JP2014020274A - Window motion energy generating device improving wind energy conversion by omnidirectional wind power source - Google Patents
Window motion energy generating device improving wind energy conversion by omnidirectional wind power source Download PDFInfo
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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- Y02E10/74—Wind turbines with rotation axis perpendicular to the wind direction
Abstract
Description
本発明は、風力運動エネルギー生成分野、特に各方向から風力を接収し、風力エネルギー変換効率を向上させるとともに、導流方式によって、最大風向きの風力を集中させ、最も有効な推力となし、風力不足或いは一時停頓時にも持続運転させ、更に付加おもりによって、回転慣性の力を増加し、運動エネルギーの生成効率を向上させる風力運動エネルギー生成装置に関する。 In the field of wind kinetic energy generation, in particular, wind power is seized from each direction to improve wind energy conversion efficiency, and the wind force in the maximum wind direction is concentrated by the current-conduction method. Alternatively, the present invention relates to a wind kinetic energy generating device that continuously operates even when temporarily stopped, and further increases the rotational inertia force by an additional weight to improve the generation efficiency of kinetic energy.
従来型風力運動エネルギー生成装置は、羽風切り面の影響、及び風力源が不安定などの要素のため、有効運動エネルギーパワーをもたらす効率が非常に低く、更に機械・電力変換設備の損耗で、その出力エネルギーはさらに残り少ないものとなる。このような状況下では、風力によって巨大なエネルギーを生成しようとすれば、一層大型の風力運動エネルギー生成装置を設置しなければならず、工事に費やされるコストは驚異的であり、加えて据え付け及び分解保守が困難である。 The conventional wind kinetic energy generator has a very low efficiency to provide effective kinetic energy power due to the influence of the wing cutting surface and the unstable wind source, and the wear of mechanical and power conversion equipment The remaining output energy is further reduced. Under these circumstances, if a large amount of energy is to be generated by wind power, a larger wind kinetic energy generator must be installed, and the cost of construction is staggering. Disassembly maintenance is difficult.
このため、本発明者は、図7と図8に示すような発明を提案した。これは、本出願人がすでに出願した「タワー式マルチ風洞効果によって、抗力羽及び垂直式揚力羽の複合式回転機構の垂直軸風力運動エネルギー生成装置」という発明で(特許文献1を参照)、従来型風力運動エネルギー生成装置5を含み、風力エネルギーを安定生成できるよう制御する機構を提供し、自然環境中の各種風力の流れ方向を有効にコントロールし、安定した風力エネルギーを集中的に生成できるようにしたものである。 For this reason, the present inventor has proposed the invention as shown in FIGS. This is an invention that the applicant of the present application has already filed "a vertical axis wind kinetic energy generating device of a combined rotating mechanism of a drag wing and a vertical lift wing by a tower type multi-wind tunnel effect" (see Patent Document 1). The conventional wind kinetic energy generation device 5 is included to provide a mechanism for controlling the generation of wind energy stably, effectively controlling the flow direction of various wind forces in the natural environment, and generating stable wind energy intensively. It is what I did.
前記従来型風力運動エネルギー生成装置5には、風向きに対して90度垂直面を保持する抗力羽51を含み、風向きがいつも前記抗力羽51の風切り面に対向するようにして、風力運動エネルギーの出力を安定させる。且つ前記抗力羽51には斜め孔52を設け、風力エネルギー負荷を抗力羽51の背面へ導き、従来型抗力羽51の生じる抗力効果を改善した。さらに前記抗力羽51の外側に揚力羽53を設け、風を受けた時、前記揚力羽53に偏圧が生じ、同様に回転推力を形成できる。なお、前記従来型風力運動エネルギー生成装置5は、風力効果を増加させるため、同等体積において最大風力エネルギー変換を取得でき、更にタワー式構築を採用することによって、すなわちタワー54を設置することによって、限りある土地面積上により多層の風力運動エネルギー生成装置を設置できる。 The conventional wind kinetic energy generating device 5 includes a drag wing 51 that holds a plane perpendicular to the wind direction by 90 degrees, so that the wind direction always faces the wind cut surface of the drag wing 51. Stabilize the output. Further, the drag wing 51 is provided with an oblique hole 52 to guide the wind energy load to the rear surface of the drag wing 51, thereby improving the drag effect produced by the conventional drag wing 51. Further, a lift wing 53 is provided outside the drag wing 51, and when receiving wind, a bias pressure is generated in the lift wing 53, and a rotational thrust can be formed similarly. The conventional wind kinetic energy generating device 5 can obtain the maximum wind energy conversion in the same volume in order to increase the wind effect, and by adopting a tower type construction, that is, by installing the tower 54, Multi-layer wind kinetic energy generators can be installed on a limited land area.
ただし、前記従来型風力運動エネルギー生成装置5は、実際に応用するとき、その構造が相当複雑なため、前記従来型抗力羽51及び前記従来型抗力羽51迎風揺動を制御する機構のほかに、回転を助ける前記揚力羽53及びホイール55などを設置してあり、制作やメンテナンスの困難且つコストアップを招くため、なお改善の余地がある。しかも、前記従来型風力運動エネルギー生成装置5は、前記タワー式構築を採用しているが、風力源の不安定を考慮して、前記タワー基台54にウォールプレート56を装着して風力源の方向をコントロールしなければならず、タワー基台の複雑さ及びコストアップを招く。 However, since the structure of the conventional wind kinetic energy generating device 5 is considerably complicated when actually applied, in addition to the mechanism of controlling the conventional drag wing 51 and the conventional drag wing 51, the wind force fluctuation of the wind. Since the lift wings 53 and the wheels 55 that assist the rotation are installed, the production and maintenance are difficult and the cost is increased, so there is still room for improvement. In addition, the conventional wind kinetic energy generating device 5 adopts the tower type construction, but considering the instability of the wind source, a wall plate 56 is attached to the tower base 54 and the wind source is installed. The direction must be controlled, which increases the complexity and cost of the tower base.
なお、風力エネルギー変換効率が低すぎる問題を解決するため、風力を有効に集中させることは、効率改善の無二の方法である。そして、該参照案或いは従来型風力運動エネルギー生成装置にかかわらず、その解決方法は、すべて前記抗力羽を風向きに合わせて揺動させ、その風切り面積を最大に保ち、より多くの風力を獲得することである。しかし、抗力羽を風向きに合わせて動かすことは、即大幅に製品の複雑さ及びコストを増加することになり、故障や損壊の概率も増え、さらに多くの安全防護設計を必要とし、且つ抗力羽を動かすことは一部エネルギーの損耗を招き、風力発電のコストが始終下げられず、有効に推進発展できない。 In order to solve the problem that the wind energy conversion efficiency is too low, effectively concentrating wind power is a unique method for improving efficiency. Regardless of the reference plan or the conventional wind kinetic energy generating device, the solution is to swing all the drag wings in accordance with the wind direction, keep the wind cut area to the maximum, and acquire more wind power. That is. However, moving the drag wings in the direction of the wind immediately increases the complexity and cost of the product, increases the probability of failure and damage, requires more safety protection designs, and the drag wings. Moving part of the power will cause some energy loss, and the cost of wind power generation will not be reduced, and it will not be able to promote and develop effectively.
本発明者は、上述従来方式に派生する各項の欠点に鑑み、極力新規改善を試み、且つ長年苦心研鑽の末、ついに本件各方向の風力源を接収して風力エネルギーの変換効率を高め、且つ風力不足或いは一時停頓時にも持続運転させることのできる風力運動エネルギー生成装置の研究開発に成功した。 In light of the drawbacks of each item derived from the above-mentioned conventional method, the present inventor tried new improvements as much as possible, and after many years of hard work, finally confiscated the wind source in each direction of this case to increase the conversion efficiency of wind energy, We have also succeeded in research and development of a wind kinetic energy generator that can be operated continuously even when wind power is insufficient or temporarily stopped.
そこで、本発明の主要目的は、各方向から風力を接収し、風力エネルギー変換効率を向上させる風力運動エネルギー生成装置を提供することにある。 Therefore, a main object of the present invention is to provide a wind kinetic energy generation device that can acquire wind power from each direction and improve wind energy conversion efficiency.
本発明のもう一つの目的は、前記各方向から風力を接収する風力運動エネルギー生成装置において、風向きを引導する羽を固定する形式を採用し、すなわち、出力軸を回転させて発電機を駆動するほか、前記風向きを引導する羽を風向きに合わせて方向を調整する必要はなく、従って設置の簡易性及び製品の耐用性を増加でき、コストが比較的安いのみならず、風力衝撃による損壊を受けにくいようにすることにある。 Another object of the present invention is to adopt a form in which the wing for guiding the wind direction is fixed in the wind kinetic energy generating apparatus for receiving wind force from each direction, that is, the generator is driven by rotating the output shaft. In addition, it is not necessary to adjust the direction of the wing that guides the wind direction according to the wind direction, so that the ease of installation and the durability of the product can be increased, the cost is relatively low, and the damage is caused by the wind shock. It is to make it difficult.
本発明の更にもう一つの目的は、前記風力運動エネルギー生成装置によって、各方向からの風力、乱気流、横方向風力…などを含む各種風力を有効に利用し、いずれも有効風力に変換でき、普段風力が順調な時の回転のみならず、風力不足や一時停頓の状況下でも、すでに接収済みの集中風力によって持続的に運転し、仕事の効率を増進することにある。 Still another object of the present invention is to effectively use various wind powers including wind power from each direction, turbulence, lateral wind power, etc. by the wind kinetic energy generating device, and all of them can be converted into effective wind power. In addition to the rotation when the wind is in good condition, it is to improve the efficiency of work by continuously operating with the concentrated wind that has already been requisitioned even under the condition of wind shortage or temporary suspension.
本発明の更にもう一つの目的は、前記風力運動エネルギー生成装置は地形の制限を受けることがなく、タワー式多層構築を採用し、同時に前記風力運動エネルギー生成装置を複数搭載し、タワー基台は風を迎える運転空間を提供するのみなので、複雑な設計はなく、制作を比較的に簡易化することにある。 Still another object of the present invention is that the wind kinetic energy generation device is not subject to topographical restrictions, adopts a tower type multi-layer construction, and simultaneously mounts a plurality of the wind kinetic energy generation devices, Since it only provides a driving space that welcomes the wind, there is no complicated design, and the production is to be relatively simplified.
上記課題を解決するために、本発明に係る各方向から風力を接収し、風力エネルギー変換効率を向上させる風力運動エネルギー生成装置は、風力源を引導するために固定設置された風力引導プラットフォームと、風力エネルギーの変換を行う風力回転機構とを含み、前記風力回転機構は出力軸を動かして運動エネルギーを出力する。前記風力引導プラットフォームは、前記風力回転機構の周囲に環状に取り巻いて設けられ、外側から内側へむかって複数の羽引導通路を設置し、前記羽引導通路は外側から内側へ向かって前記風力回転機構の回転方向へ傾斜することによって、前記風力引導プラットフォームの外界各方向にすべて対応する羽引導通路をもたらし、各方向からの風力を前記風力引導プラットフォームへ引導する;前記風力回転機構には、複数の回転羽が設置され、前記回転羽は、前記風力回転機構の回転方向に沿って弧状を形成し、且つ前記風力回転羽に複数の抗力羽を設けることによって、風力を前記回転羽と抗力羽の間に集中して風圧を起こして前記風力回転機構を回転させ、より強い集中風力及び持久的推力を生成し、風力が一時的に停頓或いは弱まった場合でも、持続的に前記回転羽を回転させて安定した回転を保つことができる。 In order to solve the above problems, a wind kinetic energy generating apparatus for acquiring wind power from each direction and improving wind energy conversion efficiency according to the present invention includes a wind guide platform fixedly installed to guide a wind source, A wind power rotating mechanism for converting wind energy, and the wind power rotating mechanism outputs kinetic energy by moving an output shaft. The wind-power guiding platform is provided so as to surround the wind-rotating mechanism in an annular shape, and a plurality of wing conduction paths are installed from the outside to the inside. Are inclined in the direction of rotation of the wind-powered platform, so that the wind guide paths corresponding to each direction of the outside world of the wind-powered guiding platform are provided, and wind power from each direction is guided to the wind-powered guiding platform; A rotating wing is installed, the rotating wing forms an arc shape along the rotation direction of the wind power rotating mechanism, and a plurality of drag wings are provided on the wind power rotating wing so that wind force is generated between the rotating wing and the drag wing. Concentrates between them to generate wind pressure and rotate the wind power rotation mechanism to generate stronger concentrated wind power and permanent thrust, and the wind power is temporarily stopped or weakened Even if it is possible to maintain stable rotation by continuously rotating the rotating vane.
本発明は、以下のような効果がある。
1)本発明は、各方向から風力を接収し、最高効率の風力エネルギー変換応用を達成し、実用的で低コストのクリーンエネルギーを提供できる。
2)本発明は、風向きに対して羽をコントロールする必要がなく、固定式設置を採用しているため、構造上比較的簡単であり、又製品の耐用性も向上でき、コストが安いのみならず、風力衝撃による損壊を被るとこも少ない。
3)本発明は、限られた風力を適切に利用し、普段風力が順調時の回転のほか、風力が不足或いは一時停頓の状況下でも、すでに接収済みの風力によって持続運転することができる。
4)本発明は、タワー式多層構築を採用することができ、タワー基台はただ運転空間を提供するのみであるため、複雑な設計はなく、製作上より簡易である。
The present invention has the following effects.
1) The present invention can obtain wind energy from each direction, achieve the most efficient wind energy conversion application, and provide practical and low-cost clean energy.
2) The present invention does not need to control the wings with respect to the wind direction and adopts a fixed installation, so that it is relatively simple in structure, can improve the durability of the product, and only has a low cost. In addition, there are few cases that suffer damage due to wind shock.
3) The present invention appropriately uses limited wind power, and can be continuously operated by already-acquired wind power, even when the wind power is rotating normally, and even when wind power is insufficient or temporarily stopped.
4) The present invention can adopt a tower type multi-layer construction, and the tower base only provides an operating space, so there is no complicated design and it is easier to manufacture.
以下、本発明の実施の形態を図面に基づいて説明する。 Hereinafter, embodiments of the present invention will be described with reference to the drawings.
図1〜図4Bは、本発明に係る各方向の風力源を接収して、風力エネルギー変換効率を向上させ、且つ風力が一時的に停頓した時も持続的に運転できる風力運動エネルギー生成装置10を示し、風力引導プラットフォーム1と、風力回転機構2及び出力軸3を含む。 1 to 4B show a wind kinetic energy generation device 10 that seizes a wind source in each direction according to the present invention, improves wind energy conversion efficiency, and can be continuously operated even when wind power is temporarily stopped. And includes a wind guide platform 1, a wind rotating mechanism 2, and an output shaft 3.
前記風力引導プラットフォーム1には、外側から内側へ向かって複数の羽引導通路11を設置し、前記風力引導プラットフォーム1の外部各方向に対してすべて羽引導通路11が対応するようにしてある。このようにして、風力源の方向如何にかかわらず、風力をすべて前記風力引導プラットフォーム1の中へ引導することができる。前記風力回転機構2は、前記風力引導プラットフォーム1の内側に設置され、複数の回転羽21を有し、前記羽引導通路11からくる風力を接収することによって、前記風力回転機構2の回転を推進する。前記回転羽21には、複数の抗力羽22を設置することによって、風力を阻んで前記抗力羽22の間に集中させ、比較的強くて持久的な推力を生成させ、風力が一時的に停頓或いは弱まった場合にも、前記回転羽21を持続的に推進して回転の安定運行を保ち、風力が回復した場合に正常回転を続ける。前記風力回転機構2の回転によって、前記出力軸3が運動エネルギーを出力する。 A plurality of wing conduction paths 11 are installed on the wind guide platform 1 from the outside to the inside, and the wing conduction paths 11 correspond to all directions of the outside of the wind guide platform 1. In this way, all the wind power can be guided into the wind guide platform 1 regardless of the direction of the wind source. The wind power rotating mechanism 2 is installed inside the wind power guiding platform 1, has a plurality of rotating blades 21, and promotes the rotation of the wind power rotating mechanism 2 by seizing the wind force coming from the hull conducting path 11. To do. By installing a plurality of drag wings 22 on the rotary wing 21, the wind force is blocked and concentrated between the drag wings 22 to generate relatively strong and permanent thrust, and the wind force temporarily stops. Alternatively, even when weakened, the rotating blades 21 are continuously propelled to maintain stable operation of rotation, and normal rotation continues when the wind power is restored. The output shaft 3 outputs kinetic energy by the rotation of the wind power rotating mechanism 2.
さらに、前記風力引導プラットフォーム1は、前記風力回転機構2の周囲に環設され、各方向に対してすべて前記羽引導通路11が対応するようになっている。前記羽引導通路11は、外側から内側へ向かって、前記風力回転機構2の回転方向へ傾斜し、風力を引導して直接前記回転羽21を衝撃して推力を生じさせる。同時に、前記回転羽21は、前記風力回転機構2の回転方向に向かって弧状を形成し、前記抗力羽22の設置に合わせて、風力を前記回転羽21と抗力羽22の間に集中させて風圧を生じさせ、風力が快速に散逸することを防ぎ、より持久的な風力効果の強化を維持することができる。 Further, the wind-power guiding platform 1 is provided around the wind-powered rotating mechanism 2 so that the feathering conducting paths 11 correspond to all directions. The feathering conduction path 11 is inclined in the direction of rotation of the wind power rotating mechanism 2 from the outside to the inside, and directs the wind force to directly impact the rotating blade 21 to generate thrust. At the same time, the rotary wing 21 forms an arc shape in the rotation direction of the wind power rotating mechanism 2, and wind force is concentrated between the rotary wing 21 and the drag wing 22 in accordance with the installation of the drag wing 22. Wind pressure can be generated, wind power can be prevented from dissipating quickly, and more durable wind effect can be maintained.
図5は、本発明の一般受風状態時の作業状態図であり、図中の主要風力Fは、前記羽引導通路11に引導されて前記風力回転機構2の中へ入り、前記回転羽21に接触して推進し、前記風力回転機構2の回転を開始させ、且つ軸心の出力軸3を連動回転させ、前記出力軸3を経由して運動エネルギーを発電機或いはその他動力機械(図示せず)によってエネルギーを出力する。そして、前記回転羽21の回転を推進した後は、外部風力Fsが持続的に前記風力回転機構2の中へ入るので、元の主要風力Fは前記回転羽21を動かす時、必然的に前記風力回転機構2の内側へ移動する。前記抗力羽22の設置によって、前記主要風力Fが集中して風圧を起こし、前記回転羽21の回転を推進する力を増進する。且つ前記外部風力Fsが持続的に進入する影響で、前記主要風力Fは前記風力回転機構2の内側方向へ向かって隣接する前記抗力羽22の中に入り、再度集中させ、風圧を生じ、風力の使用を一層持久的に徹底させることができる。 FIG. 5 is a work state diagram in the general wind receiving state according to the present invention. The main wind force F in the drawing is guided by the feathering conduction path 11 and enters the wind power rotating mechanism 2, and the rotating blade 21. The wind power rotating mechanism 2 is started to rotate, the output shaft 3 of the shaft center is rotated in an interlocking manner, and the kinetic energy is transmitted through the output shaft 3 to a generator or other power machine (not shown). To output energy. Then, after the rotation of the rotary blade 21 is promoted, the external wind power Fs continuously enters the wind power rotating mechanism 2, so that the original main wind force F inevitably moves the rotary blade 21 when the rotary blade 21 is moved. It moves to the inside of the wind power rotating mechanism 2. By installing the drag wings 22, the main wind force F is concentrated to generate wind pressure, and the force for promoting the rotation of the rotary wings 21 is increased. The main wind force F enters the drag wings 22 adjacent to the inner side of the wind rotating mechanism 2 due to the continuous approach of the external wind force Fs, and is concentrated again to generate wind pressure. Can be used more permanently.
前記風力回転機構2の内側に増圧区23を設け、前記外部風力Fsが比較的大きく、持続的である場合は、回転羽21の受ける前記風力Fが比較的飽満であることによって推力が生じるほか、前記回転羽21から流れ出す前記主要風力Fは前記増圧区23に入って集中し、風圧を起こし、更に前記増圧区23を経由して向かい側の無風位置へ流れ、無風位置の前記回転羽21に対して推力を持続する。従って、前記外部風力Fsはただ少数の区域から前記風力回転機構2へ入る。しかし、多数の前記回転羽21は皆前記主要風力Fの推力作用を受けて効能を増加することができる。 When the pressure increasing section 23 is provided inside the wind power rotating mechanism 2 and the external wind power Fs is relatively large and continuous, the thrust is generated by the wind power F received by the rotating blades 21 being relatively satisfied. In addition, the main wind force F flowing out of the rotary blade 21 enters the pressure-increasing section 23 and concentrates to generate wind pressure, and further flows to the windless position on the opposite side via the pressure-increasing section 23, thereby The thrust is sustained with respect to the rotating wing 21. Therefore, the external wind force Fs enters the wind rotating mechanism 2 from only a few areas. However, the large number of the rotary wings 21 can all increase the efficacy under the thrust action of the main wind force F.
又、前記回転羽21と羽引導通路11間の空間に排風通路24が形成されており、前記羽引導通路11と回転羽21の間には夾角があるため、前記主要風力Fが比較的飽満で集中して風圧が生じた場合、一部分の風力が不規則な方向の干渉流を形成し、前記主要風力Fが前記回転羽21を推進する動作を妨げる可能性がある。そのため、前記排風通路24の設計によって、前記主要風力Fの風圧方向を引導し、且つ余分の風力Fxを排出する。排出された風力Fxは、前方の比較的不足する前記主要風力Fと相互結合し、前記回転羽21のより好ましい回転効率を維持することができる。 In addition, an exhaust passage 24 is formed in the space between the rotary blade 21 and the feathering conduction path 11, and there is a depression angle between the feathering conduction path 11 and the rotary feather 21, so that the main wind force F is relatively When wind pressure is generated due to concentration in saturation, a part of the wind force may form an interference flow in an irregular direction, and the main wind force F may hinder the operation of propelling the rotary blade 21. Therefore, the design of the exhaust passage 24 guides the wind pressure direction of the main wind force F and discharges excess wind force Fx. The discharged wind force Fx can be interconnected with the main wind force F which is relatively insufficient in front, and the more preferable rotation efficiency of the rotary blade 21 can be maintained.
更に、風力は前記風力回転機構2の外側から内側へ向かって次第に消耗減衰するので、良好な回転品質を維持するため、前記抗力羽22の長さを前記風力回転機構2の辺縁から内側へ逓減するように設計すれば、風力が外側の前記回転羽21を動かして減弱した後も、依然順調に前記風力回転機構2の内側方向へ向かって隣接する前記抗力羽22の中へ進入し、再度集中、風圧を起こし、前記回転羽21の回転を持続して推進することができる。前記抗力羽22には、同時におもりを設置してよい。即ち材料或いは寸法の変化によってその重量を増加させ、回転時の慣性の力を増加することができ、前記風力回転機構2が風力停頓時にも依然慣性によって持続的に回転させることができる。つまりホイールに類似した設計が考えられる。 Further, since the wind power is gradually consumed and attenuated from the outside to the inside of the wind rotating mechanism 2, the length of the drag wing 22 is increased from the edge of the wind rotating mechanism 2 to the inside in order to maintain good rotation quality. If it is designed to gradually decrease, even after the wind power is attenuated by moving the outer rotating wing 21, the wind still enters the drag wing 22 adjacent to the inner side of the wind rotating mechanism 2 smoothly. Concentration and wind pressure are caused again, and the rotation of the rotary blade 21 can be continued and promoted. A weight may be installed on the drag wing 22 at the same time. That is, the weight can be increased by changing the material or dimensions, and the inertial force at the time of rotation can be increased, and the wind power rotating mechanism 2 can be continuously rotated by the inertia even when the wind power is stopped. In other words, a design similar to a wheel can be considered.
図1から図5をもう一度参照して、前記風力引導プラットフォーム1と前記風力回転機構2は、複数セットを積み重ねて設置してもよい。本実施例では4セット積み重ねを採用している。そして、隣接した前記風力引導プラットフォーム1の間はある角度を偏位させ、異なる方向からの風力に対する接収効果を増加することもできる。さらに前記羽引導通路11の設置密度を勘案すれば、風力源の方向変化がいかに微妙であっても、前記風力引導プラットフォーム1にはいつも一部の前記羽引導通路11が風力源に正面対向しているので、異なる方向からの風力に対する接収効果を効果的に増加することができる。 Referring to FIGS. 1 to 5 again, a plurality of sets of the wind guide platform 1 and the wind rotating mechanism 2 may be installed in a stacked manner. In this embodiment, four sets are stacked. In addition, an angle between the adjacent wind guide platforms 1 can be deviated to increase the effect of seizing the wind force from different directions. Furthermore, if the installation density of the wing conduction paths 11 is taken into consideration, no matter how subtle changes in the direction of the wind power source are, some of the wing conduction paths 11 always face the wind power source in front of the wind guidance platform 1. Therefore, it is possible to effectively increase the seizure effect on wind power from different directions.
図6を参照して、前記風力運動エネルギー生成装置10は、タワー台4の上に設置してよく、前記タワー台4は多層式に設計し、各フロア毎に前記風力運動エネルギー生成装置10を装着し、実際設計上では、一部のフロアに発電機及びその他機械ユニットのメンテナンス・スペース41を設け、保守点検人員の出入りが便利なようにする。前記風力運動エネルギー生成装置10は各方向からの風力を接収できるため、タワー台4自体はいかなる抗風或いは導風の構造も必要とせず、設置を一層簡易にしている。 Referring to FIG. 6, the wind kinetic energy generating device 10 may be installed on a tower pedestal 4, and the tower pedestal 4 is designed in a multilayer manner, and the wind kinetic energy generating device 10 is provided for each floor. In the actual design, a maintenance space 41 for generators and other mechanical units is provided on some floors so that maintenance inspection personnel can easily enter and exit. Since the wind kinetic energy generating device 10 can receive the wind force from each direction, the tower base 4 itself does not require any anti-wind or wind guiding structure, and the installation is further simplified.
10:風力運動エネルギー生成装置
1:風力引導プラットフォーム
11:羽引導通路
2:風力回転機構
21:回転羽
22:抗力羽
23:増圧区
24:排風通路
3:出力軸
4:タワー台
41:発電機及びその他機械ユニットのメンテナンス・スペース
5:従来型風力運動エネルギー生成装置
51:抗力羽
52:斜め孔
53:揚力羽
54:タワー台
55:ホイール
56:ウォールプレート
F:主要風力
Fs:外部風力
Fx:余分の風力
10: Wind kinetic energy generation device 1: Wind guide platform 11: Happi conduction path
2: Wind power rotating mechanism 21: Rotating blade 22: Drag blade 23: Booster section 24: Exhaust passage 3: Output shaft 4: Tower base 41: Maintenance space for generators and other mechanical units 5: Conventional wind kinetic energy Generator 51: Drag wing 52: Oblique hole 53: Lift wing 54: Tower stand 55: Wheel 56: Wall plate F: Main wind force Fs: External wind force Fx: Extra wind force
Claims (10)
風力引導プラットフォームと、風力回転機構と、出力軸と、を含み、
前記風力引導プラットフォームには、外側から内側へ向かって複数の羽引導通路を設置することによって、前記風力引導プラットフォーム外部の各方向にすべて対応する羽引導通路を有し、各方向からの風力を前記風力引導プラットフォームの中に引導し、
前記風力回転機構は、前記風力引導プラットフォームの内側に設置され、前記風力回転機構に複数の回転羽を設けることによって、前記羽引導通路からくる風力を接収し、前記風力回転機構の回転を推進し、前記回転羽には、複数の抗力羽を設けることによって、風力を前記抗力羽の間に集中させて風圧を生じさせ、
前記出力軸は、前記風力回転機構の内側中心に設置され、前記風力回転機構の回転を経由して回転し、運動エネルギーを出力する、ことを特徴とする全方位風力源によって風力エネルギー変換を向上させる風力運動エネルギー生成装置。 A wind kinetic energy generation device that seizes wind power from all directions and improves wind energy conversion efficiency,
Including a wind guide platform, a wind rotating mechanism, and an output shaft;
In the wind guide platform, by installing a plurality of wing conduction paths from the outside to the inside, the wind traction platform has wing conduction paths corresponding to all directions outside the wind guide platform, and the wind force from each direction is supplied to the wind guide platform. Led into the wind guidance platform,
The wind power rotating mechanism is installed inside the wind power guiding platform, and the wind power rotating mechanism is provided with a plurality of rotating wings to seize the wind force coming from the wing conducting path and promote the rotation of the wind power rotating mechanism. The rotating wings are provided with a plurality of drag wings to concentrate wind force between the drag wings to generate wind pressure,
The output shaft is installed at the inner center of the wind power rotation mechanism, rotates via the rotation of the wind power rotation mechanism, and outputs kinetic energy, thereby improving wind energy conversion by an omnidirectional wind power source Wind kinetic energy generator
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Cited By (3)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
KR101746446B1 (en) | 2016-11-23 | 2017-06-27 | 엘더블유피 주식회사 | Wind power generator with wind increasing chamber |
KR102068132B1 (en) * | 2018-09-18 | 2020-02-11 | 정성호 | Wind power generation module and wind power generation system |
GR1010431B (en) * | 2022-07-27 | 2023-03-23 | Γρηγοριος Κωνσταντινου Δερβενης | Cylinder-shaped wind machine with fixed slanted outer tubes and vertical inner impeller for wind power generation |
Citations (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPH06101622A (en) * | 1990-05-31 | 1994-04-12 | Varusamideisu Michael | Cross wind type wind-turbine |
JP2010185389A (en) * | 2009-02-13 | 2010-08-26 | Sekisui Chem Co Ltd | Cross-flow wind mill and wind turbine generator |
JP2011089267A (en) * | 2009-10-20 | 2011-05-06 | Nippon Parts Center:Kk | Self-light emitting lighting system for guiding sight line |
WO2011078451A1 (en) * | 2009-12-24 | 2011-06-30 | Hwang Ji Seon | Rotor for wind power generation, and wind power generator including same |
WO2012008862A2 (en) * | 2010-07-16 | 2012-01-19 | Telbit Phu, Iwona Janowska | Vertical axis wind turbine |
-
2012
- 2012-07-18 JP JP2012159240A patent/JP2014020274A/en active Pending
Patent Citations (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPH06101622A (en) * | 1990-05-31 | 1994-04-12 | Varusamideisu Michael | Cross wind type wind-turbine |
JP2010185389A (en) * | 2009-02-13 | 2010-08-26 | Sekisui Chem Co Ltd | Cross-flow wind mill and wind turbine generator |
JP2011089267A (en) * | 2009-10-20 | 2011-05-06 | Nippon Parts Center:Kk | Self-light emitting lighting system for guiding sight line |
WO2011078451A1 (en) * | 2009-12-24 | 2011-06-30 | Hwang Ji Seon | Rotor for wind power generation, and wind power generator including same |
WO2012008862A2 (en) * | 2010-07-16 | 2012-01-19 | Telbit Phu, Iwona Janowska | Vertical axis wind turbine |
Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
KR101746446B1 (en) | 2016-11-23 | 2017-06-27 | 엘더블유피 주식회사 | Wind power generator with wind increasing chamber |
WO2018097381A1 (en) * | 2016-11-23 | 2018-05-31 | 엘더블유피 주식회사 | Wind power generation apparatus having wind volume increasing chamber |
KR102068132B1 (en) * | 2018-09-18 | 2020-02-11 | 정성호 | Wind power generation module and wind power generation system |
GR1010431B (en) * | 2022-07-27 | 2023-03-23 | Γρηγοριος Κωνσταντινου Δερβενης | Cylinder-shaped wind machine with fixed slanted outer tubes and vertical inner impeller for wind power generation |
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