JP6213905B1 - Mobile installation power generator - Google Patents

Mobile installation power generator Download PDF

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JP6213905B1
JP6213905B1 JP2017099378A JP2017099378A JP6213905B1 JP 6213905 B1 JP6213905 B1 JP 6213905B1 JP 2017099378 A JP2017099378 A JP 2017099378A JP 2017099378 A JP2017099378 A JP 2017099378A JP 6213905 B1 JP6213905 B1 JP 6213905B1
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裕一郎 橋口
裕一郎 橋口
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株式会社光風エネルギー
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    • 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
    • Y02E10/728Onshore wind turbines
    • 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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Abstract

【課題】発電効率を向上させると共に清掃作業を容易とした移動体設置型発電装置を提供する。【解決手段】本発明に係る移動体設置型発電装置1は、流体Wが導入される流入開口部9と流体Wを排出し流入開口部9と連通する排出開口部14と流体Wが移動する流体移動部7とを備えたケーシング2と、流体移動部7に流体Wの進行方向と略直角で略水平方向に回転軸63を有する回転翼61を備えた複数の発電部60を流体Wの進行方向に列設した移動体設置型発電装置1であって、流体移動部7は、前端部8を流入開口部9とし、後端部13を排出開口部14とし、上面16を回転翼61の回転軌跡に略一致する側面断面視半円弧状に形成して回転翼61の上半部を被覆する凹状整流部17とし、下面22を平面状の偏平整流部23とし、発電部60は、回転軸63の両端に発電機64を連結したことを特徴とする。【選択図】図1A moving object installation type power generation apparatus that improves power generation efficiency and facilitates cleaning work is provided. A moving body installed power generation apparatus according to the present invention includes an inflow opening to which a fluid W is introduced and a discharge opening that communicates with the inflow opening and the fluid W moves. A plurality of power generation units 60 each including a casing 2 including a fluid moving unit 7 and a rotating blade 61 having a rotation shaft 63 in a substantially horizontal direction substantially perpendicular to the traveling direction of the fluid W are provided on the fluid moving unit 7. In the moving body installation type power generator 1 arranged in the traveling direction, the fluid moving unit 7 has a front end 8 as an inflow opening 9, a rear end 13 as a discharge opening 14, and an upper surface 16 as a rotor blade 61. Are formed in a semicircular arc shape in a side sectional view substantially coincident with the rotation trajectory, and are formed as a concave rectification unit 17 covering the upper half of the rotor blade 61, a lower surface 22 as a flat flat rectification unit 23, and the power generation unit 60 includes: A generator 64 is connected to both ends of the rotating shaft 63. [Selection] Figure 1

Description

本発明は、自動車や船舶等の移動体に設置して発電を行う移動体設置型発電装置に関する。   The present invention relates to a moving body installation type power generation apparatus that generates power by being installed in a moving body such as an automobile or a ship.

近年、化石燃料の消費に伴い大気中に大量に排出される二酸化炭素等の温室効果ガスの影響により地球温暖化現象が加速し、これを改善しようとする動きが世界規模で進められており、旧来から行われている水力発電の見直しや、太陽光発電、風力発電といった自然エネルギーを利用した再生可能エネルギーの活用が急務となっている。   In recent years, the global warming phenomenon has accelerated due to the effects of greenhouse gases such as carbon dioxide discharged in large quantities into the atmosphere with the consumption of fossil fuels, and movements to improve this have been promoted worldwide. There is an urgent need to review traditional hydroelectric power generation and use renewable energy such as solar power and wind power.

移動体の1つである自動車に関しては、従来の内燃機関であるエンジンを動力発生器とするものからモーターを動力発生器とする電気自動車への転換が急がれ、例えば、エンジンとモーターを共に動力発生器として併用したハイブリッド型や、エンジンを発電装置として電気を蓄電しモーターを動力発生器としたものや、燃料自体に水素を利用して発電しモーターを動力発生器とするもの等、種々の技術開発が活発である。   With regard to automobiles that are one type of mobile body, there is an urgent need to switch from a conventional internal combustion engine engine that uses a power generator to an electric car that uses a motor as a power generator. Hybrid type used as a power generator, one using an engine as a power generator and storing electricity and using a motor as a power generator, one using hydrogen for fuel itself and using the motor as a power generator Technology development is active.

これらの技術は電気を溜める蓄電池が無ければ成立しないところ、蓄電池の技術開発も急速な進歩を遂げており、化石燃料から電気への動力源の転換は地球温暖化対策の施策の中で大きな期待を担っている。   These technologies cannot be established without a storage battery that can store electricity, but the technological development of storage batteries has also made rapid progress, and the conversion of the power source from fossil fuels to electricity is highly expected as a measure against global warming. Is responsible.

ここで、電気を動力源とする場合、蓄電池には移動体を動かすだけの電気が充電されていなければならないため、電力消費を可能な限り抑制することも必要不可欠な技術となり、例えば、自動車を減速させる際にジェネレーターによる回生ブレーキを利用することで電気エネルギーを回収し蓄電する技術が知られている。   Here, when electricity is used as the power source, the storage battery must be charged with electricity to move the moving body. Therefore, it is also an indispensable technology to suppress power consumption as much as possible. A technique is known in which electric energy is collected and stored by using a regenerative brake by a generator when decelerating.

また、例えば、特許文献1に記載の風力発電ユニットを備えた電気自動車では走行時に受ける風を自動車の上部に設置した風力発電ユニットに入風させ発電した電気を蓄電することで補助電源として補完しようとする技術が開示されている。   In addition, for example, in an electric vehicle equipped with a wind power generation unit described in Patent Document 1, let's complement the auxiliary power supply by storing the generated electricity by letting the wind received during driving into the wind power generation unit installed at the top of the vehicle The technology is disclosed.

具体的には、前後開口の筒状体の内部に入風方向と略同方向に回転軸を向けることができる首振り構造のプロペラ回転体を備えた発電機を内底部で支持するものであり、これを前後・左右方向に複数配設して発電を行うよう構成している。   Specifically, a generator including a propeller rotating body having a swinging structure capable of directing a rotating shaft in a direction substantially the same as the direction of the airflow in a cylindrical body having front and rear openings is supported at the inner bottom portion. A plurality of these are arranged in the front-rear and left-right directions to generate power.

実用新案登録第3169807号Utility model registration No. 3169807

確かに特許文献1に記載の技術によれば、走行時に自動車が受ける風の抵抗を電気に変えることができるため、エンジンを搭載したハイブリッド型の自動車やエンジンを発電装置として電気を蓄電して走る電気自動車等であれば、エンジンの動力源となるガソリン等を十分に有していても蓄電池に充電された電気量が少なければ、たとえ走行が可能であってもエアコンやオーディオ機器等といった電気機器の使用を控えなければならないところ、これら器機の使用を補完できる点で優れている。   Certainly, according to the technology described in Patent Document 1, since the wind resistance received by the vehicle during traveling can be changed to electricity, the vehicle is driven by storing electricity using a hybrid vehicle equipped with an engine or an engine as a power generator. If it is an electric vehicle etc., even if it has enough gasoline etc. as a power source for the engine, if the amount of electricity charged in the storage battery is small, even if it can run, it will be an electric device such as an air conditioner or audio equipment However, it is excellent in that it can supplement the use of these devices.

しかしながら、本技術における発電機は風力発電ユニットの内底部に支持固定されることから、走行中に該ユニット内部に侵入する虫やホコリ、雨といったものが内部に付着して発電効率が低下した際、清掃を行うために該ユニットを自動車のルーフから取り外した上で分解しなければ清掃作業ができないため作業が煩雑である。   However, since the generator in this technology is supported and fixed to the inner bottom of the wind power generation unit, insects, dust, rain, and the like that enter the unit during traveling are attached to the inside and the power generation efficiency decreases. Since the cleaning operation cannot be performed unless the unit is removed from the roof of the automobile and then disassembled for cleaning, the operation is complicated.

また、プロペラ回転体を首振り構造としているため、複数の発電機を配設すると該ユニット内で風の流れが乱れてしまい複数のプロペラ回転体を効率よく回転させることができず発電効率の低下が生じてしまう。   In addition, since the propeller rotor has a swing structure, if a plurality of generators are installed, the flow of wind is disturbed in the unit, and the plurality of propeller rotors cannot be efficiently rotated, resulting in a decrease in power generation efficiency. Will occur.

本発明は、以上のような事情に鑑みてなされたものであり、発電効率を向上させると共に清掃作業を容易とした移動体設置型発電装置を提供することにある。   This invention is made | formed in view of the above situations, and is providing the moving body installation type power generator which made the cleaning operation easy while improving power generation efficiency.

以上のような目的を達成するために、本発明は以下の技術を提供する。   In order to achieve the above object, the present invention provides the following techniques.

請求項1に係る発明では、流体が導入される流入開口部と前記流体を排出し前記流入開口部と連通する排出開口部と前記流体が移動する流体移動部とを備えたケーシングと、前記流体移動部に前記流体の進行方向と略直角で略水平方向に回転軸を有する回転翼を備えた複数の発電部を前記流体の進行方向に列設した移動体設置型発電装置であって、前記流入開口部と前記排出開口部の開口高さを略同高さに形成すると共に、前記流体移動部は、前端部を前記流入開口部とし、後端部を前記排出開口部とし、上面を前記回転翼の回転軌跡に略一致する側面断面視半円弧状に形成して前記回転翼の上半部を被覆する凹状整流部とし、下面を前記流入開口部から挿抜できる平面状で板状着脱自在な偏平整流部とし、前記発電部は、前記回転軸の両端に発電機を連結し、たことを特徴とする移動体設置型発電装置を提供せんとする。
In the invention according to claim 1, a casing including an inflow opening into which a fluid is introduced, a discharge opening that discharges the fluid and communicates with the inflow opening, and a fluid moving unit in which the fluid moves, the fluid in the traveling direction substantially perpendicular of the fluid in the moving part a mobile stationary power generation apparatus arrayed plurality of the power generation portion in the traveling direction of said fluid with a rotating blade having an axis of rotation in a substantially horizontal direction, wherein The opening height of the inflow opening and the discharge opening is formed to be substantially the same height, and the fluid moving section has the front end as the inflow opening, the rear end as the discharge opening, and the upper surface as the above. A flat plate-like attachment / detachment that is formed in a semicircular arc shape in a side sectional view substantially coincident with the rotation trajectory of the rotor blade and that covers the upper half of the rotor blade, and whose lower surface can be inserted and removed from the inflow opening. and freely flat rectifying unit, the power generation unit, both of the rotary shaft A generator connected, provides cents to the mobile stationary power generator, characterized in that was.

請求項に係る発明では、前記偏平整流部は、表面に凹凸を形成して前記流体の流れを整える整流実行部を形成したことを特徴とする請求項1に記載の移動体設置型発電装置を提供せんとする。
In the invention which concerns on Claim 2 , the said flat rectification | straightening part formed the rectification | straightening execution part which forms an unevenness | corrugation in the surface, and arranges the flow of the said fluid, The moving body installation type power generator of Claim 1 characterized by the above-mentioned. I will give you.

請求項に係る発明では、前記流入開口部と前記排出開口部にはシャッター部を備え、前記シャッター部は、左右方向に長方形状の複数の板材を上方の板材の下端縁がその下方の板材の上端縁を被覆するよう所定間隔で鉛直方向に配設してブラインド状に構成し、各々の前記板材の上部側両端を前記ケーシングに回動自在に枢支連結することで、流体圧を受けた前記板材が前記流体圧により略水平方向に回動して前記シャッター部が開蓋し、前記板材が前記流体圧を受けなければ前記板材は自重により略鉛直方向に回動して前記シャッター部が閉蓋するよう構成したことを特徴とする請求項1又は2に記載の移動体設置型発電装置を提供せんとする。
In the invention which concerns on Claim 3 , the said inflow opening part and the said discharge | emission opening part are equipped with a shutter part, and the said shutter part is a board | plate material in which the lower end edge of the board | plate material of the upper part of the rectangular board material in the left-right direction is the lower side. It is arranged in a vertical direction at predetermined intervals so as to cover the upper edge of the plate, and is configured in a blind shape. Both upper ends of each plate member are pivotally connected to the casing to receive fluid pressure. The plate member is rotated in a substantially horizontal direction by the fluid pressure to open the shutter portion. If the plate member is not subjected to the fluid pressure, the plate member is rotated in a substantially vertical direction by its own weight. There is provided St. mobile stationary power generating apparatus according to claim 1 or 2, characterized by being configured to closing.

請求項1記載の発明によれば、流体が導入される流入開口部と前記流体を排出し前記流入開口部と連通する排出開口部と前記流体が移動する流体移動部とを備えたケーシングと、前記流体移動部に前記流体の進行方向と略直角で略水平方向に回転軸を有する回転翼を備えた複数の発電部を前記流体の進行方向に列設した移動体設置型発電装置であって、前記流入開口部と前記排出開口部の開口高さを略同高さに形成すると共に、前記流体移動部は、前端部を前記流入開口部とし、後端部を前記排出開口部とし、上面を前記回転翼の回転軌跡に略一致する側面断面視半円弧状に形成して前記回転翼の上半部を被覆する凹状整流部とし、下面を前記流入開口部から挿抜できる平面状で板状着脱自在な偏平整流部とし、前記発電部は、前記回転軸の両端に発電機を連結したことより、移動体の走行時に流体移動部に侵入する虫やホコリ、雨といったものが付着しやすい偏平整流部に対して、発電機の電源をOFF状態として励磁を解除すれば、流入開口部や排出開口部からスポンジ等の洗浄部材を持った手や先端にスポンジ等の洗浄部材を備えた長尺の洗浄道具等を挿入して偏平整流部を容易に清掃することができる。
According to the invention of claim 1, a casing including an inflow opening into which a fluid is introduced, a discharge opening that discharges the fluid and communicates with the inflow opening, and a fluid moving unit in which the fluid moves; A moving body-installed power generation apparatus in which a plurality of power generation units each having a rotating blade having a rotation axis in a substantially horizontal direction substantially perpendicular to the fluid traveling direction are arranged in the fluid traveling unit in the fluid traveling direction. The inflow opening and the discharge opening are formed to have substantially the same opening height, and the fluid moving part has a front end as the inflow opening and a rear end as the discharge opening. Is formed in a semicircular arc shape in a side sectional view substantially coincident with the rotation trajectory of the rotor blade to form a concave rectifying portion covering the upper half of the rotor blade, and a flat plate-like shape in which the lower surface can be inserted and removed from the inflow opening and a removable flat rectifying unit, the power generation unit, the rotary shaft Since the generator is connected to both ends, the generator is turned off and the excitation is released for the flat rectifying unit that is likely to be attached to insects, dust, rain, etc. that enter the fluid moving unit when the moving body is running. If you do this, you can easily clean the flat rectifying unit by inserting a hand with a cleaning member such as sponge from the inflow opening or discharge opening or a long cleaning tool with a cleaning member such as sponge at the tip. Can do.

また、凹状整流部により流体の乱れを整えることができるので、後続の回転翼への影響を緩和でき、列設した複数の発電機を効率よく稼働させることができる。   In addition, since the turbulence of the fluid can be adjusted by the concave rectification unit, the influence on the subsequent rotor blades can be alleviated, and the plurality of generators arranged in a row can be operated efficiently.

更に、1つの回転軸に対して左右両端に発電機を有するため、回転翼の回転時に負荷が一方に偏ることなく均等に分散され、発電効率や耐久性の面で有利である。   Furthermore, since the generators are provided at both the left and right sides with respect to one rotating shaft, the load is evenly distributed without being biased to one side when the rotor blades rotate, which is advantageous in terms of power generation efficiency and durability.

また、凹状整流部と偏平整流部との鉛直方向の位置関係が流入開口部から排出開口部に至るまで一定に保たれるので、流体移動部を通過する流体の流れが安定し複数の発電機を効率よく稼働させることができる。
In addition , since the vertical positional relationship between the concave rectifying unit and the flat rectifying unit is kept constant from the inflow opening to the discharge opening, the flow of fluid passing through the fluid moving unit is stabilized, and a plurality of generators Can be operated efficiently.

また、偏平整流部は、着脱自在に構成したことより、移動体の走行時に流体移動部に侵入する虫やホコリ、雨といったものが付着しやすい偏平整流部を取り外して容易に清掃することができる。
Also, the flat rectifying section, than that detachably configured, insects and dust from entering the fluid transfer unit during traveling of the mobile object, you to easily clean and remove the flat rectifying section things like rain is likely to adhere it can.

請求項記載の発明によれば、偏平整流部は、表面に凹凸を形成して流体の流れを整える整流実行部を形成したことより、流体移動部を通過する流体の流れが更に安定し複数の発電機を効率よく稼働させることができる。
According to the second aspect of the invention, the flat rectifying section, than to the formation of the rectifying execution unit for forming an uneven surface adjust the flow of fluid, more stable flow of fluid through the fluid moving unit more Can be operated efficiently.

請求項記載の発明によれば、流入開口部と排出開口部にはシャッター部を備え、シャッター部は、左右方向に長方形状の複数の板材を上方の板材の下端縁がその下方の板材の上端縁を被覆するよう所定間隔で鉛直方向に配設してブラインド状に構成し、各々の板材の上部側両端をケーシングに回動自在に枢支連結することで、流体圧を受けた板材が流体圧により略水平方向に回動してシャッター部が開蓋し、板材が流体圧を受けなければ板材は自重により略鉛直方向に回動してシャッター部が閉蓋するよう構成したことより、移動体を走行させないときはシャッター部が閉蓋し流体移動部内への異物浸入を防止することができる。 According to the third aspect of the present invention, the inflow opening and the discharge opening are provided with a shutter portion, and the shutter portion has a plurality of rectangular plates in the left-right direction, and the lower end edge of the upper plate is the lower plate. It is arranged in the vertical direction at a predetermined interval so as to cover the upper edge, and is configured in a blind shape. The shutter part is opened by rotating in the substantially horizontal direction due to the fluid pressure, and the plate part is rotated in the substantially vertical direction by its own weight and the shutter part is closed unless the plate material receives the fluid pressure. When the moving body is not run, the shutter portion is closed to prevent foreign matter from entering the fluid moving portion.

本実施形態に係る発電装置を搭載した自動車の斜視図である。It is a perspective view of the car carrying the power generator concerning this embodiment. (a)は本実施形態に係る発電装置の前方斜視図で、(b)は正面図で、(c)は背面図である。(A) is the front perspective view of the electric power generating apparatus which concerns on this embodiment, (b) is a front view, (c) is a rear view. (a)は本実施形態に係る発電装置の側面断面図で、(b)は発電部の斜視図で、(c)は発電部の正面図である。(A) is side surface sectional drawing of the electric power generating apparatus which concerns on this embodiment, (b) is a perspective view of an electric power generation part, (c) is a front view of an electric power generation part. (a)、(b)は変形例に係る偏平整流部の断面図と平面図である。(A), (b) is sectional drawing and a top view of the flat rectification | straightening part which concerns on a modification. (a)は変形例に係る偏平整流部の着脱を示す部分拡大断面図で、(b)は斜視説明図で、(c)は偏平整流部の嵌合状態を示す部分拡大断面図である。(A) is a partial expanded sectional view which shows attachment / detachment of the flat rectification | straightening part which concerns on a modification, (b) is a perspective explanatory drawing, (c) is a partial expanded sectional view which shows the fitting state of a flat rectification | straightening part. (a)は変形例に係る流入開口部のシャッター部を示す斜視説明図で、(b)はシャッター部を閉じた状態を示す部分拡大断面図で、(c)はシャッター部を開けた状態を示す部分拡大断面図である。(A) is perspective explanatory drawing which shows the shutter part of the inflow opening part which concerns on a modification, (b) is a partial expanded sectional view which shows the state which closed the shutter part, (c) is the state which opened the shutter part. It is a partial expanded sectional view shown. (a)は変形例に係る流入開口部のシャッター部を示す斜視説明図で、(b)はシャッター部を閉じた状態を示す部分拡大断面図で、(c)はシャッター部を開けた状態を示す部分拡大断面図である。(A) is perspective explanatory drawing which shows the shutter part of the inflow opening part which concerns on a modification, (b) is a partial expanded sectional view which shows the state which closed the shutter part, (c) is the state which opened the shutter part. It is a partial expanded sectional view shown. (a)は変形例に係る流体抵抗操作部の斜視説明図で、(b)は流体抵抗操作部の部分拡大断面図である。(A) is a perspective explanatory drawing of the fluid resistance operation part which concerns on a modification, (b) is the elements on larger scale of the fluid resistance operation part.

本発明の実施形態に係る移動体設置型発電装置の要旨は、流体が導入される流入開口部と流体を排出し流入開口部と連通する排出開口部と流体が移動する流体移動部とを備えたケーシングと、流体移動部に流体の進行方向と略直角で略水平方向に回転軸を有する回転翼を備えた複数の発電部を流体の進行方向に列設した移動体設置型発電装置であって、流体移動部は、前端部を流入開口部とし、後端部を排出開口部とし、上面を回転翼の回転軌跡に略一致する側面断面視半円弧状に形成して回転翼の上半部を被覆する凹状整流部とし、下面を平面状の偏平整流部とし、発電部は、回転軸の両端に発電機を連結したことを特徴とする。すなわち、発電効率を向上させると共に清掃作業を容易とした移動体設置型発電装置の提供を図ろうとするものである。   A gist of a movable body-installed power generator according to an embodiment of the present invention includes an inflow opening into which a fluid is introduced, a discharge opening that discharges the fluid and communicates with the inflow opening, and a fluid moving unit through which the fluid moves. A moving body-installed power generation apparatus in which a plurality of power generation sections each having a casing and a fluid moving section and rotating blades having a rotation axis in a substantially horizontal direction substantially perpendicular to the fluid traveling direction are arranged in the fluid traveling direction. The fluid moving portion has a front end portion as an inflow opening portion, a rear end portion as a discharge opening portion, and an upper surface formed in a semicircular shape in a side cross-sectional view that substantially coincides with the rotation trajectory of the rotor blade. A concave rectifying unit covering the part and a flat flat rectifying unit on the lower surface are provided, and the power generation unit is characterized in that a generator is connected to both ends of the rotating shaft. That is, the present invention intends to provide a mobile unit installation type power generation device that improves power generation efficiency and facilitates cleaning work.

なお、本発明に係る流体とは、風や液体を示しており、例えば、自動車においては風を意味し、船舶であれば海水や淡水が流体として想定され、本実施形態では移動体を自動車として説明しているため流体として風を用いて説明している。   Note that the fluid according to the present invention indicates wind or liquid. For example, in a car, it means wind. In the case of a ship, seawater or fresh water is assumed as a fluid. In this embodiment, the moving body is a car. Since it is explaining, it explains using wind as a fluid.

従って、本移動体設置型発電装置を搭載できる移動体は、自動車(一般的な自動車やトラックやバス等の用途は問わず、ハイブリッド型や電気自動車等の動力機構を問わない)や自転車やオートバイ(用途は問わず、ハイブリッド型や電動オートバイ等の動力機構を問わない)、電車等や船舶等、飛行機等にも搭載できることは言うまでもない。   Accordingly, mobile bodies that can be mounted with the mobile body installed power generator are automobiles (regardless of general automobiles, trucks, buses, etc., regardless of the power mechanism such as hybrid type or electric vehicles), bicycles, motorcycles. Needless to say, it can be mounted on trains, ships, airplanes, etc. (regardless of application, regardless of the power mechanism such as a hybrid type or an electric motorcycle).

以下、本発明に係る移動体設置型発電装置の実施形態について図面を参照しながら説明する。また、本説明中において左右とは、移動体に乗った運転者の視点を基準として位置関係を説明しており、例えば、図1において移動体設置型発電装置1の左側とは左部6を示している。   DESCRIPTION OF EMBODIMENTS Hereinafter, an embodiment of a moving object installation type power generator according to the present invention will be described with reference to the drawings. Further, in the present description, the left and right refers to the positional relationship based on the viewpoint of the driver riding on the moving body. For example, the left side 6 of the moving body-installed power generation apparatus 1 in FIG. Show.

また、左右同一又は左右対称の構造や部品については、原則として同一の符号を付し、左右何れか一方のみを説明して、他方については説明を適宜省略する。   Further, in principle, the same or symmetrical structures and parts are attached with the same reference numerals, and only one of the left and right is described, and the description of the other is omitted as appropriate.

[実施形態]
本発明の実施形態に係る移動体設置型発電装置1は、図1〜図3に示すように、流体W(以下、風とする)が導入される流入開口部9と風Wを排出し流入開口部9と連通する排出開口部14と風Wが移動する流体移動部7とを備えたケーシング2と、流体移動部7に風Wの進行方向と略直角で略水平方向に回転軸63を有する回転翼61を備えた複数の発電部60を風Wの進行方向に列設した移動体設置型発電装置1であって、流体移動部7は、前端部8を流入開口部9とし、後端部13を排出開口部14とし、上面16を回転翼61の回転軌跡に略一致する側面断面視半円弧状に形成して回転翼61の上半部を被覆する凹状整流部17とし、下面22を平面状の偏平整流部23とし、発電部60は、回転軸63の両端に発電機64,64を連結して構成している。
[Embodiment]
As shown in FIGS. 1 to 3, the mobile unit installed power generation apparatus 1 according to the embodiment of the present invention discharges an inflow opening 9 into which a fluid W (hereinafter referred to as wind) is introduced and the wind W and flows in. A casing 2 having a discharge opening 14 communicating with the opening 9 and a fluid moving part 7 through which the wind W moves, and a rotating shaft 63 in a substantially horizontal direction substantially perpendicular to the traveling direction of the wind W in the fluid moving part 7. The movable body-installed power generation apparatus 1 in which a plurality of power generation units 60 including rotating blades 61 are arranged in the traveling direction of the wind W. The fluid movement unit 7 has a front end 8 as an inflow opening 9 and a rear The end portion 13 is a discharge opening portion 14, the upper surface 16 is formed in a semicircular arc shape in a side sectional view substantially coincident with the rotation trajectory of the rotary blade 61, and the concave rectifying portion 17 covering the upper half portion of the rotary blade 61 is formed. 22 is a flat rectification unit 23, and the power generation unit 60 includes generators 64, 64 at both ends of the rotating shaft 63. It has been constructed by sintering.

また、流入開口部9と排出開口部14の開口高さTを略同高さに形成すると共に、ケーシング2は、流入開口部9の前方に拡開する流体導入案内部35を有し、流体導入案内部35は、ケーシング2の前端下方から偏平整流部23にかけて上昇する傾斜状に形成し偏平整流部23と面一で連接する導入下部36と、ケーシング2の前端上方から最前の凹状整流部17の前端縁19と連接する導入上部42と、ケーシング2の前端左右方から流入開口部9の左右側に各々伸延する導入左部51と導入右部50と、からなり、移動体A(以下、自動車とする)のルーフ上に流入開口部9を前方に向けて設置される。   In addition, the opening height T of the inflow opening 9 and the discharge opening 14 is formed to be substantially the same height, and the casing 2 includes a fluid introduction guide portion 35 that expands in front of the inflow opening 9. The introduction guide part 35 is formed in an inclined shape that rises from the lower front end of the casing 2 to the flat rectification part 23, and is connected to the flat rectification part 23 in a flush manner, and the foremost concave rectification part from the upper front end of the casing 2. 17 includes an introduction upper part 42 connected to the front edge 19 of the casing 17, an introduction left part 51 and an introduction right part 50 respectively extending from the left and right sides of the front end of the casing 2 to the left and right sides of the inflow opening 9. The inflow opening 9 is installed on the roof of the automobile).

具体的には、ケーシング2は、図2(a)〜(c)、図3(a)に示すように、上部3と下部4と左部6と右部5とで外観をなし、前方に流入開口部9と連接した流体導入案内部35を形成すると共に後方に排出開口部14と連接した流体排出案内部53を形成して前後開口の箱状に形成している。   Specifically, as shown in FIGS. 2 (a) to 2 (c) and FIG. 3 (a), the casing 2 has an outer appearance with an upper part 3, a lower part 4, a left part 6, and a right part 5, and forward. A fluid introduction guide portion 35 connected to the inflow opening portion 9 is formed, and a fluid discharge guide portion 53 connected to the discharge opening portion 14 is formed rearward to form a box shape with front and rear openings.

流体導入案内部35は、導入下部36と導入上部42と導入左部51と導入右部50とで構成し、導入下部36はケーシング2の下部4の前方の一部であり、下部4の前端下方から後述する偏平整流部23にかけて外側に湾曲して上昇する傾斜状に形成して偏平整流部23と面一で連接するよう形成している。   The fluid introduction guide portion 35 includes an introduction lower portion 36, an introduction upper portion 42, an introduction left portion 51, and an introduction right portion 50, and the introduction lower portion 36 is a part of the front of the lower portion 4 of the casing 2. It is formed so as to be inclined outwardly from below to a flat rectifying unit 23, which will be described later, and is connected to the flat rectifying unit 23 in a flush manner.

導入上部42は、ケーシング2の上部3の前方の一部であり、上部3の前端上方から後述する最前の凹状整流部17の前端縁19にかけて内側に湾曲して下降する傾斜状に形成して凹状整流部17の前端縁19と連接するよう形成している。   The introduction upper part 42 is a part of the front part of the upper part 3 of the casing 2, and is formed in an inclined shape that curves inward and descends from the upper front end of the upper part 3 to the front end edge 19 of the foremost concave rectifying unit 17 described later. It is formed so as to be connected to the front end edge 19 of the concave rectifying unit 17.

導入左部51と導入右部50は、ケーシング2の左右部5,6の前方の一部であり、左右部5,6の前端から流入開口部9の左右側にかけて外側に湾曲しながら各々伸延している。   The introduction left portion 51 and the introduction right portion 50 are a part of the front of the left and right portions 5 and 6 of the casing 2, and each extend while curving outward from the front end of the left and right portions 5 and 6 to the left and right sides of the inflow opening 9. doing.

なお、導入下部36、導入上部42、導入左部51、導入右部50は風Wによる抵抗をできるだけ低減させるために角部等を滑らかな湾曲状に形成することが望ましい。   In addition, in order to reduce the resistance due to the wind W as much as possible, it is desirable that the introduction lower portion 36, the introduction upper portion 42, the introduction left portion 51, and the introduction right portion 50 be formed with a smooth curved shape.

また、流体排出案内部53は、排出下部54と排出上部55と排出左部56と排出右部57とで構成し、排出下部54はケーシング2の下部4の後方の一部であり、下部4の後端下方から偏平整流部23にかけて外側に湾曲して上昇する傾斜状に形成して偏平整流部23と面一で連接するよう形成している。   The fluid discharge guide portion 53 includes a discharge lower portion 54, a discharge upper portion 55, a discharge left portion 56 and a discharge right portion 57. The discharge lower portion 54 is a part of the rear of the lower portion 4 of the casing 2. It is formed so as to be inclined outwardly from the lower end of the rear end to the flat rectifying portion 23 so as to be connected to the flat rectifying portion 23 in a flush manner.

排出上部55は、ケーシング2の上部3の後方の一部であり、上部3の後端上方から最後端の凹状整流部17の後端縁20にかけて外側に湾曲して下降する傾斜状に形成して凹状整流部17の後端縁20と連接するよう形成している。   The discharge upper part 55 is a part of the rear part of the upper part 3 of the casing 2 and is formed in an inclined shape that is curved outward and descends from the rear end upper part of the upper part 3 to the rear end edge 20 of the concave rectifying part 17 at the rearmost end. The concave rectifying unit 17 is formed so as to be connected to the rear end edge 20.

排出左部56と排出右部57は、ケーシング2の左右部5,6の後方の一部であり、左右部5,6の後端から排出開口部14の左右側にかけて外側に湾曲しながら各々伸延している。   The discharge left part 56 and the discharge right part 57 are a part of the rear of the left and right parts 5 and 6 of the casing 2, and are curved outwardly from the rear ends of the left and right parts 5 and 6 to the left and right sides of the discharge opening 14. It is distracted.

すなわち、流体排出案内部53の形状は、排出上部55以外を流体導入案内部35と同様に形成している。なお、排出下部54、排出上部55、排出左部56、排出右部57は風Wによる抵抗をできるだけ低減させるために角部等を滑らかな湾曲状に形成することが望ましい。   That is, the shape of the fluid discharge guide portion 53 is the same as that of the fluid introduction guide portion 35 except for the discharge upper portion 55. Note that it is desirable that the discharge lower portion 54, the discharge upper portion 55, the discharge left portion 56, and the discharge right portion 57 have corners or the like formed in a smooth curved shape in order to reduce the resistance caused by the wind W as much as possible.

流入開口部9から入った風Wは、ケーシング2内に形成した流体移動部7を通過して排出開口部14から排出される。   The wind W entering from the inflow opening 9 passes through the fluid moving part 7 formed in the casing 2 and is discharged from the discharge opening 14.

流体移動部7には後述する複数の発電部60が列設され、流体移動部7を通過する風Wが発電部60の回転翼61を回転させることで連結する発電機64の電磁誘導により発電される。   A plurality of power generation units 60 to be described later are arranged in the fluid moving unit 7, and the wind W passing through the fluid moving unit 7 generates power by electromagnetic induction of a generator 64 connected by rotating the rotor blades 61 of the power generation unit 60. Is done.

流体移動部7は、前端部8を流入開口部9とし、後端部13を排出開口部14とし、上面16を回転翼61の回転軌跡に略一致する側面断面視半円弧状に形成して回転翼61の上半部を被覆する凹状整流部17とし、下面22を平面状の偏平整流部23として形成している。   The fluid moving part 7 has a front end part 8 as an inflow opening part 9, a rear end part 13 as a discharge opening part 14, and an upper surface 16 formed in a semicircular arc shape in a side sectional view substantially coinciding with the rotation trajectory of the rotor blade 61. The concave rectification unit 17 covering the upper half of the rotor blade 61 is formed, and the lower surface 22 is formed as a flat flat rectification unit 23.

すなわち、上面16は、前方から後方にかけて発電部60の数に応じた内側に凹状の連続した波型に形成されており、下面22は、前方から後方にかけて均一な平面状に形成されている。   That is, the upper surface 16 is formed in a concave continuous wave shape on the inner side corresponding to the number of the power generation units 60 from the front to the rear, and the lower surface 22 is formed in a uniform flat shape from the front to the rear.

このように形成されたケーシング2内の流体移動部7には、風Wの進行方向と略直角で略水平方向に回転軸63を有する回転翼61を備えた複数の発電部60を風Wの進行方向に列設している。   In the fluid moving part 7 in the casing 2 formed in this way, a plurality of power generating parts 60 including a rotary blade 61 having a rotating shaft 63 in a substantially horizontal direction substantially perpendicular to the traveling direction of the wind W are supplied to the wind W. They are lined up in the direction of travel.

具体的には、発電部60は、図3(b)に示すように、中心から等角度で放射状に伸延する横長の長方形状の3枚のプロペラ62からなる回転翼61と、回転翼61の中心軸から外側に突出した回転軸63と、回転軸63の両端に連結した三相交流型の小型の発電機64,64とで構成している。   Specifically, as shown in FIG. 3B, the power generation unit 60 includes a rotor blade 61 composed of three horizontally long propellers 62 extending radially at an equal angle from the center, and a rotor blade 61. The rotary shaft 63 protrudes outward from the central axis, and the three-phase AC type small generators 64 and 64 connected to both ends of the rotary shaft 63.

なお、発電機64は三相交流型に限定されるものではない。   The generator 64 is not limited to the three-phase AC type.

回転翼61の端縁と偏平整流部23との距離tは図3(c)に示すように可能な限り近接するよう構成しており、また、回転翼61の端縁と凹状整流部17との距離(図示せず)も同様に可能な限り近接するよう構成している。   The distance t between the edge of the rotor blade 61 and the flat rectifying unit 23 is configured to be as close as possible as shown in FIG. 3C, and the edge of the rotor blade 61 and the concave rectifying unit 17 are Similarly, the distance (not shown) is set as close as possible.

また、発電部60は、図3(a)に示すように、流体移動部7の前方から後方にかけて5台収容し、発電部60が備える各々の発電機64から発電された電気が電気配線により自動車A内に配置された図示しない蓄電池に蓄電されるが、発電された電気の性質等により電気配線の中途部に直流変換器や整流装置、変圧器等が介在する。   Moreover, as shown to Fig.3 (a), the electric power generation part 60 accommodates five units | sets from the front to the back of the fluid moving part 7, and the electric power generated from each generator 64 with which the electric power generation part 60 is provided is electric wiring. Although stored in a storage battery (not shown) disposed in the car A, a DC converter, a rectifier, a transformer, and the like are interposed in the middle of the electrical wiring due to the nature of the generated electricity.

なお、発電部60の個数は本実施形態に限定されるものではないが、発電量を考慮すると3台以上の設置が望ましい。   The number of power generation units 60 is not limited to the present embodiment, but it is desirable to install three or more units in consideration of the amount of power generation.

また、回転翼61の形状等も本実施形態に限定されるものではなく、例えば、プロペラ62の数を4枚にしたり、プロペラ62を湾曲状にしたり、更にはシロッコファンとしたり等、本発明の要旨の範囲内において種々の変形・変更が可能である。   Further, the shape of the rotor blade 61 is not limited to the present embodiment. For example, the number of the propellers 62 is four, the propellers 62 are curved, and the sirocco fan is used. Various modifications and changes can be made within the scope of the present invention.

以上、説明したように本実施形態に係る移動体設置型発電装置1は、風Wが導入される流入開口部9と風Wを排出し流入開口部9と連通する排出開口部14と風Wが移動する流体移動部7とを備えたケーシング2と、流体移動部7に風Wの進行方向と略直角で略水平方向に回転軸63を有する回転翼61を備えた複数の発電部60を風Wの進行方向に列設した移動体設置型発電装置1であって、流体移動部7は、前端部8を流入開口部9とし、後端部13を排出開口部14とし、上面16を回転翼61の回転軌跡に略一致する側面断面視半円弧状に形成して回転翼61の上半部を被覆する凹状整流部17とし、下面22を平面状の偏平整流部23とし、発電部60は、回転軸63の両端に発電機64を連結したことより、自動車Aの走行時に流体移動部7に侵入する虫やホコリ、雨といったものが付着しやすい偏平整流部23に対して、発電機64の電源をOFF状態として励磁を解除すれば、流入開口部9や排出開口部14からスポンジ等の洗浄部材を持った手や先端にスポンジ等の洗浄部材を備えた長尺の洗浄道具等を挿入して偏平整流部23を容易に清掃することができる。   As described above, the mobile body installed power generation apparatus 1 according to the present embodiment includes the inflow opening 9 into which the wind W is introduced, the exhaust opening 14 that discharges the wind W, and communicates with the inflow opening 9 and the wind W. And a plurality of power generation units 60 each including a rotor blade 61 having a rotating shaft 63 in a substantially horizontal direction substantially perpendicular to the traveling direction of the wind W. In the moving body installation type power generators 1 arranged in the direction in which the wind W travels, the fluid moving unit 7 has a front end 8 as an inflow opening 9, a rear end 13 as a discharge opening 14, and an upper surface 16. A concave rectification unit 17 that is formed in a semicircular arc shape in a side sectional view that substantially matches the rotation trajectory of the rotor blade 61 and covers the upper half of the rotor blade 61, and a lower flat surface rectifier unit 23 on the lower surface 22. 60 is connected to the both ends of the rotating shaft 63, so that the vehicle A is traveling. If the excitation is released by turning off the power of the generator 64 with respect to the flat rectifying unit 23 to which insects, dust, rain and the like entering the body moving unit 7 are likely to adhere, the inflow opening 9 and the discharge opening 14 are removed. The flat rectifying unit 23 can be easily cleaned by inserting a hand having a cleaning member such as a sponge or a long cleaning tool having a cleaning member such as a sponge at the tip.

また、凹状整流部17により風Wの乱れを整えることができるので、後続の回転翼61への影響を緩和でき、列設した複数の発電機64を効率よく稼働させることができる。   Moreover, since the turbulence of the wind W can be adjusted by the concave rectifying unit 17, the influence on the subsequent rotor blade 61 can be reduced, and the plurality of generators 64 arranged in a row can be operated efficiently.

更に、1つの回転軸63に対して左右両端に発電機64,64を有するため、回転翼61の回転時に負荷が一方に偏ることなく均等に分散され、発電効率や耐久性の面で有利である。   Furthermore, since the generators 64, 64 are provided at the left and right ends with respect to one rotating shaft 63, the load is evenly distributed without being biased to one side when the rotary blade 61 rotates, which is advantageous in terms of power generation efficiency and durability. is there.

また、流入開口部9と排出開口部14の開口高さTを略同高さに形成すると共に、ケーシング2は、流入開口部9の前方に拡開する流体導入案内部35を有し、流体導入案内部35は、ケーシング2の前端下方から偏平整流部23にかけて上昇する傾斜状に形成し偏平整流部23と面一で連接する導入下部36と、ケーシングの前端上方から最前の凹状整流部17の前端縁19と連接する導入上部42と、ケーシング2の前端左右方から流入開口部9の左右側に各々伸延する導入左部51と導入右部50と、からなることより、凹状整流部17と偏平整流部23との鉛直方向の位置関係が流入開口部9から排出開口部14に至るまで一定に保たれるので、流体移動部7を通過する風Wの流れが安定し複数の発電機64を効率よく稼働させることができる。   In addition, the opening height T of the inflow opening 9 and the discharge opening 14 is formed to be substantially the same height, and the casing 2 includes a fluid introduction guide portion 35 that expands in front of the inflow opening 9. The introduction guide part 35 is formed in an inclined shape that rises from the lower front end of the casing 2 to the flat rectification part 23 and is connected to the flat rectification part 23 in a flush manner, and the foremost concave rectification part 17 from above the front end of the casing. The concave upper rectifying portion 17 includes an introduction upper portion 42 that is connected to the front edge 19, and an introduction left portion 51 and an introduction right portion 50 that respectively extend from the left and right sides of the front end of the casing 2 to the left and right sides of the inflow opening 9. Since the vertical positional relationship between the flat rectifying unit 23 and the flat rectifying unit 23 is kept constant from the inflow opening 9 to the discharge opening 14, the flow of the wind W passing through the fluid moving unit 7 is stabilized, and a plurality of generators 64 to operate efficiently Can.

また、流体導入案内部35により自動車Aの走行時に風Wを効率よく流入開口部9に導くことができるので発電機64を効率よく稼働させることができる。   Moreover, since the wind W can be efficiently guided to the inflow opening 9 when the automobile A is traveling by the fluid introduction guide portion 35, the generator 64 can be operated efficiently.

なお、本実施形態では移動体設置型発電装置1を自動車Aのルーフ上に設置しているが、移動体設置型発電装置1の配設箇所は本実施形態に限定されるものではなく、例えば、座席の下部に配設して自動車Aの前端フロント部から後端リア部にかけて走行時に風Wが通過するよう形成したり、移動体Aが船舶であれば下底面に配設する等、本発明の要旨の範囲内において、種々の変形・変更が可能である。   In the present embodiment, the mobile unit installed power generation device 1 is installed on the roof of the automobile A. However, the location of the mobile unit installation type power generation device 1 is not limited to this embodiment. It is arranged in the lower part of the seat so that the wind W passes when traveling from the front end front part to the rear end rear part of the car A, or if the moving body A is a ship, it is arranged on the lower bottom surface. Various modifications and changes can be made within the scope of the invention.

次に、本発明の実施形態に係る移動体設置型発電装置1の第一変形例について図面を用いて説明する。   Next, a first modification of the mobile unit installed power generation device 1 according to the embodiment of the present invention will be described with reference to the drawings.

なお、第一変形例に係る移動体設置型発電装置1は、上述した実施形態に係る移動体設置型発電装置1の構成を基礎とするものであるため、共通する構成については説明を適宜省略する。   In addition, since the mobile body installation type power generating apparatus 1 which concerns on a 1st modification is based on the structure of the mobile body installation type power generation apparatus 1 which concerns on embodiment mentioned above, description is abbreviate | omitted suitably about a common structure. To do.

[第一変形例]
本発明の第一変形例に係る移動体設置型発電装置1は、図4(a)、(b)に示すように、偏平整流部23の表面に凹凸を形成して風Wの流れを整える整流実行部24を形成したものである。
[First modification]
As shown in FIGS. 4A and 4B, the mobile body installed power generator 1 according to the first modification of the present invention forms irregularities on the surface of the flat rectifying unit 23 to regulate the flow of the wind W. The rectification executing unit 24 is formed.

具体的には、整流実行部24は、図4(a)に示すように、流体移動部7の下面22を形成する平面状の偏平整流部23の表面を前端から後端にかけて連続して切削した整流溝25を複数形成し、流体移動部7を通過する風Wが乱流になり難く整流溝25に倣って進行するよう形成している。   Specifically, as shown in FIG. 4A, the rectification executing unit 24 continuously cuts the surface of the flat flat rectifying unit 23 forming the lower surface 22 of the fluid moving unit 7 from the front end to the rear end. A plurality of the rectifying grooves 25 are formed, and the wind W passing through the fluid moving part 7 hardly forms a turbulent flow so as to follow the rectifying grooves 25.

また、整流実行部24は、図4(b)に示すように、偏平整流部23の表面を下方に凹状の半球状に形成したディンプル26を前端から後端にかけて複数形成し、流体移動部7を通過する風Wがディンプル26によって偏平整流部23の表面から剥離し難くなることで流体移動部7を通過する風Wが安定しやすくなるよう形成することもできる。   Further, as shown in FIG. 4 (b), the rectification executing unit 24 forms a plurality of dimples 26 formed from the front end to the rear end so that the surface of the flat rectification unit 23 is formed in a concave hemispherical surface downward. The wind W passing through the fluid moving part 7 can be formed more easily by being difficult to peel off from the surface of the flat rectifying part 23 by the dimple 26.

なお、本第一変形例では整流実行部24について直線的な複数の整流溝25と半球状に形成した複数のディンプル26の2つの形状について説明しているが、流体移動部7を通過する風Wが整流される形状であれば本発明の要旨の範囲内において種々の変形・変更が可能である。   In the first modification, the two shapes of the straightening rectifying grooves 25 and the plurality of dimples 26 formed in a hemispherical shape are described for the rectifying execution unit 24, but the wind passing through the fluid moving unit 7 is described. As long as W is rectified, various modifications and changes can be made within the scope of the present invention.

以上、説明したように本第一変形例に係る移動体設置型発電装置1は、偏平整流部23の表面に凹凸を形成して風Wの流れを整える整流実行部24を形成したことより、流体移動部7を通過する風Wの流れが安定し複数の発電機64を効率よく稼働させることができる。   As described above, the moving body-installed power generation device 1 according to the first modified example has the rectification execution unit 24 that forms unevenness on the surface of the flat rectification unit 23 and regulates the flow of the wind W. The flow of the wind W passing through the fluid moving unit 7 is stabilized, and the plurality of generators 64 can be operated efficiently.

次に、本発明の第二変形例に係る移動体設置型発電装置1について図面を用いて説明する。   Next, the moving body installation type power generator 1 according to the second modification of the present invention will be described with reference to the drawings.

なお、第二変形例に係る移動体設置型発電装置1は、上述した実施形態に係る移動体設置型発電装置1の構成を基礎とするものであるため、共通する構成については説明を適宜省略する。   In addition, since the mobile body installation type power generating apparatus 1 which concerns on a 2nd modification is based on the structure of the mobile body installation type power generation apparatus 1 which concerns on embodiment mentioned above, description is abbreviate | omitted suitably about a common structure. To do.

[第二変形例]
本発明の第二変形例に係る移動体設置型発電装置1は、図3(a)、図5(a)〜(c)に示すように、偏平整流部23を着脱自在に構成したものである。
[Second modification]
As shown in FIGS. 3 (a) and 5 (a) to 5 (c), the mobile body installed power generator 1 according to the second modification of the present invention is configured such that the flat rectifying unit 23 is detachable. is there.

具体的には、偏平整流部23は、図5(b)に示すように、板状の長方形状に形成すると共に長辺側の側端面の前端から後端にかけて凹状の溝である嵌合凹部27を形成している。   Specifically, as shown in FIG. 5 (b), the flat rectifying portion 23 is formed into a plate-like rectangular shape and is a fitting recess that is a concave groove from the front end to the rear end of the side edge surface on the long side. 27 is formed.

また、図3(a)、図5(a)に示すように、偏平整流部23を着脱自在とするためにケーシング2の下部4の内側面を偏平整流部23の大きさと厚みに対応させて下方へ凹状に形成して収容部28を設けると共に、収容部28の長手方向の内側面には図5(c)に示すように嵌合凹部27と係合する突出した嵌合凸部29を形成して板状の偏平整流部23をケーシング2の前方から水平方向にスライド自在に構成している。   Further, as shown in FIGS. 3A and 5A, the inner surface of the lower portion 4 of the casing 2 is made to correspond to the size and thickness of the flat rectifying portion 23 in order to make the flat rectifying portion 23 detachable. As shown in FIG. 5 (c), a protruding fitting convex portion 29 that engages with the fitting concave portion 27 is formed on the inner side surface in the longitudinal direction of the accommodating portion 28. The plate-shaped flat rectifying portion 23 is formed so as to be slidable in the horizontal direction from the front of the casing 2.

また、偏平整流部23をケーシング2の前方から収容部28に挿入させるために障害となる流体導入案内部35の導入下部36は、その一部が下降するよう形成している。   Further, the introduction lower portion 36 of the fluid introduction guide portion 35 which becomes an obstacle for inserting the flat rectifying portion 23 into the accommodating portion 28 from the front of the casing 2 is formed so that a part thereof is lowered.

具体的には、図5(a)に示すように、収容部28の内側壁の一部をなす前方の短手方向の垂直壁30から導入下部36の中途部までの範囲において左右方向を長手方向とする矩形状の摺動溝31を形成し、摺動溝31には圧縮バネ等の付勢部材32を下方として上方には垂直壁30を含む断面視略三角形状の係止部33を配置することで、係止部33を上方から押圧すれば摺動溝31内に係止部33が下降して偏平整流部23を水平方向にスライド自在とすることができる。   Specifically, as shown in FIG. 5A, the left-right direction is long in the range from the vertical wall 30 in the short lateral direction that forms a part of the inner wall of the housing portion 28 to the middle portion of the introduction lower portion 36. A rectangular sliding groove 31 is formed in the direction, and a biasing member 32 such as a compression spring is provided below the sliding groove 31, and a locking portion 33 having a substantially triangular shape in cross section including the vertical wall 30 is provided above. By disposing, when the locking portion 33 is pressed from above, the locking portion 33 is lowered into the sliding groove 31 and the flat rectifying portion 23 can be slid in the horizontal direction.

しかも、係止部33は押圧しなければ付勢部材32により上方に復帰するため偏平整流部23を収容部28に収めた際には係止部33の垂直壁30が偏平整流部23の前方への移動を防止する。   In addition, if the locking portion 33 is not pressed, it is returned upward by the urging member 32, so that when the flat rectifying portion 23 is stored in the accommodating portion 28, the vertical wall 30 of the locking portion 33 is in front of the flat rectifying portion 23. Prevent moving to.

なお、偏平整流部23の着脱構造は本変形例に限定されるものではなく、本発明の要旨の範囲内において種々の変形・変更が可能である。   In addition, the attachment / detachment structure of the flat rectification unit 23 is not limited to this modification, and various modifications and changes can be made within the scope of the gist of the present invention.

また、着脱自在の偏平整流部23の表面には、上述した第一変形例に係る整流実行部24を形成してもよい。   Moreover, you may form the rectification | straightening execution part 24 which concerns on the surface of the detachable flat rectification | straightening part 23 which concerns on the 1st modification mentioned above.

以上、説明したように本第二変形例に係る移動体設置型発電装置1は、偏平整流部23を着脱自在に構成したことより、自動車Aの走行時に流体移動部7に侵入する虫やホコリ、雨といったものが付着しやすい偏平整流部23を取り外して容易に清掃することができる。   As described above, the movable body-installed power generation apparatus 1 according to the second modified example is configured such that the flat rectifying unit 23 is detachable, so that insects and dust that enter the fluid moving unit 7 when the vehicle A is traveling can be obtained. The flat rectifier 23 to which things such as rain are likely to adhere can be removed and easily cleaned.

次に、本発明の第三変形例に係る移動体設置型発電装置1について図面を用いて説明する。   Next, the mobile body installation type power generator 1 according to the third modification of the present invention will be described with reference to the drawings.

なお、第三変形例に係る移動体設置型発電装置1は、上述した実施形態に係る移動体設置型発電装置1の構成を基礎とするものであるため、共通する構成については説明を適宜省略する。   In addition, since the mobile body installation type power generating apparatus 1 which concerns on a 3rd modification is based on the structure of the mobile body installation type power generation apparatus 1 which concerns on embodiment mentioned above, description is abbreviate | omitted suitably about a common structure. To do.

[第三変形例]
本発明の第三変形例に係る移動体設置型発電装置1は、図6(a)に示すように、流入開口部9には、流入開口部9を風圧(流体圧)により開閉蓋自在とするシャッター部10を備えている。
[Third modification]
As shown in FIG. 6 (a), the mobile body installed power generator 1 according to the third modified example of the present invention has an inflow opening 9 that can be freely opened and closed by wind pressure (fluid pressure). A shutter unit 10 is provided.

具体的には、シャッター部10は、図6(a)〜(c)に示すように、左右方向に長方形状の複数の板材11aを上方の板材11aの下端縁がその下方の板材11aの上端縁を被覆するよう所定間隔で鉛直方向に配設してブラインド状に構成し、各々の板材11aの上部側両端をケーシング2に回動自在に枢支連結している。   Specifically, as shown in FIGS. 6A to 6C, the shutter unit 10 includes a plurality of rectangular plate members 11a in the left-right direction, and the lower end edge of the upper plate member 11a is the upper end of the lower plate member 11a. It is arranged in the vertical direction at predetermined intervals so as to cover the edges and is configured in a blind shape, and both upper ends of each plate member 11a are pivotally connected to the casing 2 in a pivotal manner.

すなわち、前方から流入開口部9に進行する風Wの風圧により流入開口部9が開蓋するよう風圧式換気扇の如く形成することで、図6(c)に示すように、自動車Aの走行時には風圧により板材11aが略水平方向に回動してシャッター部10が流入開口部9を開蓋し、停止時には図6(b)に示すように、風圧が低下するか停止することで板材11aが自重により略鉛直方向に回動してシャッター部10が流入開口部9を閉蓋するよう構成している。   That is, as shown in FIG. 6 (c), when the vehicle A is running, it is formed like a wind pressure ventilation fan so that the inflow opening 9 is opened by the wind pressure of the wind W traveling from the front to the inflow opening 9. The plate member 11a is rotated in a substantially horizontal direction by the wind pressure, and the shutter unit 10 opens the inflow opening 9. When the stop is performed, the plate member 11a is lowered or stopped as shown in FIG. The shutter 10 is configured to close the inflow opening 9 by rotating in a substantially vertical direction by its own weight.

なお、同様のシャッター部10を排出開口部14にも備えることができる。   A similar shutter unit 10 can be provided in the discharge opening 14.

また、シャッター部10は、図7(a)に示すように、導入上部42に風Wを流入自在に形成し、導入上部42に風Wが流入することにより流入開口部9を開閉蓋自在に構成することもできる。   In addition, as shown in FIG. 7A, the shutter portion 10 is formed so that the wind W can freely flow into the introduction upper portion 42, and the inflow opening 9 can be freely opened and closed by the wind W flowing into the introduction upper portion 42. It can also be configured.

具体的には、図7(a)〜(c)に示すように、導入上部42の湾曲面に複数の貫通孔43を形成すると共に、図7(b)に示すように、湾曲面の裏面側には上部を左右方向で枢止連結した板状の目止可動板44を配設している。   Specifically, as shown in FIGS. 7A to 7C, a plurality of through holes 43 are formed in the curved surface of the introduction upper portion 42, and the back surface of the curved surface is formed as shown in FIG. 7B. On the side, a plate-shaped movable movable plate 44 whose upper portion is pivotally connected in the left-right direction is disposed.

目止可動板44は湾曲面と同曲率に形成し、湾曲面の裏面側から貫通孔43を閉塞するよう当接しており、風Wがないか弱い時には流入開口部9に配設された板材11bからなるブラインド状のシャッター部10が流入開口部9を閉蓋している。   The eyepiece movable plate 44 is formed to have the same curvature as the curved surface, is in contact with the through hole 43 from the back side of the curved surface, and when there is no or weak wind W, the plate material 11b disposed in the inflow opening 9 A blind-shaped shutter portion 10 made of is closing the inflow opening 9.

また、目止可動板44の下端には連結ステー45の一方の端部46を枢止連結すると共に、他方の端部47は上方に形成された案内溝48の内部に上下摺動自在に収容している。   In addition, one end 46 of the connecting stay 45 is pivotally connected to the lower end of the eyepiece movable plate 44, and the other end 47 is accommodated in a guide groove 48 formed upward so as to be slidable up and down. doing.

また、他方の端部47には、板材11bの側端面まで伸延する図示しない板状のラックギアを連結し、板材11bの側端面にはラックギアと歯合する図示しないピニオンギアを連結し、連結ステー45の他方の端部47の上下動に連動したラックギアの上下動によりピニオンギアを介してシャッター部10が流入開口部9を開閉蓋することができる。   A plate-shaped rack gear (not shown) extending to the side end surface of the plate material 11b is connected to the other end 47, and a pinion gear (not shown) meshed with the rack gear is connected to the side end surface of the plate material 11b. The shutter portion 10 can open and close the inflow opening 9 via the pinion gear by the vertical movement of the rack gear interlocked with the vertical movement of the other end 47 of 45.

本第三変形例ではラックギアの下降によりシャッター部10が流入開口部9を閉蓋し、上昇により開蓋するよう構成している。   In the third modified example, the shutter portion 10 is configured to close the inflow opening 9 when the rack gear is lowered and open when the rack gear is raised.

図7(c)では、強い風Wが導入上部42の湾曲面に当たった際、貫通孔43から内部へと流入する風Wが目止可動板44を押し上げつつ連結ステー45の他方の端部47が案内溝48の上部へと上昇するためシャッター部10が流入開口部9を開蓋する様子を示している。   In FIG. 7C, when the strong wind W hits the curved surface of the introduction upper portion 42, the wind W flowing into the inside from the through hole 43 pushes up the eyepiece movable plate 44 and the other end of the connecting stay 45. As 47 rises to the upper part of the guide groove 48, the shutter portion 10 opens the inflow opening 9.

なお、排出開口部14にもラックギアとピニオンギアを備えたシャッター部10を形成し、上述した流入開口部9側の連結ステー45の他方の端部47との間で図示しないリンク機構を形成して流入開口部9側のシャッター部10の動作と連動するよう構成することもできる。   The discharge opening 14 is also formed with the shutter portion 10 having a rack gear and a pinion gear, and a link mechanism (not shown) is formed with the other end 47 of the connecting stay 45 on the inflow opening 9 side described above. Thus, it can be configured to be interlocked with the operation of the shutter portion 10 on the inflow opening 9 side.

このように、シャッター部10について上述した2つの構成について説明したが、構造や開閉蓋機構は本変形例に限定されるものではなく、本発明の要旨の範囲内において種々の変形・変更が可能である。   As described above, the above-described two configurations of the shutter unit 10 have been described. However, the structure and the opening / closing lid mechanism are not limited to this modification, and various modifications and changes can be made within the scope of the present invention. It is.

以上、説明したように本第三変形例に係る移動体設置型発電装置1は、流入開口部9に流入開口部9を風圧により開閉蓋自在とするシャッター部10を備えたことより、自動車Aを走行させないときはシャッター部10が流入開口部9を閉蓋し流体移動部7内への異物浸入を防止することができる。   As described above, the movable body-installed power generation device 1 according to the third modified example includes the shutter 10 that allows the inflow opening 9 to be opened and closed by wind pressure in the inflow opening 9. When the vehicle is not driven, the shutter portion 10 closes the inflow opening 9 and prevents foreign matter from entering the fluid moving portion 7.

次に、本発明の第四変形例に係る移動体設置型発電装置1について図面を用いて説明する。   Next, the mobile body installation type power generator 1 according to a fourth modification of the present invention will be described with reference to the drawings.

なお、第四変形例に係る移動体設置型発電装置1は、上述した実施形態に係る移動体設置型発電装置1の構成を基礎とするものであるため、共通する構成については説明を適宜省略する。   In addition, since the mobile body installation type power generating apparatus 1 which concerns on a 4th modification is based on the structure of the mobile body installation type power generation apparatus 1 which concerns on embodiment mentioned above, description is abbreviate | omitted suitably about a common structure. To do.

[第四変形例]
本発明の第四変形例に係る移動体設置型発電装置1は、図8(a)、(b)に示すように、流体導入案内部35を構成する導入下部36に自動車Aの減速操作と連動して下降する流体抵抗操作片70を有する流体抵抗操作部37を備えることで、通常走行時には導入上部42の前端近傍まで流体抵抗操作片70の端部が上昇し、減速操作を行うことで流体抵抗操作片70が下降して導入下部36と一体となるよう構成している。
[Fourth modification]
As shown in FIGS. 8 (a) and 8 (b), the mobile unit installed power generation apparatus 1 according to the fourth modification of the present invention has a deceleration operation of the automobile A on the introduction lower part 36 constituting the fluid introduction guide part 35. By providing the fluid resistance operation part 37 having the fluid resistance operation piece 70 that moves down in conjunction with the normal operation, the end of the fluid resistance operation piece 70 rises to the vicinity of the front end of the introduction upper part 42 and performs a deceleration operation. The fluid resistance operation piece 70 is lowered and integrated with the introduction lower portion 36.

具体的には、流体抵抗操作部37は、導入上部42よりも前方に伸延して形成した導入下部36の上部側に、前端部を図示しないコイルバネと共に左右方向で枢止連結した一部湾曲の板状の流体抵抗操作片70を配設し、流体抵抗操作片70の裏面側には両端部を可動自在とする上下可動用連結ステー38の一方の端部39を枢止連結すると共に、他方の端部40はケーシング2の下部4内に形成された前後方向に空間をなす上下可動用案内溝41の内部に摺動自在に収容している。   Specifically, the fluid resistance operation portion 37 is a partially curved shape in which the front end portion is pivotally connected with the coil spring (not shown) in the left-right direction on the upper side of the introduction lower portion 36 formed to extend forward from the introduction upper portion 42. A plate-like fluid resistance operating piece 70 is disposed, and one end 39 of a vertically movable connecting stay 38 having both ends movable is pivotally connected to the back side of the fluid resistance operating piece 70, and the other The end 40 is slidably accommodated in a vertically movable guide groove 41 formed in the lower portion 4 of the casing 2 and forming a space in the front-rear direction.

なお、コイルバネは流体抵抗操作片70を上方に付勢するものである。   The coil spring biases the fluid resistance operation piece 70 upward.

また、他方の端部40は後方に伸延する操作ステー71の前端と連結し、操作ステー71は上下可動用案内溝41の内部で自動車Aの減速操作で可動する部位と機械的に連結した図示しない操作ワイヤーと連結し、減速操作を行うことで他方の端部40が図8(b)において右側に移動して流体抵抗操作片70が下降するよう構成している。   The other end 40 is connected to the front end of the operating stay 71 extending rearward, and the operating stay 71 is mechanically connected to a portion that can be moved by the deceleration operation of the automobile A inside the vertically movable guide groove 41. The other end portion 40 is moved to the right side in FIG. 8B by being connected to the operation wire not to be decelerated, and the fluid resistance operation piece 70 is lowered.

なお、流体抵抗操作部37の構造や上昇・下降機構は本第四変形例に限定されるものではなく、例えば、電気的に作動させる等、本発明の要旨の範囲内において種々の変形・変更が可能である。   The structure of the fluid resistance operation unit 37 and the ascending / descending mechanism are not limited to the fourth modified example. For example, various modifications and changes can be made within the scope of the gist of the present invention, such as electrical actuation. Is possible.

以上、説明したように本第四変形例に係る移動体設置型発電装置1は、流体導入案内部35を構成する導入下部36に自動車Aの減速操作と連動して下降する流体抵抗操作片70を有する流体抵抗操作部37を備えることより、自動車Aの通常走行時には流体抵抗操作片70により移動体設置型発電装置1自体や流体導入案内部35による風抵抗を軽減することができると共に、減速操作時には流体導入案内部35に風Wを受けて風抵抗を増加させ減速操作を補完しつつ、流入開口部9から流体移動部7に入った風Wにより回生ブレーキの如く発電を行うことができる。   As described above, the movable body-installed power generation device 1 according to the fourth modification example has a fluid resistance operation piece 70 that descends in conjunction with the deceleration operation of the automobile A on the introduction lower portion 36 that constitutes the fluid introduction guide portion 35. By providing the fluid resistance operation unit 37 having the above, the vehicle resistance can be reduced by the fluid resistance operation piece 70 by the fluid resistance operation piece 70 during normal driving of the automobile A and the vehicle speed can be reduced. At the time of operation, it is possible to generate electric power like a regenerative brake by the wind W entering the fluid moving unit 7 from the inflow opening 9 while supplementing the deceleration operation by receiving the wind W at the fluid introduction guide unit 35 and increasing the wind resistance. .

以上、本発明の好ましい実施形態と変形例について説明したが、本発明は係る特定の実施形態や変形例に限定されるものではなく、特許請求の範囲に記載された本発明の要旨の範囲内において、種々の変形・変更が可能である。   As mentioned above, although preferable embodiment and the modification of this invention were demonstrated, this invention is not limited to the specific embodiment and modification which concern, and is in the range of the summary of this invention described in the claim. Various modifications and changes are possible.

A 移動体
T 開口高さ
W 流体
1 移動体設置型発電装置
2 ケーシング
7 流体移動部
9 流入開口部
10 シャッター部
14 排出開口部
16 上面
17 凹状整流部
19 前端縁
22 下面
23 偏平整流部
24 整流実行部
35 流体導入案内部
36 導入下部
42 導入上部
50 導入右部
51 導入左部
60 発電部
63 回転軸
A moving body T opening height W fluid 1 moving body installation type power generation device 2 casing 7 fluid moving part 9 inflow opening 10 shutter part 14 discharge opening 16 upper surface 17 concave rectification part 19 front edge 22 lower surface 23 flat rectification part 24 rectification Execution part 35 Fluid introduction guide part 36 Introduction lower part 42 Introduction upper part 50 Introduction right part 51 Introduction left part 60 Power generation part 63 Rotating shaft

Claims (3)

流体が導入される流入開口部と前記流体を排出し前記流入開口部と連通する排出開口部と前記流体が移動する流体移動部とを備えたケーシングと、前記流体移動部に前記流体の進行方向と略直角で略水平方向に回転軸を有する回転翼を備えた複数の発電部を前記流体の進行方向に列設した移動体設置型発電装置であって、
前記流入開口部と前記排出開口部の開口高さを略同高さに形成すると共に、
前記流体移動部は、前端部を前記流入開口部とし、後端部を前記排出開口部とし、上面を前記回転翼の回転軌跡に略一致する側面断面視半円弧状に形成して前記回転翼の上半部を被覆する凹状整流部とし、下面を前記流入開口部から挿抜できる平面状で板状着脱自在な偏平整流部とし、
前記発電部は、前記回転軸の両端に発電機を連結し、
たことを特徴とする移動体設置型発電装置。
A casing including an inflow opening into which a fluid is introduced, a discharge opening that discharges the fluid and communicates with the inflow opening, and a fluid moving unit in which the fluid moves; and a direction in which the fluid travels in the fluid moving unit A moving body installation type power generation apparatus in which a plurality of power generation units each including a rotating blade having a rotation axis in a substantially horizontal direction at a substantially right angle are arranged in a traveling direction of the fluid,
While forming the opening height of the inflow opening and the discharge opening to substantially the same height,
The fluid moving portion has a front end portion as the inflow opening portion, a rear end portion as the discharge opening portion, and a top surface formed in a semicircular arc shape in a side sectional view substantially coincident with a rotation locus of the rotor blade. A concave rectifying portion covering the upper half of the plate , and a flat , plate-shaped , detachable flat rectifying portion that can be inserted and removed from the inflow opening ,
The power generation unit connects a generator to both ends of the rotating shaft,
A movable body-installed power generator characterized by the above.
前記偏平整流部は、表面に凹凸を形成して前記流体の流れを整える整流実行部を形成したことを特徴とする請求項1に記載の移動体設置型発電装置。 The mobile flat power generator according to claim 1, wherein the flat rectification unit includes a rectification execution unit that forms irregularities on a surface thereof to regulate the flow of the fluid. 前記流入開口部と前記排出開口部にはシャッター部を備え
前記シャッター部は、左右方向に長方形状の複数の板材を上方の板材の下端縁がその下方の板材の上端縁を被覆するよう所定間隔で鉛直方向に配設してブラインド状に構成し、各々の前記板材の上部側両端を前記ケーシングに回動自在に枢支連結することで、流体圧を受けた前記板材が前記流体圧により略水平方向に回動して前記シャッター部が開蓋し、前記板材が前記流体圧を受けなければ前記板材は自重により略鉛直方向に回動して前記シャッター部が閉蓋するよう構成したことを特徴とする請求項1又は2に記載の移動体設置型発電装置。
The inflow opening and the discharge opening include a shutter part ,
The shutter portion is configured in a blind shape by arranging a plurality of rectangular plate materials in the left-right direction in a vertical direction at predetermined intervals so that the lower edge of the upper plate material covers the upper edge of the lower plate material, The upper and lower ends of the plate member are pivotally connected to the casing so that the plate member that has received fluid pressure is rotated in a substantially horizontal direction by the fluid pressure, and the shutter portion is opened, 3. The moving body according to claim 1, wherein the plate member rotates in a substantially vertical direction by its own weight when the plate member does not receive the fluid pressure, and the shutter portion is closed. Type generator.
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