as a fuse (fuse) to protect the power generation if more than the safety protection that can be performed in the above dump load (dump load) 160 is performed A safety cutoff device is installed to allow the flow of water. Therefore, the blade modular wind power generation system 100 can be safely maintained by making short cuts during instant gusts or severe typhoons.

FIG. 11 is a view for explaining a surface formation form of the blade modular wind power generation system of FIG. 5.

The blade modular wind power generation system 100 according to the present embodiment may vary the overall shape and state of the blade 110 and the booster 120 by forming various shapes of the first blade piece 10 in addition to the shapes described above.

That is, as shown in FIG. 11A, when the blade piece body 10B and the busta piece 10C, which are the side surfaces of the blade piece 10 of the present embodiment, are each formed at right angles, the blade 110 and the busta ( 120 is formed in the form of a step forming a right angle as shown.

Alternatively, as shown in FIG. 11B, when the blade piece body 10B and the busta piece 10C, which are side surfaces of the blade piece 10, are each formed in an inclined shape, the blade 110 and the busta ( 120 is formed with a relatively smooth surface unlike the previous step shape.

In addition, in this process, the shape of the blade piece body (10B) and the busta piece (10C) is formed to be inclined or inclined to each other or separately, it is possible to form the shape of the blade 110 and buster 120 in various forms Do.

FIG. 12 is a view illustrating a form in which an auxiliary booster is additionally changed in a blade of the blade modular wind power generation system of FIG. 5, and FIG. 13 is a view for explaining various types of changes in the blade of the blade modular wind power generation system of FIG. 5.

As shown, in the blade modular wind power generation system 100 of the present embodiment, the auxiliary booster piece 10D added to the blade piece 10 is formed on the outer side or the inner side of the blade 110 or the inner and outer sides thereof. It is possible to form a complex, in addition to the auxiliary booster piece (10D) may be formed in various forms, such as angular or square.

In addition, three, four or more blade pieces 10 may be used to form one blade segment 110s. In this case, the number of blade pieces 10 forming one blade segment 110s may be used. In accordance with this, it is important to form a shape such as a coupling part piece 10Ac of the axial coupling part 10A.

FIG. 14 is a view showing the shape of main parts of the FIG. 5 blade modular wind power generation system.

In addition, Figure 15 is a view for explaining the structural robustness of the blade modular wind power generation system of Figure 5, Figure 16 is a view for explaining the convenience of repair in the blade modular wind power generation system of FIG.

As shown in Figure 14, the shape from the top and bottom for the blade modular wind power generation system 100 of the present embodiment has a snail-like shape, it can be seen more clearly from the side. In addition, the shape of the strabismus seen from the top and bottom is as aesthetic as well as the efficiency of power generation.

In addition, the blade modular wind power generation system 100 of the present embodiment, as shown in Figure 15, because each of the blade pieces 10 or blade segments (110s) structurally support each other while supporting, blade modular wind power generation system ( 100) Its bending and deflexion is greatly reduced, so it is excellent in rigidity, and it has the effect of reducing the overall weight while making a solid design.

In addition, as shown in Figure 16, the blade modular wind power generation system 100 of the present embodiment can separate the blade piece 10 or the blade segment 110s at a specific position in the middle, it is convenient to repair or manage.

17 is a view showing a blade modular wind power generation system according to an embodiment of the present invention for comparison with a propeller type wind power generation system.

In addition, FIG. 18 is a view for explaining the action of the wind in the blade modular wind power generation system of Figure 5, Figure 19 is a view for explaining the action of the auxiliary booster in the blade modular wind power generation system of FIG.

In addition, FIG. 20 is a view for explaining the flow of wind in the wind bone formed in the blade modular wind power generation system of Figure 5, Figure 21 is a rotational efficiency through the wind bone flow formed in the blade modular wind power generation system of Figure 5 22 is a plan view for explaining the overall operation of the wind in the blade modular wind power generation system of FIG.

As shown in FIG. 17 (A), a propeller type wind power generator, which is a typical HAWT (horizontal structure) type of conventional wind power generation, concentrates all loads on a central axis of a rotating body, and thus generates a generator at a wind speed of 25 m / sec or more. CUT OFF, but the blade modular wind power generation system 100 of the present embodiment can be designed to generate up to 45m / sec, because the load applied to the main braid is distributed long throughout the system.

In addition, as shown in (B), the blade modular wind power generation system 100 is evaluated to have less noise (sound pollution) than the conventional propeller type wind power generator (A), which is also proved by calculation.

In other words, in the conventional propeller type wind turbine producing 2MW at a rated wind speed of 16m / sec, when the blade diameter is 80m, the wind hitting the propeller end will rotate at 16.7 rpm around the blade end of 80m x 3.14 = 251.2m. At this time, the impact of blade tip is about 4.37 times at 4,195m / min (251.2mx 16.7rpm) and wind speed 960 m / min (16m / sec x 60), and the collision decreases as it goes inside the blade. This is like the loud noise (top supersonic breakthrough) that occurs at the rotor end of the helicopter.

However, the blade modular wind power generation system 100 of the present embodiment, which outputs 2 MW, can also form the diameter (width) of the blade by about 7.6 m. When rotating at rpm, about 2.4 times collision occurs at 398.4m / min (23.86mx 16.7rpm) and wind speed 960m / min (16m / sec x 60) at the tip of the blade. In comparison with the conventional propeller type wind turbine, the noise is reduced to 60% or less.

In addition, these effects can be said that the components constituting the blade modular wind power generation system 100 is operated according to the overall organic structure.

As shown in FIG. 18, the wind blown into the blade modular wind power generation system 100 viewed from the outside acts on the blade piece body 10B, that is, the body and the buster 120 of the blade 110, and the auxiliary booster 125. It also works to increase power generation efficiency. The blade modular wind power generation system 100 may be formed without the auxiliary booster 125, but when the auxiliary booster 125 is formed as shown in FIG. 19B, the efficiency of power generation may be increased.

In addition, as shown in FIGS. 20 to 22, the wind blown into the blade modular wind power generation system 100 from the outside acts on the booster 120, the wind bone of the blade 110, and the auxiliary booster 125. That is, in this embodiment, the wind hit the blade 110, the shaft shaft 130 by the straightness of the wind flows downward along the spiral wind bone formed deep between the shaft shaft 130 and the booster 120. It will generate a 'wind goal effect' to increase the rotational power of the. In addition, the state of the wind flowing while acting in the wind bone 120, the blade of the blade 110, etc. can be seen more clearly through the planar diagram as shown in FIG.

In the present embodiment, the 'wind-ball effect' is a spiral bone deeply formed in the blade 110, and the wind hits the top of the blade 110 as shown by an arrow, etc. According to this, it is an effect of applying rotational power to the blade central axis.

23 is a view for explaining the action of the wind according to the altitude for the blade modular wind power generation system of FIG.

As described above, in the blade modular wind power generation system 100 of the present embodiment, the blades 110 are formed in a modular form, and in the case of vertical as well as small and medium-sized, it may be installed up to several hundred meters from the ground.

The wind speed varies depending on the altitude of the ground, so it can be divided into a range of heights to examine the development.

Looking at the power generation form in the blade modular wind power generation system 100 of the present embodiment configured for each of the three modules as shown, first, the wind speed of 17.6m / sec with respect to the third blade module (113m) of the blade 110 The wind blade acts as the second blade module 112m, and the wind speed of 15.3m / sec for the second blade module 112m acts as the first blade module 111m by riding the wind bone of the blade 110. It can be seen that, the wind speed of the upper altitude can be seen to work effectively on the lower blade module (110m).

24 is a view for explaining the wind power generation efficiency in the vertical installation structure of Figure 5 blade modular wind power generation system, Figure 25 is a view for explaining the wind power generation efficiency in a horizontal installation structure of Figure 5 blade modular wind power generation system to be.

As shown, the blade modular wind power generation system 100 of the present embodiment may be installed regardless of the direction or the axis in which it is installed, and unlike the present embodiment, it may be installed to be inclined in a special case. And as shown in each drawing with concentric circles and arrows, it is possible to perform the power generation regardless of the wind direction and even if it changes every moment, the power generation efficiency is increased.

FIG. 26 is a view for explaining an installation form of a cylinder structure for the blade modular wind power generation system of FIG. 5, FIG. 27 is a view for explaining a vertical installation form for the blade modular wind power generation system of FIG. 5, and FIG. 5 Blade Modularity It is a figure for explaining the horizontal installation form for a wind power generation system.

As illustrated in FIG. 26, the blade modular wind power generation system 100 according to the present embodiment may be formed in the form of a cylinder facility 170 to be used for installation and support of the blade modular wind power generation system 100.

In other words, it can be installed in a vertical form by raising the blade modular wind power generation system 100, which is already assembled and assembled through the cylinder facility 170, and by adding a supporting device on the opposite side and lying down at right angles using the horizontal shape. It is also possible to install. In addition, as described above, although not much, it may be installed to maintain a constant inclination angle.

In addition, the blade modular wind power generation system 100 can be installed vertically using a crane, as shown in Figure 27, it can be installed horizontally using a support post 180 as shown in FIG.

In each case, the modularized blade 110 can be transported, and thus many advantages of modularizing the blade 110 of the blade modularized wind power generation system 100 can be enjoyed, and the optimum efficiency can be increased in transport installations. have.

In the case of vertical installation as shown in FIG. 27, the crane 200 is prepared at a place to be installed, and then the lower portion of the blade modular wind power generation system 100 is prepared. In addition, the blade 110 may be assembled and prepared for each module to increase the efficiency of installation. After that, each modular module of the blade module (110m) to raise and fasten one by one, complete the installation of this blade modular wind power generation system (100).

In the case of horizontal installation as shown in FIG. 28, one or two support posts 180 are installed on both sides, and blade modules 110m are prepared and installed separately, or blade pieces are installed on the shaft shaft 130. It is possible to install in a variety of ways, such as to install (10) to be assembled and fastened one by one.

In addition to this, the blade modular wind power generation system 100 is also possible to assemble and modularize the blade piece 10 in the field to be installed and complete as a whole.

In addition, the blade modular wind power generation system 100 was able to increase the amount of power generation by about 50% or more on average by increasing the power generation efficiency by installing the booster 120 compared to conventional wind power generation facilities or devices, and up to 58% or more. It was also confirmed to increase the development.

These developments have no distinction between Vertical Axis Wind Turbine (VAWT) and Horizontal Axis Wind Turbine (HAWT), and are superior to wind power generation facilities and technologies in developed countries such as the United States. It can be said to maximize the efficiency of power generation.

FIG. 29 is a view illustrating a vertical installation example of the blade modular wind power generation system of FIG. 5, and FIG. 30 is a view for explaining a supporting structure for a grouping installation case of the blade modular wind power generation system of FIG. 5.

As illustrated in FIG. 29, the blade modular wind power generation system 100 according to the present embodiment may form the blade modular wind power generation system 100 in various forms according to the angle adjustment or the shape of the blade piece 10 in addition to the above-described form. .

In addition, the blade modular wind power generation system 100 of the present embodiment may be installed in a form of supporting each other in a state spaced at regular intervals.

As shown in FIG. 30, at least two or more of the three blade modular wind power generation system as in this embodiment, for example, when installed to be spaced apart to some extent and to support each other, each blade modularization installed It is preferable to install a supporter device 190 supporting each other in a state in which the shaft shaft 130 of the wind power generation system 100 is coupled to each other.

The supporter device 190 may be divided into a supporter fixing body 191 and a supporter bar 192.

First, the supporter fixing body 191 is coupled to support the upper end of the shaft shaft 130 of the at least two blade modular wind power generation system 100 is installed. And the supporter bar 192 is one end is coupled to one supporter stationary body 191 as shown as a component for supporting between the supporter fixture 191 and the other end is opposite to the other supporter fixture 191 It is formed to be coupled and fixed.

In the wind power generation system of about 3MW class of the present embodiment, it is preferable to design a robust structure that can withstand winds of 70 m / sec, and through the supporter device 190, the blade modular wind power generation system 100 is 70 m / s. It is more robust to turbulence, extreme gusts, extreme wind changes, and extreme wind speeds exceeding sec. In addition, the support configuration through such a supporter device 190, etc. is difficult to attempt due to a problem according to the yaw (yaw) control method in the existing floppler type.

31 to 34 are views for explaining an example in which the blade modular wind power system 5 is installed.

In addition, it can be installed in rivers, meadows, buildings, etc., as shown in FIGS. 31 to 34, and can be installed at necessary places or locations such as beaches, resorts, mountains, bridges, playgrounds, building sidewalls, and can be used to obtain power through wind power generation. Will be endless.

Finally, the present invention has been described with reference to specific embodiments, but the present invention is not limited thereto, and may be variously implemented by those skilled in the art without departing from the concept of the present invention. In addition, these various implementations will belong to the scope of the present invention.

10: blade
10A: shaft coupling section 10Ac: coupling section
10B: Blade piece body
10C: Booth Others
10D: Assistant Booster
10E: Rotary Press
10H: Assembly groove
10Ha: main assembly groove 10Hb: auxiliary assembly groove
10S: Reinforcement
100: blade modular wind power generation system
110: blade
110m, 111m, 112m, 113m: blade module
110s: blade segment
120: busta
125: auxiliary booster
130: shaft shaft
140: power generation module 140g: generator
150: board
160: dump load
170: cylinder equipment
180: support post
190: supporter device
191: supporter fixed body 192: supporter bar
200: Crane

Claims (11)

In a wind power generation system that generates power by wind power,
It has a certain thickness and has a semi-circular ring shape as a whole to receive the power generation medium from the outside, and an axial coupling portion formed in an equilateral ring shape is formed at one end to be coupled to the central shaft axis, and the semi-circular shape is formed at the other end. Blade modularization in which the busbar pieces are formed in a concave shape so as to face in the same direction, a blade piece of the wind power generation system is prepared in a predetermined number, and each of the shaft coupling parts is combined to form a blade segment, and the formed blade segment is fixed to a certain height. Forming a blade module by stacking as much as possible and combining the formed blade modules with at least one blade;
A booster formed on the outside of the blade and formed together with the blade through the lamination of the blade segment in a bone shape;
A shaft shaft supported in a rotatable state for power generation of the wind power generation system, the shaft shaft being formed in a pillar-shaped shaft to rotate by an external rotational force;
A power generation module positioned on an extension line of the shaft shaft to generate power by receiving rotational driving force of the shaft shaft;
Blade modular wind power generation system comprising a.
The method according to claim 1,
Blade modular wind turbine system, characterized in that it further comprises a membrane plate formed in the form of a panel to block any one or more of the top and bottom of the blade.
The method of claim 1, wherein the blade
Blade modular wind power generation system characterized in that to form a whole twisted shape by combining so as to shift each other at a predetermined angle when the upper blade piece and the lower blade piece are combined.
The method of claim 3, wherein the blade
When the upper blade piece and the lower blade piece are combined, the lower blade piece protrudes more than the blade piece of the upper layer into the inner bone shape, and the rotary pressing end receives the force from the wind blown to the upper surface of the protruding lower blade piece. Blade modular wind power generation system characterized in that the assembly to be formed.
The method of claim 1, wherein the blade
Blade modular wind power generation system characterized in that to form a straight coupling in an upright form without changing the coupling angle when the upper blade piece and the lower blade piece combined.
The method according to claim 1, wherein the power generation module
Blade modular wind power system, characterized in that configured to include a plurality of generators having a constant power generation capacity.
The method according to claim 6, wherein the power generation module
Blade modular wind power generation system, characterized in that the plurality of generators included to be configured to act as a power generation load by controlling the additional operation according to the wind speed.
The method according to claim 1, wherein the power generation module
Blade module modular wind power generation system, characterized in that a dump load is included to send the output of the power generation module beyond the input allowable range of the configuration to receive the blade modular wind power generation system.
The method of claim 1, wherein the blade modular wind power generation system
When the at least two blade modular wind power generation system is installed in a state spaced apart at regular intervals, characterized in that it further comprises a supporter device for supporting the coupling between the shaft shaft of each of the blade modular wind power generation system is installed Blade modular wind power generation system.
The method according to claim 9, wherein the supporter device
A supporter fixing body coupled to support the upper end of the shaft shaft of the at least two blade modular wind power generation systems to be installed;
A supporter bar having one end coupled to one supporter stationary body and supporting the other end supporter stationary body to another supporter stationary body to support therebetween;
Blade modular wind power generation system comprising a.
The method of claim 1, wherein the blade modular wind power generation system
Blade modular wind power generation system, characterized in that the installation can be installed at the required angle without limit to the angle, including vertical and horizontal.

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