JP2005207355A - Vertical axis wind turbine and wind power system - Google Patents

Vertical axis wind turbine and wind power system Download PDF

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JP2005207355A
JP2005207355A JP2004016436A JP2004016436A JP2005207355A JP 2005207355 A JP2005207355 A JP 2005207355A JP 2004016436 A JP2004016436 A JP 2004016436A JP 2004016436 A JP2004016436 A JP 2004016436A JP 2005207355 A JP2005207355 A JP 2005207355A
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vertical
wind turbine
main shaft
wind
vertical axis
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JP4625259B2 (en
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Masahiko Suzuki
政彦 鈴木
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FJC KK
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FJC KK
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Priority to JP2004016436A priority Critical patent/JP4625259B2/en
Application filed by FJC KK filed Critical FJC KK
Priority to DK04792746.2T priority patent/DK1681463T3/en
Priority to CA2543399A priority patent/CA2543399C/en
Priority to KR1020067009745A priority patent/KR100756800B1/en
Priority to PCT/JP2004/015597 priority patent/WO2005038251A1/en
Priority to EP04792746.2A priority patent/EP1681463B1/en
Priority to US10/576,960 priority patent/US7360995B2/en
Priority to CNB2004800312258A priority patent/CN100395447C/en
Priority to ES04792746.2T priority patent/ES2441641T3/en
Priority to RU2006117325/06A priority patent/RU2329398C2/en
Priority to TW093136859A priority patent/TWI284180B/en
Publication of JP2005207355A publication Critical patent/JP2005207355A/en
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03DWIND MOTORS
    • F03D3/00Wind motors with rotation axis substantially perpendicular to the air flow entering the rotor 
    • F03D3/02Wind motors with rotation axis substantially perpendicular to the air flow entering the rotor  having a plurality of rotors
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/70Wind energy
    • Y02E10/74Wind turbines with rotation axis perpendicular to the wind direction

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  • Engineering & Computer Science (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Sustainable Energy (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Wind Motors (AREA)

Abstract

<P>PROBLEM TO BE SOLVED: To provide a vertical axis wind turbine which can make a blade lighter in weight, and an area presented to the wind of the blade large, and a wind power system in which a plurality of this vertical axis wind turbine are arranged. <P>SOLUTION: A vertical axis wind turbine 3 is characterized in that a vertical main axis 5 is arranged in an arranging section B prepared in a region enclosed by a plurality of supports 2, in that the vertical main axis 5 is supported in upper/lower positions by a plurality of bearings 6 supported by the surrounding supports 2; each rotator 7 is arranged on the vertical main axis 5 between each upper/lower bearing 6 respectively, in that a longwise long blade 8 is arranged in each rotator 7 in such a manner that left side surface is made to face the vertical main axis 5, and in that plane surface positions of the upper/lower blades 8 are differently arranged in phase at upper/lower positions. <P>COPYRIGHT: (C)2005,JPO&NCIPI

Description

本発明は、縦軸風車並びに発電システムに係り、特に、羽根を上下多段に配し、羽根の平面における位相を、上下で変位させた縦軸風車と、該縦軸風車の複数を配設した風力発電システムに関する。   The present invention relates to a vertical axis wind turbine and a power generation system, and in particular, a vertical axis wind turbine in which blades are arranged in multiple upper and lower stages, and a phase in the plane of the blades is displaced up and down, and a plurality of the vertical axis wind turbines are disposed. It relates to a wind power generation system.

従来、風力発電機の風車は、横軸プロペラ式が使用され、風力回収率が35%程度と云われる縦軸風車は、実用性がないものとして、使用されていないのが現状である。
最近、小型の縦軸風車が研究されている。
Conventionally, a wind turbine of a wind power generator uses a horizontal axis propeller type, and a vertical axis wind turbine having a wind power recovery rate of about 35% is not used because it is not practical.
Recently, small vertical wind turbines have been studied.

縦軸風車は、例えば縦主軸の左右に羽根があるため、例えば左方の羽根に風を受けて回転するとき、逆に右方の羽根は風の抵抗を受けるという難点がある。
その結果、羽根の弦長(前後幅)を狭くして、羽根の背丈を高くすることが好ましいが、羽根の背丈を高くすると剛性を求められ、剛性を高くすると、重量が重くなり回転効率が悪化するという欠点が生じる。更に製造コストが高くなり、またメンテナンス作業性が悪くなる。
Since the vertical axis wind turbine has blades on the left and right of the vertical main shaft, for example, when the left blade rotates by receiving wind, there is a problem that the right blade receives wind resistance.
As a result, it is preferable to reduce the chord length (front / rear width) of the blade and increase the height of the blade, but increasing the blade height requires rigidity, and increasing the rigidity increases the weight and rotational efficiency. The disadvantage is that it gets worse. Further, the manufacturing cost is increased and the maintenance workability is deteriorated.

風力発電機は、風況に左右され、風況の良い場所があっても、発電した電力を回収するために、送電設備を建設しなければならないという問題がある。
この発明は、羽根をより軽量化し、羽根の受風面積を広くすることの出来る、縦軸風車と、この縦軸風車を複数配設した風力発電システム、を提供することを目的としている。
Wind generators are affected by wind conditions, and there is a problem that power transmission facilities must be constructed to collect the generated power even if there is a place with good wind conditions.
An object of the present invention is to provide a vertical axis wind turbine and a wind power generation system in which a plurality of the vertical axis wind turbines are arranged, which can further reduce the weight of the blade and increase the wind receiving area of the blade.

この発明は、前記課題を解決し目的を達成するために、羽根の背丈を低く、小型軽量化し、これを風車の縦主軸に多段に配設した。発明の具体的な内容は次の通りである。   In order to solve the above-mentioned problems and achieve the object, the present invention reduces the height of the blades, reduces the size and weight, and arranges the blades on the vertical main shaft of the wind turbine in multiple stages. The specific contents of the invention are as follows.

(1) 複数の支柱で囲まれた中に設定された配設部に、縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下の軸受の間には、縦主軸に、それぞれ回転体が配設され、各回転体には縦長羽根が2枚、左側面を縦主軸に対面させて配設され、該上下の羽根の平面位置を、上下で異なる位相に配設されている、縦軸風車。   (1) A vertical main shaft is disposed in an arrangement portion set inside a plurality of support columns, and the vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding support columns. Between the bearings, a rotating body is disposed on each of the longitudinal main shafts. Each of the rotating bodies is provided with two vertically long blades, with the left side facing the longitudinal main shaft, and the plane positions of the upper and lower blades are set. The vertical axis wind turbines are arranged in different phases at the top and bottom.

(2) 複数の支柱で囲まれた中に設定された配設部に、縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下の軸受の間には、縦主軸に、それぞれ回転体が複数配設され、各回転体には縦長羽根が2枚、左側面を縦主軸に対面させて配設され、該上下の羽根の平面位置を上下で異なる位相に配設されている、縦軸風車。   (2) A vertical main shaft is disposed in an arrangement portion set inside a plurality of support columns, and the vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding support columns. Between the bearings, a plurality of rotating bodies are arranged on each of the longitudinal main shafts, each of the rotating bodies is provided with two vertically long blades, with the left side facing the longitudinal main shaft, and the plane positions of the upper and lower blades The vertical axis wind turbine is arranged in different phases up and down.

(3) 前記縦主軸は、同一配設部に多段状に複数配設される事を特徴とする、前記(1)(2)のいずれかに記載された縦軸風車。   (3) The vertical axis wind turbine according to any one of (1) and (2), wherein a plurality of the vertical main shafts are arranged in a multistage manner in the same arrangement portion.

(4) 高圧送電線支持鉄塔を構成する、複数の支柱で囲まれた中に設定された配設部に縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下軸受の間には、縦主軸にそれぞれ回転体が配設され、各回転体には縦長羽根が、左側面を縦主軸に対面させて配設されている、縦軸風車。   (4) A vertical main shaft is arranged in an arrangement portion that is set in a high-voltage transmission line support tower surrounded by a plurality of support columns, and the vertical main shaft is supported by a plurality of upper and lower columns supported by surrounding columns. Supported by bearings, between the upper and lower bearings, a rotating body is disposed on the longitudinal main shaft, and a longitudinal blade is disposed on each rotating body with the left side facing the longitudinal main shaft. Windmill.

(5) 複数の支柱で囲まれた中に、1っの配設部が形成され、各配設部を平面において複数連続して複合支柱構成体が形成され、各配設部にそれぞれ縦主軸が配設され、該縦主軸は、周囲の支柱に支持された、上下複数の軸受により支持され、各上下軸受の間には、縦主軸にそれぞれ回転体が配設され、各回転体には縦長羽根が、左側面を縦主軸に対面させて配設されている、縦軸風車。   (5) One arrangement part is formed in a plurality of columns, and a plurality of arrangement parts are continuously formed on a plane to form a composite column structure. The vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding struts, and between the upper and lower bearings, a rotating body is disposed on the vertical main shaft. A vertical wind turbine in which longitudinal blades are arranged with the left side facing the longitudinal main shaft.

(6) 前記各配設部に、縦主軸が多段に配設されている、前記(5)に記載された縦軸風車。   (6) The vertical wind turbine according to (5), wherein the main spindles are arranged in multiple stages in each of the arrangement parts.

(7) 前記複合支柱構成体は、複数の支柱で囲まれた配設部を、平面で略W、E、T、Y、U、I、O、A、S、F、H、K、L、Z、X、V、B、N、M、△、□、☆形から選択される形状に、連続形成された、前記(5)(6)のいずれかに記載された縦軸風車。   (7) The composite strut structure includes an arrangement portion surrounded by a plurality of struts in a plane, which is substantially W, E, T, Y, U, I, O, A, S, F, H, K, L , Z, X, V, B, N, M, Δ, □, ☆ A vertical axis windmill described in any one of (5) and (6) above, which is continuously formed in a shape selected from the shapes.

(8) 前記各配設部に配設された各縦主軸が、同期伝動手段で同期するように連結されている、前記(5)〜(7)のいずれかに記載された、縦軸風車。   (8) The vertical axis wind turbine according to any one of (5) to (7), wherein the vertical main shafts disposed in the respective placement portions are coupled so as to be synchronized by a synchronous transmission unit. .

(9) 前記各配設部に配設された、各回転体は、支持アームを1本配設し、該1本の支持アームの先端部に、羽根が左側面を縦主軸に対面して配設され、上下の羽根は平面で位相を変位させて配設されている、前記(5)〜(8)のいずれかに記載された縦軸風車。   (9) Each rotating body arranged in each arrangement section has one support arm, with the blades facing the longitudinal main axis at the tip of the one support arm and the blade on the left side. The vertical axis windmill described in any one of (5) to (8) above, wherein the upper and lower blades are disposed with a phase shifted in a plane.

(10) 前記各配設部に配設された、各回転体に装着された羽根は、同一でなく異った物が、風車全体の目的に沿って組合わされている、前記(5)〜(8)のいずれかに記載された縦軸風車。   (10) The blades mounted on each rotating body disposed in each of the mounting portions are not the same, but different things are combined according to the purpose of the entire windmill, (5) to The vertical axis windmill described in any one of (8).

(11) 前記縦軸風車の支柱の外面であって、羽根に対する通過風の影響のない位置に、広告を表示出来る広告面が形成されている、前記(1)〜(10)のいずれかに記載された縦軸風車。   (11) In any one of the above (1) to (10), an advertising surface on which an advertisement can be displayed is formed on the outer surface of the vertical wind turbine support column and at a position where there is no influence of the passing wind on the blades. The vertical axis wind turbine described.

(12) 高圧送電線支持鉄塔を複数利用し、鉄塔それぞれを構成する複数の支柱で囲まれた配設部に、発電器を保持する縦軸風車が配設され、各鉄塔間に張設された送電線に、前記縦軸風車の発電器の電気出力線が連結され、該各発電器により発電された電気を、それぞれ前記送電線から回収する、風力発電システム。   (12) A plurality of high-voltage power transmission line support towers are used, and a vertical wind turbine holding a generator is installed in an installation section surrounded by a plurality of columns constituting each tower, and is stretched between each tower. A wind power generation system in which an electric output line of the generator of the vertical axis wind turbine is connected to the transmission line, and electricity generated by each generator is collected from the transmission line.

(13) 複数の支柱で1っの配設部が形成され、各配設部を平面において複数連続して複合支柱構成体が形成され、各配設部に、それぞれ発電器を保持する縦軸風車が配設され、各縦軸風車の発電器により発電された電気を、1か所に集電して回収する、風力発電システム。   (13) One arrangement part is formed by a plurality of columns, and a plurality of arrangement parts are continuously formed in a plane to form a composite column structure, and a vertical axis for holding a power generator in each arrangement part. A wind power generation system in which wind turbines are arranged and the electricity generated by the power generators of the vertical wind turbines is collected and collected in one place.

本発明によると次のような効果がある。   The present invention has the following effects.

(1) 請求項1に記載された発明の縦軸風車は、長い縦主軸が、その周囲に配設された複数の支柱に支持されている、上下複数の軸受により支持されているので、長い縦主軸でも、湾曲せず剛性に優れている。各軸受の間には、縦主軸にそれぞれ回転体が配設され、各回転体には縦長羽根が2枚、左側面を縦主軸に対面させて配設され、同一水準において羽根は回転時における抵抗が小さい。
また羽根は多段に配設されるので、背丈の短い羽根を使用することが出来て、軽量でも剛性が十分である。小型羽根を使用しても、多段に配設されているので、総体で受風面積を大きく保持することができる。
該上下の羽根の平面位置を、上下で異なる位相に配設されているので、変化する風向きに、上下いずれかの羽根が対応して、回転効率が向上する。
縦主軸の下部に発電器を連結することにより、効率の良い風力発電機とすることができる。また、発電器を使用しないで、揚水機、製粉機、等のクリーンエネルギー動力に使用することができる。
(1) The vertical wind turbine of the invention described in claim 1 is long because the long vertical main shaft is supported by a plurality of upper and lower bearings supported by a plurality of support columns disposed around the longitudinal main shaft. Even the vertical spindle is not curved and has excellent rigidity. Between each bearing, a rotating body is disposed on each longitudinal main shaft, and each rotating body is provided with two vertically long blades, with the left side facing the longitudinal main shaft, and at the same level, the blades are in rotation. Resistance is small.
In addition, since the blades are arranged in multiple stages, blades having a short height can be used, and the rigidity is sufficient even if the weight is light. Even if small blades are used, since they are arranged in multiple stages, the entire wind receiving area can be kept large.
Since the plane positions of the upper and lower blades are arranged at different phases in the upper and lower directions, either the upper or lower blade corresponds to the changing wind direction, and the rotation efficiency is improved.
By connecting a generator to the lower part of the vertical main shaft, an efficient wind power generator can be obtained. Moreover, it can use for clean energy motive power, such as a pumping machine and a mill, without using a generator.

(2) 請求項2に記載された発明の縦軸風車は、回転体が、上下の軸受の間の縦主軸に複数配設されたので、例えば背丈3mの羽根の代りに、1.2mの羽根を2段に配設することにより、羽根の剛性を高めることが出来て、総体として羽根の受風面積を広くすることができる。縦主軸の下部に発電器を連結することにより、効率の良い風力発電機とすることができる。   (2) In the vertical wind turbine of the invention described in claim 2, since a plurality of rotating bodies are arranged on the vertical main shaft between the upper and lower bearings, for example, instead of a blade having a height of 3 m, a 1.2 m By arranging the blades in two stages, the rigidity of the blades can be increased, and the wind receiving area of the blades can be increased as a whole. By connecting a generator to the lower part of the vertical main shaft, an efficient wind power generator can be obtained.

(3) 請求項3に記載された発明の縦軸風車は、1っの配設部に、縦主軸が多段状に配設されるので、縦主軸1本の高さを短くすることができる。また、細い縦主軸を使用することが出来る。   (3) The vertical wind turbine of the invention described in claim 3 has a single main portion in which the vertical main shafts are arranged in multiple stages, so that the height of one vertical main shaft can be shortened. . In addition, a thin vertical spindle can be used.

(4) 請求項4に記載された発明の縦軸風車は、高圧送電線支持鉄塔そのものを縦軸風車にしてしまうので、設置場所の確保が容易である。縦主軸に発電器を連結するときは、風力発電機となり、多数の高圧送電線支持鉄塔を利用するときは、小さな風車を使用しながら、大容量の風力発電をすることができる。   (4) In the vertical axis wind turbine according to the invention described in claim 4, since the high voltage power transmission line supporting tower itself becomes the vertical axis wind turbine, it is easy to secure the installation location. When the generator is connected to the vertical main shaft, it becomes a wind power generator. When a large number of high-voltage transmission line support towers are used, large-capacity wind power can be generated while using a small windmill.

(5) 請求項5に記載された発明の縦軸風車は、複合支柱構成体が形成され、その中の多数の配設部に、それぞれ縦主軸が配設され、その縦主軸に羽根が多段に配設されているので、軸トルクは大きく、各縦主軸の下に発電器を連結させておくときは、複合支柱構成体が小型発電器を多数保持する大容量の風力発電機となる。
このことから、複合支柱構成体は、大きく強固に建設することができるので、風力回収率が悪いと言われる縦軸風車を使用しながら、100kw/h〜1000kw/h等の大容量発電をさせることができる、風力発電機とすることができる。
(5) In the vertical axis wind turbine according to the invention described in claim 5, a composite strut structure is formed, and a longitudinal main shaft is disposed in each of a plurality of disposed portions, and a plurality of blades are provided on the longitudinal main shaft. Therefore, when the generator is connected under each vertical main shaft, the composite strut structure becomes a large-capacity wind generator holding a large number of small generators.
From this, since the composite strut structure can be constructed large and firmly, a large-capacity power generation of 100 kW / h to 1000 kW / h or the like is performed while using a vertical axis windmill that is said to have a poor wind recovery rate. Can be a wind power generator.

(6) 請求項6に記載された発明の縦軸風車は、複合支柱構成体の平面における同一の配設部に、縦主軸が多段に配設されているので、複合支柱構成体の背丈を高く設定して、縦主軸を多段に配設して回転体を多段にすることにより、風況の良い地域において、効率の良い風力回収ができる風車となり、風力発電機とすることができる。   (6) Since the longitudinal main shaft is arranged in multiple stages in the same arrangement portion in the plane of the composite strut structure, the vertical wind turbine according to the invention described in claim 6 can increase the height of the composite strut structure. By setting it high and arranging the vertical main shafts in multiple stages to make the rotating body in multiple stages, it becomes a wind turbine that can efficiently collect wind power in a region with good wind conditions, and can be a wind power generator.

(7) 請求項7に記載された発明の縦軸風車は、複合支柱構成体の配設部を、平面で略W、E、T、Y、U、I、O、A、S、F、H、K、L、Z、X、V、B、N、M、△、□、☆形の中から選択される形状に連続させることができる。
これによって、複合支柱構成体の背丈を高くしても、風や地震で倒壊しない剛性を容易に維持することが出来る。複合支柱構成体は、上下左右前後の鋼材で組立られるので、細い鋼材を使用しても全体として剛性を維持でき、製造コストを軽減させることができる。
また各配設部に全方向からの風も平均的に当るので、縦軸風車を水平方向へ多数連続して配設することができ、風力回収効率の良い複合風車となり、風力発電機に利用するとき、数百kw/hの大発電容量をもつ風力発電機とすることができる。
(7) In the vertical axis wind turbine of the invention described in claim 7, the arrangement portion of the composite strut structure is substantially W, E, T, Y, U, I, O, A, S, F, It can be made to continue in the shape selected from H, K, L, Z, X, V, B, N, M, Δ, □, and ☆.
Thereby, even if the height of the composite strut structure is increased, the rigidity that does not collapse due to wind or earthquake can be easily maintained. Since the composite strut structure is assembled with steel materials in the vertical and horizontal directions, even if a thin steel material is used, the overall rigidity can be maintained, and the manufacturing cost can be reduced.
In addition, wind from all directions hits each installation section on average, so a large number of vertical wind turbines can be installed continuously in the horizontal direction, resulting in a composite wind turbine with good wind recovery efficiency and used for wind power generators. When doing, it can be set as the wind power generator which has a large power generation capacity of several hundred kw / h.

(8) 請求項8に記載された発明の縦軸風車は、各配設部に配設された、各縦主軸が、同期伝動手段で同期するように連結されているので、風がよく当る位置の回転体の回転力が、風の当りにくい位置の回転体を同期して回転させ、回転始期において、風車全体の縦主軸が同期して回転するため、全体の縦主軸の軸トルクを1か所に集合させる事もできる。   (8) In the vertical wind turbine according to the invention described in claim 8, since the vertical main shafts arranged in the respective arrangement portions are connected so as to be synchronized by the synchronous transmission means, the wind hits well. The rotational force of the rotating body at the position rotates the rotating body at the position where the wind is difficult to hit, and the vertical main shaft of the entire wind turbine rotates synchronously at the beginning of rotation. Therefore, the axial torque of the entire vertical main shaft is 1 You can also gather in places.

(9) 請求項9に記載された発明の縦軸風車は、同一水準において1枚羽根が使用されているので、主軸の反対側での風抵抗がなく、高速回転に適している。1枚羽根でも前後幅を広くすることが出来るので、受風面積は狭くなることは無い。また上下の羽根は平面で重ならないように配設されているので、風向きの変化に対して、どちらからの風も回転に利用することができる。   (9) The vertical axis wind turbine of the invention described in claim 9 uses one blade at the same level, and therefore has no wind resistance on the opposite side of the main shaft and is suitable for high-speed rotation. Even with a single blade, the front-rear width can be increased, so the wind receiving area is not reduced. In addition, since the upper and lower blades are arranged so as not to overlap with each other on the plane, the wind from either side can be used for rotation in response to changes in the wind direction.

(10) 請求項10に記載された発明の縦軸風車は、各配設部に配設された、各縦主軸の回転体における羽根は、同一でなく異った物が、風車全体の目的に沿って組合わされているので、高速風に適した羽根、弱風に適した羽根等を、その地の風況に適するように組合わせて配設することができる。その結果、風速の向き並びに強弱変化に対して、いずれかの回転体が回転しており、縦軸風車はトータル的に平均化した回転力を得ることができる。   (10) In the vertical axis wind turbine according to the invention described in claim 10, the blades in the rotating bodies of the vertical main shafts arranged in the respective arrangement portions are not the same but different in purpose. Therefore, blades suitable for high-speed wind, blades suitable for weak wind, and the like can be combined and disposed so as to suit the local wind conditions. As a result, any of the rotating bodies is rotating with respect to the direction of wind speed and the strength change, and the vertical axis wind turbine can obtain a total averaged rotational force.

(11) 請求項11に記載された発明の縦軸風車は、縦軸風車の支柱の外面であって、羽根に対する通過風の影響のない位置に、広告を表示出来る広告面が形成されているので、広告を広告面に表示して得られる広告料で、支柱の維持管理費を補填することができる。   (11) The vertical axis wind turbine according to the invention described in claim 11 is formed with an advertising surface on the outer surface of the vertical column wind turbine support so that the advertisement can be displayed at a position where there is no influence of the passing wind on the blades. Therefore, the maintenance cost of the support can be compensated with the advertisement fee obtained by displaying the advertisement on the advertisement surface.

(12) 請求項12に記載された発明の風力発電システムは、高圧送電線支持鉄塔を複数利用し、鉄塔それぞれに縦軸風車が配設され、その発電器により発電された電気を、それぞれ上部の送電線から回収するので、縦軸風車を配設した鉄塔の総数が、1っの風力発電機となり、トータルで大容量の風力発電をすることができる。   (12) The wind power generation system according to the invention described in claim 12 uses a plurality of high-voltage power transmission line supporting towers, and a vertical axis wind turbine is provided in each of the towers. Therefore, the total number of steel towers on which the vertical axis wind turbines are arranged becomes one wind power generator, and a large amount of wind power can be generated in total.

(13) 請求項13に記載された発明の風力発電システムは、複数の支柱で1っの配設部が形成され、各配設部を平面において複数連続して複合支柱構成体が形成され、各配設部に、それぞれ発電器を保持する縦軸風車が配設されているので、風況の良い場所に複合支柱構成体を堅固に建設することができる。
その中の複数の配設部に、それぞれ縦軸風車を配設することによって、縦軸風車が小型でその発電力が小さくても、その発電された電力を1か所に集電すると、1っの複合支柱構成体が、大容量発電の風力発電機となる。
(13) In the wind power generation system according to the invention described in claim 13, one arrangement part is formed by a plurality of support columns, and a plurality of each installation part is continuously formed on a plane to form a composite support column structure. Since the vertical wind turbines that respectively hold the power generators are disposed in the respective placement portions, the composite strut structure can be firmly constructed in a place with good wind conditions.
By arranging a vertical axis wind turbine in each of a plurality of arrangement portions, even if the vertical axis wind turbine is small and its generated power is small, if the generated power is collected in one place, 1 The composite strut structure is a large-capacity wind power generator.

羽根の背丈を低くさせて小型軽量化し、縦主軸に2枚羽根を平面で羽根の位相を変えて多段に配設することで、風抵抗を小さく、風向きに対応出来、受風面積の大きな風車となる。この風車を多数組合わせて大容量発電の風力発電機とする。   Reduced blade height by reducing the height of the blades, and by arranging two blades on the vertical main shaft in multiple stages by changing the phase of the blades, wind resistance can be reduced, the wind direction can be accommodated, and the wind receiving area is large It becomes. A large number of wind turbines are combined into a large-capacity wind power generator.

本願発明の実施の形態例を、図面を参照して説明する。図1は本発明に係る第1実施例の縦軸風車を使用した、風力発電機の要部正面図、図2は図1におけるA−A線断面図である。
図において、風力発電機(1)は、高圧送電線支持鉄塔を構成する支柱(2)を利用して、この複数の支柱(2)で囲まれた内部を、縦主軸(5)を配設する配設部(B)として、該配設部(B)に縦軸風車(3)の縦主軸(2)が配設されている。図中の符号(4)は基盤である。前記支柱(2)は、当然に専用の支柱を立設することが出来る。
Embodiments of the present invention will be described with reference to the drawings. FIG. 1 is a front view of an essential part of a wind power generator using a vertical wind turbine according to a first embodiment of the present invention, and FIG. 2 is a cross-sectional view taken along line AA in FIG.
In the figure, the wind power generator (1) uses the column (2) that constitutes the high-voltage power transmission line support tower, and the vertical main shaft (5) is arranged inside the plurality of columns (2). As the disposing portion (B), the longitudinal main shaft (2) of the vertical wind turbine (3) is disposed in the disposing portion (B). Reference numeral (4) in the figure is a base. As for the said support | pillar (2), an exclusive support | pillar can be erected naturally.

縦軸風車(3)は、ケース体(3a)に、縦主軸(5)が垂直に、かつ回転自在に支持されている。
ケース体(3a)の中には、例えば図示しない発電器が、縦主軸(5)の回転力で発電することが出来るように配設されている。
縦軸風車(3)の縦主軸(5)は、複数の支柱(2)で囲まれた配設部(B)の中央部に、支持体(2a)を介して配設されている上下複数の、軸受(6)により回転自在に支持されている。該支持体(2a)は、支柱(2)に上下多段に複数配設されている。
In the vertical axis wind turbine (3), the longitudinal main shaft (5) is vertically and rotatably supported by the case body (3a).
In the case body (3a), for example, a power generator (not shown) is disposed so as to be able to generate power with the rotational force of the longitudinal main shaft (5).
The vertical main shaft (5) of the vertical axis wind turbine (3) has a plurality of upper and lower parts arranged at the center of the arrangement part (B) surrounded by the plurality of support posts (2) via the support (2a). The bearing (6) is rotatably supported. A plurality of the supports (2a) are arranged in multiple stages on the support (2).

各上下の軸受(6)の間において、縦主軸(5)には、回転体(7)が多段に固定されている。図1では回転体(7)は4段配設されているが、2〜10段、それ以上等任意である。
各回転体(7)の軸部(7a)には、左右に伸びる支持アーム(7b)が固定され、該支持アーム(7b)の各先端部には、それぞれ縦長の羽根(8)が、それぞれ左側面を縦主軸(5)に対面させて配設されている。
Between the upper and lower bearings (6), the rotary body (7) is fixed in multiple stages to the vertical main shaft (5). In FIG. 1, the rotating body (7) is arranged in four stages, but it is optional such as 2 to 10 stages or more.
A support arm (7b) extending to the left and right is fixed to the shaft portion (7a) of each rotating body (7), and vertically long blades (8) are respectively attached to the respective distal end portions of the support arm (7b). The left side surface is arranged to face the vertical main shaft (5).

羽根(8)は、図3に示すように、横断面は略魚形状に、かつ左側面に膨出部が形成されている。また羽根(8)は上下先端部が左側(内側)へ湾曲した傾斜部(8a)が形成されている。回転時において、羽根(8)に受けた風を傾斜部(8a)が逃がさず、羽根(8)の回転力を向上させる。すなわち、羽根(8)の左側面に当った風は、羽根(8)を圧しながら、上下左右に逃げようとするが、上下に流れる風はこの傾斜部(8a)で遮られて、その風圧は羽根(8)を圧すことになり、回転力を増大させる。   As shown in FIG. 3, the blade (8) has a substantially fish-like cross section and a bulge on the left side. In addition, the blade (8) is formed with an inclined portion (8a) in which the top and bottom tips are curved to the left (inside). During rotation, the wind received by the blade (8) is not released by the inclined portion (8a), and the rotational force of the blade (8) is improved. That is, the wind hitting the left side of the blade (8) tries to escape vertically and horizontally while pressing the blade (8), but the wind flowing up and down is blocked by this inclined portion (8a), Will press the blade (8) and increase the rotational force.

また多段に配設された回転体(7)における羽根(8)は、図2において、左右における2枚羽根とし、この羽根(8)の平面における位置は、左右対称で、上と下とでは位相が異なるように配設される。例えば図2は、上と下とでは直角交差をしている。また図3では、上中下で60度づつ位相が変位しているものが示されている。   In FIG. 2, the blades (8) in the rotating body (7) arranged in multiple stages are two blades on the left and right, and the positions of the blades (8) in the plane are symmetrical, and the phase between the top and bottom is They are arranged differently. For example, in FIG. 2, there is a right-angle crossing at the top and bottom. Further, FIG. 3 shows that the phase is displaced by 60 degrees in the upper, middle and lower directions.

同一水準における羽根(8)の枚数は、同じ受風面積なら少ない方が回転速度は向上する。これは回転時において羽根(8)そのものが抵抗になるからである。
しかし、回転速度は遅くなっても、羽根(8)全体の受風面積が大きい場合は、縦主軸(5)の軸トルクが大となる。
If the number of blades (8) at the same level is the same for the same wind receiving area, the rotational speed is improved. This is because the blade (8) itself becomes a resistance during rotation.
However, even if the rotational speed is slow, if the wind receiving area of the entire blade (8) is large, the axial torque of the longitudinal main shaft (5) becomes large.

従って、1っの回転体(7)に二枚羽根というのがそれに適しており、この二枚羽根を同一の縦主軸(5)に多段にして、羽根(8)の平面における位相を変えることが、風の回収に最適である。風は常に方向を変え、地上からの高さの差違によって、気圧も風向きも異なる。   Therefore, two blades are suitable for one rotating body (7), and the two blades are arranged on the same longitudinal main shaft (5) to change the phase in the plane of the blade (8). However, it is ideal for wind recovery. Wind always changes direction, and atmospheric pressure and wind direction differ depending on the difference in height from the ground.

従って縦主軸(5)に回転体(7)が多段に配設されて、左右対称の2枚羽根(8)が上下で位相を異にしているので、上下で風の速度や向きが異なっても、いずれかの羽根(8)が風を受け、風速の高い方の風を受けた羽根(8)による軸回転が、縦主軸(5)の回転を主導する。   Therefore, the rotating body (7) is arranged in multiple stages on the vertical main shaft (5), and the two-symmetrical blades (8) have different phases up and down, so the wind speed and direction are different up and down. Also, one of the blades (8) receives the wind, and the shaft rotation by the blade (8) receiving the wind having the higher wind speed leads the rotation of the longitudinal main shaft (5).

また、一枚の長い羽根を使用せずに、丈の短い羽根を多段状に配設することによって、一本の縦主軸(5)における羽根(8)の、受風総面積を大きくすることができるので、風速が弱い時にでも、軸トルクを大きくすることができる。   Also, increase the total wind receiving area of the blade (8) in one longitudinal main shaft (5) by arranging short blades in multiple stages without using one long blade. Therefore, the shaft torque can be increased even when the wind speed is low.

図1において、符号(9)は蓄電器、(10)は変圧器、(11)は送電線である。羽根(8)に風を受けて回転体(7)が回転すると、縦主軸(5)が回転して、ケース体(3a)内に縦主軸(3a)に連結して配設されている、図示しない発電器を回転させて発電をする。   In FIG. 1, symbol (9) is a capacitor, (10) is a transformer, and (11) is a power transmission line. When the rotating body (7) rotates in response to wind on the blades (8), the vertical main shaft (5) rotates and is arranged in the case body (3a) connected to the vertical main shaft (3a). A power generator (not shown) is rotated to generate power.

発電された電気は、蓄電器(9)に蓄積され、変圧器(10)で変圧して、送電線(11)で目的地に送電される。
すなわち、高圧送電線支持鉄塔を構成する支柱(2)を利用するとき、高圧送電線に沿う、各地の風況のよい地域において、高圧送電線支持鉄塔の多数の支柱(2)を縦軸風車(3)並びに風力発電機(1)に利用することができて、風車の設置並びに風力発電による電力回収における、コストダウンを図ることができる。
The generated electricity is stored in the capacitor (9), transformed by the transformer (10), and transmitted to the destination by the transmission line (11).
That is, when using the struts (2) that constitute the high-voltage transmission line support tower, in a region with good wind conditions along the high-voltage transmission line, a large number of struts (2) of the high-voltage transmission line support tower It can be used for (3) and the wind power generator (1), and cost reduction can be achieved in wind turbine installation and power recovery by wind power generation.

同時に、発電された電力を回収するにも、高圧送電線支持鉄塔の既設支柱(2)を利用することができる。この、高圧送電線支持鉄塔を構成する支柱(2)を利用した、縦軸風車(3)の設置と送電する風力発電システムは、交通不便な地域での風力発電と、電力回収を容易に実施することができる。   At the same time, the existing strut (2) of the high-voltage transmission line support tower can be used to collect the generated power. This wind power generation system that installs the vertical axis wind turbine (3) and uses the prop (2) that constitutes the high-voltage power transmission line support tower and transmits power easily implements wind power generation and power recovery in inconvenient areas can do.

図4は、第2実施例を示す、縦軸風車を使用した風力発電機の要部正面図である。前例と同じ部位には、同じ符号を付して説明を省略する。
この第2実施例は、縦主軸(5)に羽根(8)を多段に配設された縦軸風車(3)が複数、支柱(2)で囲まれた1っの配設部(B)に、多段に配設されたものである。
FIG. 4 is a front view of an essential part of a wind power generator using a vertical axis wind turbine, showing a second embodiment. The same parts as those in the previous example are denoted by the same reference numerals and description thereof is omitted.
In this second embodiment, a single vertical section (B) in which a plurality of vertical axis wind turbines (3) each having blades (8) arranged in multiple stages on a longitudinal main shaft (5) are surrounded by struts (2). Further, they are arranged in multiple stages.

この第2実施例の風力発電機(1)においては、次のような利点がある。
例えば前記のように、高圧送電線支持鉄塔の支柱(2)の、背丈が高い場合で、相当な高さまで利用出来る時に、1本の縦主軸(5)を長くするよりも、複数の縦主軸(5)を使用した方が良い場合がある。
特に複数の支柱(2)で囲まれた中の配設部(B)の広さが、下部よりも上部が狭くなるので、必然的に上部においては回転体(7)の回転半径は小さくなる。
The wind power generator (1) of the second embodiment has the following advantages.
For example, as described above, when the height of the supporting tower (2) of the high-voltage power transmission line support tower is high and it can be used up to a considerable height, a plurality of vertical spindles are used rather than lengthening one longitudinal spindle (5). It may be better to use (5).
Particularly, since the upper portion of the arrangement portion (B) surrounded by the plurality of columns (2) is narrower than the lower portion, the rotating radius of the rotating body (7) is inevitably smaller at the upper portion. .

従って、縦軸風車(3)を多段に配設するときは、例えば、下の縦軸風車(3)は縦主軸(5)に回転体(7)が4段で、回転体(7)の半径4m、上の縦軸風車(3)は縦主軸(5)に回転体(7)が3段で回転体(7)の半径3mというように、適宜変化させることができる。
特に地上10mを越えると1気圧異なるので、縦軸風車(3)のケース体(3a)内の、図示しない発電器が、上下で異なっている方が良い場合がある。
Therefore, when the vertical axis wind turbine (3) is arranged in multiple stages, for example, the vertical axis wind turbine (3) below has a vertical main shaft (5) with four stages of rotating bodies (7) and the rotating body (7). The vertical wind turbine (3) having a radius of 4 m and the vertical axis wind turbine (3) can be appropriately changed such that the vertical main shaft (5) has three stages of the rotary body (7) and the radius of the rotary body (7) is 3 m.
In particular, since it is different by 1 atm when it exceeds 10 m above the ground, it may be better that generators (not shown) in the case body (3a) of the vertical wind turbine (3) are vertically different.

図5は、第3実施例を示す、縦軸風車を使用した風力発電機の要部正面図、図6は要部平面図である。前例と同じ部位には、同じ符号を付して説明を省略する。
この第3実施例は、複数の縦軸風車(3)が、左右前後上下に集合されたものである。
FIG. 5 is a front view of an essential part of a wind turbine generator using a vertical axis wind turbine according to a third embodiment, and FIG. 6 is a plan view of the essential part. The same parts as those in the previous example are denoted by the same reference numerals and description thereof is omitted.
In the third embodiment, a plurality of vertical wind turbines (3) are assembled in the left, right, front, back, top and bottom.

この風力発電機(1)は、図5、図6に示すように、定間隔に配設された複数の支柱(2)によって、複合支柱構成体(22)が形成され、これに複数の配設部(B)が設けられ、各配設部(B)に縦軸風車(3)が、それぞれ配設されている。   As shown in FIGS. 5 and 6, the wind power generator (1) includes a plurality of struts (2) arranged at regular intervals to form a composite strut structure (22). The installation part (B) is provided, and the vertical axis wind turbine (3) is provided in each installation part (B).

各縦軸風車(3)のケース体(3a)の中には、縦主軸(5)と連結されて、図示しない発電器が配設されている。該配設部(B)は、可能な限り連続させる事が出来る。連続の状態は、直線の他に湾曲、ジグザグ状等に連続させることができる。   A generator (not shown) is disposed in the case body (3a) of each vertical wind turbine (3), connected to the longitudinal main shaft (5). This arrangement | positioning part (B) can be continued as much as possible. The continuous state can be continued in a curved or zigzag shape in addition to a straight line.

この配設部(B)の連続は、互いに密接せずに、間に支持体(2a)を介在させた接続をさせることができる。また各配設部(B)の高さも、例えば高低のある地形に倣って変化させることができる。   The arrangement of the arrangement portions (B) can be connected with the support (2a) interposed therebetween without being in close contact with each other. Moreover, the height of each arrangement | positioning part (B) can be changed according to the certain topography, for example.

各配設部(B)における各縦軸風車(3)は、長い縦主軸(5)が、上下複数の軸受(6)によって、回転自在に支持されている。該各軸受(6)は、隣の支柱(2)との間に架設された、上下複数の支持体(2a)に支持されている。各上下の軸受(6)の間には、それぞれ回転体(7)が縦主軸(5)に配設されている。   Each longitudinal wind turbine (3) in each arrangement portion (B) has a long longitudinal main shaft (5) rotatably supported by a plurality of upper and lower bearings (6). Each bearing (6) is supported by a plurality of upper and lower supports (2a) installed between adjacent bearing columns (2). Between each of the upper and lower bearings (6), a rotating body (7) is disposed on the vertical main shaft (5).

各回転体(7)の、左右の支持アーム(7b)の先端部には、それぞれ縦長の羽根(8)が、左側面を縦主軸(5)方向へ向けて左右対称に、それぞれ配設されている。上下の回転体(7)における左右対称の2枚の羽根(8)は、上下で羽根(8)同士が重なり合わないように、平面において位相を異差されて配設されている。   At the tips of the left and right support arms (7b) of each rotating body (7), vertically long blades (8) are arranged symmetrically with the left side facing the longitudinal main axis (5). ing. The two symmetrical left and right blades (8) of the upper and lower rotating bodies (7) are arranged with different phases in the plane so that the blades (8) do not overlap each other vertically.

このように構成された、この第3実施例の縦軸風車を使用した風力発電機(1)は、風況のよい場所に、台風や地震に対しても、全体として堅固な複合支柱構成体(22)を建設することができ、平面において複数の縦軸風車(3)を、複合支柱構成体(22)の中に、集合的に配設して複合風車からなる風力発電機とすることができる。   The wind power generator (1) using the vertical axis wind turbine of this third embodiment constructed as described above is a composite strut structure that is strong as a whole even in typhoons and earthquakes in places with good wind conditions. (22) can be constructed, and in the plane, a plurality of vertical wind turbines (3) are arranged together in the composite strut structure (22) to be a wind power generator composed of a composite wind turbine. Can do.

付随して、各縦軸風車(3)に多段に羽根(8)を配設することができる。複合支柱構成体(22)の上部には、当然に図示しない屋根、避雷針、太陽光発電パネル等を配設することができる。また下部域に図示しない部屋を形成することができる。更に、羽根(8)に通過風の影響を与えない位置、例えば軸受などのある部位、脚部等には、広告を表示出来る広告面を形成することができる。広告を表示して広告料収入がある時、複合支柱構成体(22)の維持管理費を確保する事ができる。   Along with this, it is possible to arrange the blades (8) in multiple stages on each longitudinal wind turbine (3). Of course, a roof, a lightning rod, a solar power generation panel, etc. (not shown) can be disposed on the upper part of the composite strut structure (22). A room (not shown) can be formed in the lower area. Furthermore, an advertisement surface on which an advertisement can be displayed can be formed at a position where the blade (8) is not affected by the passing air, for example, a part having a bearing or the like, a leg portion or the like. When the advertisement is displayed and there is an advertising fee income, the maintenance cost of the composite strut structure (22) can be secured.

これによって、風況の良い狭い場所に、堅固な複合支柱構成体(22)を建設して、その中の多数の配設部(B)に小型の縦軸風車(3)を多数配設し、大きな受風面積を獲得することができる。
各縦軸風車(3)における発電器個々の発電容量が、例えば5kw/hと小さな物であっても、1っの複合支柱構成体(22)における100基の縦軸風車(3)をもってすると、500kw/hという大きな発電容量の風力発電機(1)を構成することができる。
In this way, a solid composite strut structure (22) is constructed in a narrow place with good wind conditions, and a large number of small vertical wind turbines (3) are arranged in a number of arrangement parts (B). A large wind receiving area can be obtained.
Even if the power generation capacity of each generator in each vertical wind turbine (3) is as small as 5 kw / h, for example, if there are 100 vertical wind turbines (3) in one composite strut structure (22) The wind power generator (1) having a large power generation capacity of 500 kw / h can be configured.

すなわち、複合支柱構成体(22)に小型の縦軸風車(3)を集合させて、複合体にすることにより、大容量発電の風力発電機にすることが出来る。この複合支柱構成体(22)は、プロペラ式風車でなく、縦軸風車を使用するものであるから、多数を集合させることができるものであり、風力回収率の劣ると言われる縦軸風車も、このように複合的に多数集合させることにより、1つの発電設備で大容量発電をする、風力発電機にすることが出来るようになった。   That is, a large-capacity wind power generator can be obtained by assembling a composite vertical column wind turbine (3) on the composite strut structure (22) to form a composite. This composite strut structure (22) is not a propeller type windmill but uses a vertical axis windmill, so it is possible to gather a large number, and the vertical axis windmill which is said to be inferior in wind power recovery is also used. Thus, by combining a large number in a complex manner, it has become possible to make a wind power generator that generates a large amount of power with one power generation facility.

図7は、第4実施例を示す縦軸風車を使用した、風力発電機の要部平面図である。前例と同じ部位には、同じ符号を付して説明を省略する。
この第4実施例では、複数の支柱(2)により形成された配設部(B)を、平面で左右前後に複数連続させた複合支柱構成体(22)を形成し、各配設部(B)毎に縦軸風車(3)を配設したものである。
FIG. 7 is a plan view of an essential part of a wind power generator using a vertical wind turbine according to a fourth embodiment. The same parts as those in the previous example are denoted by the same reference numerals and description thereof is omitted.
In this 4th Example, the composite support | pillar structure body (22) which made the arrangement | positioning part (B) formed of the some support | pillar (2) continuous in the left and right and back and front on the plane is formed, A vertical wind turbine (3) is arranged for each B).

この複数の支柱(2)による、複合支柱構成体(22)での配設部(B)を、平面で左右前後に複数形成した場合、風の通りが悪くなることが考えられるが、配設部(B)の面積を広くして、間隙度を大きくすると、その問題は解決される。
また図7は、配設部(B)が四角環状に連続配設されている。この環状の配設部(B)は、円形でも、三角形でも、設置される地形に合わせて形成される。この態様は、台風や地震に対して容易に堅固なものとすることができる。
If a plurality of arrangement portions (B) in the composite strut structure (22) are formed by the plurality of struts (2) on the left and right and back and forth, it is possible that the wind passage will deteriorate, Increasing the area of the part (B) and increasing the degree of clearance solves the problem.
In FIG. 7, the arrangement portion (B) is continuously arranged in a square ring shape. The annular arrangement portion (B) is formed according to the terrain to be installed, whether circular or triangular. This aspect can be easily made robust against typhoons and earthquakes.

図8は、第5実施例を示す縦軸風車を使用した、風力発電機の要部平面図である。前例と同じ部位には、同じ符号を付して説明を省略する。
この第5実施例における風力発電機(1)は、複合支柱構成体(22)の配設部(B)が、平面で略Y形に連続形成されたものである。
この形状では、高層のものも、台風や地震に対して安定して剛性が保持できる。また、全方向からの風も、各配設部(B)に平均して通過することができる。
FIG. 8 is a plan view of an essential part of a wind power generator using a vertical wind turbine according to a fifth embodiment. The same parts as those in the previous example are denoted by the same reference numerals and description thereof is omitted.
In the wind power generator (1) in the fifth embodiment, the arrangement portion (B) of the composite strut structure (22) is continuously formed in a substantially Y shape on a plane.
With this shape, even high-rise ones can stably maintain rigidity against typhoons and earthquakes. Moreover, the wind from all directions can also pass through each arrangement | positioning part (B) on average.

なお、複合支柱構成体(22)の平面形は、W、E、T、Y、U、I、O、A、S、F、H、K、L、Z、X、V、B、N、M、△、□、☆形などにすることができる。この形状は、台風や地震などに対して、容易に堅固な物にすることができる。
このように、複合支柱構成体(22)の各配設部(B)に、縦軸風車(3)を配設し、全体として風力発電機(1)とすることによって、小型の縦軸風車(3)を使用することができる。
The planar shape of the composite strut structure (22) is W, E, T, Y, U, I, O, A, S, F, H, K, L, Z, X, V, B, N, It can be M, Δ, □, ☆, etc. This shape can be easily made strong against typhoons and earthquakes.
In this way, the vertical axis wind turbine (3) is arranged in each arrangement portion (B) of the composite strut structure (22), and the wind turbine generator (1) as a whole makes it possible to make a small vertical axis wind turbine. (3) can be used.

そのことから、羽根(8)を大きくする必要性がなくなり、軽量羽根を使用することにより、剛性、作業性、コストに優れている。また1本の縦主軸(5)に2枚羽根(8)を多段に、かつ上下の羽根(8)の位置を、平面で位相を異差させて配設することにより、同一水準における風抵抗を抑制し、また、風向きの変化に効率良く風の回収をすることができる。   Therefore, it is not necessary to enlarge the blade (8), and the use of a lightweight blade is excellent in rigidity, workability, and cost. Also, wind resistance at the same level can be achieved by arranging two blades (8) in multiple stages on one longitudinal main shaft (5) and the positions of the upper and lower blades (8) with different phases on a plane. In addition, it is possible to efficiently collect wind in response to changes in wind direction.

図9は第6実施例を示す縦軸風車を使用した、風力発電機の要部平面図である。前例と同じ部位には同じ符号を付して説明を省略する。
この第6実施例における風力発電機(1)は、複合支柱構成体(22)の配設部(B)における各縦軸風車(3)の縦主軸(5)が、同期伝動手段(5a)、例えばギヤ、チェーンなどによって、回転を同期摺るように構成されているものである。
FIG. 9 is a plan view of an essential part of a wind power generator using a vertical wind turbine according to a sixth embodiment. The same parts as those in the previous example are denoted by the same reference numerals and description thereof is omitted.
In the wind power generator (1) according to the sixth embodiment, the vertical main shaft (5) of each vertical wind turbine (3) in the arrangement part (B) of the composite strut structure (22) is synchronized with the transmission means (5a). For example, the rotation is synchronized with a gear, a chain, or the like.

これによって、風当りの良い部分の縦軸風車が回転し始めると、風当りの弱い部分の風車の回転を同期させて回転させるので、全体として同時に始回転を始める。
またこの複合支柱構成体(22)における、複数の配設部(B)において、1っの縦軸風車のみ大型の発電器を連結させて、他の縦軸風車(3)の回転力を前記同期伝動手段(5a)により同期伝動させることにより、大型の発電器を回転させることが出来る。この同期伝動手段(5a)は、図5以下の実施例にも利用することができる。
As a result, when the vertical axis windmill in the portion with good wind starts to rotate, the wind turbine in the portion with weak wind permeation is rotated in synchronization with each other, so that the initial rotation starts simultaneously as a whole.
Further, in the plurality of arrangement portions (B) in the composite strut structure (22), a large generator is connected to only one vertical wind turbine, and the rotational force of the other vertical wind turbine (3) is A large generator can be rotated by synchronous transmission by the synchronous transmission means (5a). This synchronous transmission means (5a) can also be used in the embodiments shown in FIG.

また図9において、同一水準における羽根(8)は、1っの回転体(7)において1枚羽根が示され、上下においては、羽根(8)同士が重ならないように、平面における羽根(8)の位置を90度ずつ変位されている。
水平方向においても、図示するように隣の縦主軸(5)の羽根(8)の向は変位されている。これらの羽根(8)の位相の変位角度は、この実施例に限定されるものではない。
In FIG. 9, the blades (8) at the same level are shown as one blade in one rotating body (7), and the blades (8) in the plane are arranged so that the blades (8) do not overlap each other vertically. ) Is displaced by 90 degrees.
Also in the horizontal direction, the direction of the blade (8) of the adjacent vertical main shaft (5) is displaced as shown in the figure. The displacement angle of the phase of these blades (8) is not limited to this embodiment.

この図9における1枚羽根(8)は、前例のいずれにも使用することができる。なお、図5以下の実施例において、上下方向、並びに水平方向において、羽根(8)の大きさ、同一水準における羽根(8)の枚数などを変化させることができる。   The single blade (8) in FIG. 9 can be used for any of the previous examples. In the embodiment shown in FIG. 5 and subsequent figures, the size of the blade (8), the number of blades (8) at the same level, and the like can be changed in the vertical and horizontal directions.

すなわち、羽根(8)の大きさ、枚数等によって、高速風に適す場合と、弱風でも回転するものとの差がある。
従って、大きな複合支柱構成体(22)に多数の配設部(B)がある場合、縦軸風車(3)の羽根(8)が同一であるよりも、差異がある方が、風の変化に対しては、どれかが回っているという点で、むしろ好ましい場合がある。そういう点で、高速風に適す風車(3)と、弱風に適する風車(3)の最大公約数の範囲で組合わせることができる。
That is, depending on the size and number of blades (8), there is a difference between a case suitable for high-speed wind and a case where it rotates even in low wind.
Therefore, when there are a large number of arrangement parts (B) in the large composite strut structure (22), the difference in the wind changes when the blade (8) of the vertical wind turbine (3) is the same, rather than the same. May be preferable in terms of which one is turning. In that respect, it can be combined in the range of the greatest common divisor of the windmill (3) suitable for high-speed winds and the windmill (3) suitable for weak winds.

この発明は、前記実施例に限定されるものではなく、目的に沿うように適宜設計変更をすることができる。例えば複合支柱構成体(22)は、疑似的に正面テーブル状にすることができる。また、各縦軸風車において、縦主軸(5)の下部に、フレキシブルシャフトを連結することができる。前記配設部(B)は、携帯電話やマイクロウェーブのアンテナ支柱等を利用して形成する事もできる。前記配設部(B)は、ユニット化して、この複数を連結させて、任意形状の複合支柱構成体(22)に、形成するようにすることができる。また、台風などによる破損部材の飛散を防止するためには、支柱(2)にネットなどを張設することができる。   The present invention is not limited to the above-described embodiments, and the design can be changed as appropriate in accordance with the purpose. For example, the composite strut structure (22) can be formed into a front table shape in a pseudo manner. In each vertical wind turbine, a flexible shaft can be connected to the lower part of the vertical main shaft (5). The arrangement portion (B) can also be formed by using a cellular phone, a microwave antenna support, or the like. The arrangement portion (B) can be formed into a unit, and a plurality of the arrangement portions (B) can be connected to form a composite strut structure (22) having an arbitrary shape. Moreover, in order to prevent the damage member from scattering due to a typhoon or the like, a net or the like can be stretched on the support column (2).

なお、図1において、ケース体(3a)に図示しない発電器を、縦主軸(5)と連結して配設するときは、全体が風力発電機(1)となるが、発電器を使用しないで、例えば揚水機、製粉機などをケース体(3a)に対応させる時は、符号(1)で示す全体は縦軸風車ということになるので、符号を読み替えるものとする。図5以下の構成においても同様である。   In addition, in FIG. 1, when a generator (not shown) is connected to the longitudinal main shaft (5) and arranged on the case body (3a), the whole becomes the wind power generator (1), but the generator is not used. Thus, for example, when a pumping machine, a milling machine, or the like is made to correspond to the case body (3a), since the whole indicated by the symbol (1) is a vertical axis wind turbine, the symbol is replaced. The same applies to the configuration in FIG.

この発明の縦軸風車は、羽根を多段に、かつ上下で重ならないように配設するので、小型羽根で効率良く風力回収をすることができて、高層の風力も利用することができる。
これにより、小型の風車の集合による大容量発電が可能な風力発電機に利用することができる。
Since the vertical axis windmill of this invention arrange | positions a blade | wing so that it may not overlap on upper and lower sides, it can collect | recover wind power efficiently with a small blade | wing, and can also utilize high-rise wind power.
Thereby, it can utilize for the wind power generator in which large-capacity electric power generation by a group of small windmills is possible.

本発明第1実施例の縦軸風車を使用した風力発電機の要部正面図である。It is a principal part front view of the wind power generator which uses the vertical axis | shaft windmill of 1st Example of this invention. 図1におけるAーA線横断平面図である。FIG. 2 is a cross-sectional plan view taken along line AA in FIG. 1. 羽根の平面位相を示す平面図である。It is a top view which shows the plane phase of a blade | wing. 本発明第2実施例の縦軸風車を使用した風力発電機の要部正面図である。It is a principal part front view of the wind power generator which uses the vertical axis | shaft windmill of 2nd Example of this invention. 本発明第3実施例の縦軸風車を使用した風力発電機の要部正面図である。It is a principal part front view of the wind power generator which uses the vertical axis | shaft windmill of 3rd Example of this invention. 本発明第3実施例の縦軸風車を使用した風力発電機の要部平面図である。It is a principal part top view of the wind power generator which uses the vertical axis | shaft windmill of 3rd Example of this invention. 本発明第4実施例の縦軸風車を使用した風力発電機の要部平面図である。It is a principal part top view of the wind power generator which uses the vertical axis | shaft windmill of 4th Example of this invention. 本発明第5実施例の縦軸風車を使用した風力発電機の要部平面図である。It is a principal part top view of the wind power generator which uses the vertical axis | shaft windmill of 5th Example of this invention. 本発明第6実施例の縦軸風車を使用した風力発電機の要部正面図である。It is a principal part front view of the wind power generator which uses the vertical axis | shaft windmill of 6th Example of this invention.

符号の説明Explanation of symbols

(1)風力発電機
(2)支柱
(22)複合支柱構成体
(3)縦軸風車
(3a)ケース体
(4)基盤
(5)縦主軸
(5a)同期伝動手段
(6)軸受
(7)回転体
(7a)軸部
(7b)支持アーム
(8)羽根
(8a)傾斜部
(9)蓄電器
(10)変圧器
(11)送電線
(B)配設部
(1) Wind generator
(2) Prop
(22) Composite strut structure
(3) Vertical axis windmill
(3a) Case body
(4) Base
(5) Vertical spindle
(5a) Synchronous transmission means
(6) Bearing
(7) Rotating body
(7a) Shaft
(7b) Support arm
(8) Feather
(8a) Inclined part
(9) Battery
(10) Transformer
(11) Transmission line
(B) Arrangement part

Claims (13)

複数の支柱で囲まれた中に設定された配設部に、縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下の軸受の間には、縦主軸に、それぞれ回転体が配設され、各回転体には縦長羽根が2枚、左側面を縦主軸に対面させて配設され、該上下の羽根の平面位置を、上下で異なる位相に配設されていることを特徴とする、縦軸風車。 A vertical main shaft is arranged in an arrangement portion set inside a plurality of support columns, and the vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding support columns, and between the upper and lower bearings. Each of the rotating main bodies is provided with a rotating body, and each rotating body is provided with two vertically long blades, with the left side facing the vertical main shaft, and the plane position of the upper and lower blades is set up and down. A vertical axis wind turbine characterized by being arranged in different phases. 複数の支柱で囲まれた中に設定された配設部に、縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下の軸受の間には、縦主軸に、それぞれ回転体が複数配設され、各回転体には縦長羽根が2枚、左側面を縦主軸に対面させて配設され、該上下の羽根の平面位置を、上下で異なる位相に配設されていることを特徴とする、縦軸風車。 A vertical main shaft is arranged in an arrangement portion set inside a plurality of support columns, and the vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding support columns. The vertical main shaft is provided with a plurality of rotating bodies, each of the rotating bodies is provided with two vertically long blades and the left side faced to the vertical main shaft. A vertical axis wind turbine characterized by being arranged in different phases. 前記縦主軸は、同一配設部に多段状に複数配設される事を特徴とする、請求項1.2のいずれかに記載された縦軸風車。 The vertical axis wind turbine according to any one of claims 1.2, wherein a plurality of the vertical main shafts are arranged in a multistage manner in the same arrangement part. 高圧送電線支持鉄塔を構成する、複数の支柱で囲まれた中に設定された配設部に縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下軸受の間には、縦主軸にそれぞれ回転体が配設され、各回転体には縦長羽根が、左側面を縦主軸に対面させて、配設されていることを特徴とする、縦軸風車。 A vertical main shaft is arranged in an arrangement portion that is set in a high-voltage transmission line support tower surrounded by a plurality of support columns, and the vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding columns. A rotating body is disposed on each of the vertical main shafts between the upper and lower bearings, and a longitudinal blade is disposed on each rotating body with the left side facing the vertical main shaft. , Vertical axis windmill. 複数の支柱で囲まれた中に1っの配設部が形成され、各配設部を平面において複数連続して複合支柱構成体が形成され、各配設部にそれぞれ縦主軸が配設され、該縦主軸は、周囲の支柱に支持された上下複数の軸受により支持され、各上下軸受の間には、縦主軸にそれぞれ回転体が配設され、各回転体には縦長羽根が、左側面を縦主軸に対面させて配設されていることを特徴とする、縦軸風車。 One arrangement part is formed in the area surrounded by the plurality of support columns, and a plurality of the installation parts are continuously formed on a plane to form a composite support column structure, and a vertical main shaft is provided in each installation part. The vertical main shaft is supported by a plurality of upper and lower bearings supported by surrounding struts. Between the upper and lower bearings, a rotary body is disposed on the vertical main shaft, and a vertical blade is provided on each rotary body. A vertical axis wind turbine characterized in that the surface is arranged to face the vertical main shaft. 前記縦主軸は、各同一配設部に、多段に複数配設されていることを特徴とする、請求項5に記載された縦軸風車。 The vertical wind turbine according to claim 5, wherein a plurality of the vertical main shafts are arranged in multiple stages in each same arrangement portion. 前記複合支柱構成体は、複数の支柱で囲まれた配設部を、平面で略W、E、T、Y、U、I、O、A、S、F、H、K、L、Z、X、V、B、N、M、△、□、☆形から選択される形状に、連続形成される事を特徴とする、請求項5.6のいずれかに記載された縦軸風車。 In the composite strut structure, an arrangement portion surrounded by a plurality of struts is substantially W, E, T, Y, U, I, O, A, S, F, H, K, L, Z, The vertical axis wind turbine according to any one of claims 5.6, wherein the wind turbine is continuously formed in a shape selected from X, V, B, N, M, Δ, □, and ☆. 前記各配設部に配設された各縦主軸が、同期伝動手段で同期するように連結されていることを特徴とする、請求項5〜7のいずれかに記載された、縦軸風車。 The vertical axis wind turbine according to any one of claims 5 to 7, wherein the vertical main shafts arranged in the respective arrangement portions are connected so as to be synchronized by a synchronous transmission means. 前記各配設部に配設された、各回転体は、支持アームを1本配設し、該1本の支持アームの先端部に、羽根が左側面を縦主軸に対面して配設され、上下の羽根は、平面で位相を変位させて配設されていることを特徴とする、請求項5〜8のいずれかに記載された縦軸風車。 Each rotating body arranged in each arrangement section has one support arm, and a blade is arranged at the tip of the one support arm with the left side facing the vertical main shaft. The vertical wind turbine according to any one of claims 5 to 8, wherein the upper and lower blades are disposed with a phase shifted in a plane. 前記各配設部に配設された、各回転体に装着された羽根は、同一でなく異った物が、風車全体の目的に沿って組合わされている事を特徴とする、請求項5〜8のいずれかに記載された縦軸風車。 The blades mounted on each rotating body disposed in each of the mounting portions are not the same, but different ones are combined in accordance with the purpose of the entire wind turbine. The vertical axis | shaft windmill described in any one of -8. 前記縦軸風車の支柱の外面であって、羽根に対する通過風の影響のない位置に、広告を表示出来る広告面が形成されていることを特徴とする、請求項1〜10のいずれかに記載された縦軸風車。 The advertising surface which can display an advertisement is formed in the position which is the outside surface of the pillar of the vertical axis windmill, and does not have the influence of the passage wind with respect to a blade. Vertical axis windmill. 高圧送電線支持鉄塔を複数利用し、鉄塔それぞれを構成する複数の支柱で囲まれた配設部に、発電器を保持する縦軸風車が配設され、各鉄塔間に張設された送電線に、前記縦軸風車の発電器の電気出力線が連結され、該各発電器により発電された電気を、それぞれ前記送電線から回収することを特徴とする、風力発電システム。 A transmission line that uses a plurality of high-voltage power transmission line support towers, and is provided with a vertical wind turbine that holds a power generator in an arrangement part surrounded by a plurality of columns that constitute each of the towers, and is stretched between the steel towers. In addition, an electrical output line of the generator of the vertical wind turbine is connected to each other, and electricity generated by each of the generators is collected from the transmission line, respectively. 複数の支柱で1っの配設部が形成され、各配設部を平面において複数連続して複合支柱構成体が形成され、各配設部に、それぞれ発電器を保持する縦軸風車が配設され、各縦軸風車の発電器により発電された電気を、1か所に集電して回収することを特徴とする、風力発電システム。
A plurality of struts form one disposing portion, and a plurality of disposing portions are continuously formed on a plane to form a composite strut structure, and each disposing portion is provided with a vertical wind turbine holding a generator. A wind power generation system that collects and collects electricity generated by a power generator of each vertical wind turbine at one location.
JP2004016436A 2003-10-22 2004-01-26 Vertical axis windmill Expired - Fee Related JP4625259B2 (en)

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JP2004016436A JP4625259B2 (en) 2004-01-26 2004-01-26 Vertical axis windmill
ES04792746.2T ES2441641T3 (en) 2003-10-22 2004-10-21 Vertical axis wind turbine
KR1020067009745A KR100756800B1 (en) 2003-10-22 2004-10-21 Vertical-shaft windmill
PCT/JP2004/015597 WO2005038251A1 (en) 2003-10-22 2004-10-21 Vertical-shaft windmill
EP04792746.2A EP1681463B1 (en) 2003-10-22 2004-10-21 Vertical-shaft windmill
US10/576,960 US7360995B2 (en) 2003-10-22 2004-10-21 Vertical axis windmill
DK04792746.2T DK1681463T3 (en) 2003-10-22 2004-10-21 Windmill with vertical shaft
CA2543399A CA2543399C (en) 2003-10-22 2004-10-21 Vertical axis windmill
RU2006117325/06A RU2329398C2 (en) 2003-10-22 2004-10-21 Wind-energetic plant with vertical axis
CNB2004800312258A CN100395447C (en) 2003-10-22 2004-10-21 Vertical-shaft windmill
TW093136859A TWI284180B (en) 2003-12-10 2004-11-30 Vertical-shaft windmill

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