JP3191468U - Reaction flight propulsion control machine - Google Patents
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- JP3191468U JP3191468U JP2014000852U JP2014000852U JP3191468U JP 3191468 U JP3191468 U JP 3191468U JP 2014000852 U JP2014000852 U JP 2014000852U JP 2014000852 U JP2014000852 U JP 2014000852U JP 3191468 U JP3191468 U JP 3191468U
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- 230000001174 ascending effect Effects 0.000 abstract description 3
- 230000009194 climbing Effects 0.000 abstract description 3
- 238000010586 diagram Methods 0.000 abstract description 2
- 238000005339 levitation Methods 0.000 abstract 1
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Abstract
【課題】難しい飛行訓練もいらず、誰でも簡単に操縦でき、高層階の火災等の緊急時にも人命救助や消火活動を容易にし、また地上走行による渋滞や交通事故等を減少させることが出来る反作用飛行推進の原理を使う飛翔型機体を提供する。【解決手段】本機体1は、直接的に水平浮上を果たすための水平型電動発動機2、4と水平型回転翼3,5が重心位置にある操縦席の前と後ろの内部に設置され、その回転の風力から直接浮上を行った直後に、操縦席の左側と右側に装着された垂直型電動発動機6,7の左右同時後方回転6a、7aで間接的前進上昇や、左右同時前方回転6b、7bで間接的後退上昇を行い、及び操縦席の左右にある垂直型電動発動機6,7の片側一方の回転7a、6a、7b、6bから4つの間接的方向転換を行い、高層階でも人命救助や地上での交通問題の解決に役立てられる。【選択図】図1PROBLEM TO BE SOLVED: To easily operate anyone without difficult flight training, to facilitate lifesaving and fire extinguishing activities even in an emergency such as a fire on a higher floor, and to reduce congestion and traffic accidents caused by ground traveling. We provide a flying aircraft that uses the principle of reaction flight propulsion. SOLUTION: This machine body 1 is installed inside the front and rear of a cockpit in which horizontal electric motors 2 and 4 and horizontal rotary blades 3 and 5 for directly achieving horizontal levitation are located at the center of gravity. Immediately after ascending directly from the rotating wind force, the vertical electric motors 6 and 7 mounted on the left and right sides of the cockpit can be indirectly forwarded and raised by the simultaneous left and right rear rotations 6a and 7a, and the left and right simultaneous forwards. Indirect backward climbing is performed by rotations 6b and 7b, and four indirect direction changes are performed from rotations 7a, 6a, 7b and 6b on one side of the vertical electric motors 6 and 7 on the left and right sides of the cockpit to perform four indirect direction changes. It is also useful for saving lives on the floor and solving traffic problems on the ground. [Selection diagram] Fig. 1
Description
本考案は、水平型の電動発動機と回転翼の風力で空を飛ぶ飛翔型機体の推進法として、離陸上昇と空中飛行中の方向転換を簡単にするために、風力による直接的上昇に加え、垂直型の電動発動機の回転から引き出された反作用の反動力による間接的上昇及び間接的方向転換の方法を提示するものであり、反作用飛行推進コントロールの考案の名称の通り電動発動機の高速回転から反作用の反動力を利用して飛行中の推進コントロールを行い、人が実際に飛翔型機体に搭乗して自在に空を飛ぶための反作用飛行推進コントロールの原理に関するものである。 The present invention is a propulsion method for a flying type aircraft that flies in the sky with wind power from a horizontal electric motor and rotor blades, in addition to direct lift by wind power, in order to simplify take-off rise and direction change during air flight. The method of indirect rise and indirect direction change by reaction power of the reaction drawn from the rotation of the vertical type motor is proposed. The present invention relates to the principle of reaction flight propulsion control for performing propulsion control during flight by utilizing reaction force of reaction from rotation, so that a person can actually get on a flying aircraft and fly freely.
本考案では、空を飛ぶための形態として一つの飛翔型機体の例を提示するが、その本機体の飛行推進法は従来の飛行機やヘリコプターの飛行機体とは異なり、それらを操縦するときの様な複雑で難しい知識も特別な訓練もいらず、誰でも簡単に飛翔飛行できるようにするためのものであり、すなわち回転翼の風力による直接的な上昇を果たしたのち、重心位置の操縦席の左右にある垂直型の電動発動機の回転から反作用の反動力を使い空中で機体を自在に傾けて、間接的に前進上昇や後退上昇及び飛行推進中の方向転換を果たすことがより簡単になり反作用飛行推進コントロールにより可能になる。 In the present invention, an example of a flying type aircraft is presented as a form for flying in the sky, but the flight propulsion method of this aircraft is different from that of conventional airplanes and helicopter airplanes, as in the case of maneuvering them. It is intended to make it easy for anyone to fly and fly without any complicated and difficult knowledge or special training.In other words, after the direct rise by the wind power of the rotor blades, Using the reaction force of the reaction from the rotation of the vertical electric motors on the left and right, it is easier to tilt the aircraft freely in the air and indirectly move forward and backward and change direction during flight propulsion. Made possible by reaction flight propulsion control.
本機体の飛行推進法は、乗用車による地上走行の交通渋滞や交通事故を減少させる可能性があると思われるが、飛行機やヘリコプターは空中を飛行できる長所と同時にある重大な短所が存在しており、飛行機は滑走路がなければ離陸と着陸が出来ず空中で停止することも不可能であり、またヘリコプターは滑走路がいらず離陸と着陸ができ空中停止のホバリングができる長所はあるものの高層階等の火災時にも人命救助の対応を試みるとき、機体から水平に突き出た回転翼が、すなわちプロペラが邪魔をして救助を求める人命に対して建物等の側面に横から直接的に接近して人命を救出することができない短所が存在するが、回転翼が飛翔型機体の内部で回転しているならばそれも可能となる。 Although the flight propulsion method of this aircraft seems to have the potential to reduce traffic congestion and traffic accidents on the ground by passenger cars, airplanes and helicopters have significant disadvantages as well as the advantages of flying in the air. Airplanes can not take off and land without a runway and cannot stop in the air, and helicopters can take off and land without a runway and can hover in the air When trying to save lives even in the event of a fire, etc., the rotating wings that protrude horizontally from the aircraft approach the side of the building etc. directly from the side against the life that the propeller disturbs and seeks rescue There are disadvantages that cannot save lives, but this is also possible if the rotating wings are rotating inside the flying aircraft.
ヘリコプターは現在の構造のまま回転翼の長径を短くすると、機体の直接的上昇及び直接的方向転換が構造的に困難となり本来の飛行活動が難しくなる課題があるが、本考案の飛翔型機体は、機体そのものをその風力で少しでも浮上させることが可能であれば、重心位置の操縦席左右に設置された垂直型の電動発動機の回転から反作用の反動力を引き出して、機体を傾けて前進上昇及び後退上昇などの間接的上昇が可能となり、また垂直型の電動発動機の左側と右側の片側一方の回転から反作用の反動力を引き出して飛行中の右折前進や右折後退及び左折前進や左折後退などの間接的方向転換も可能となり反作用飛行推進コントロールは問題点を解決できる。 If the helicopter has the current structure, if the major axis of the rotor blade is shortened, there is a problem that direct flight of the airframe and direct direction change are structurally difficult and the original flight activity becomes difficult. If the aircraft itself can be lifted by the wind force, the reaction force of the reaction is extracted from the rotation of the vertical electric motors installed on the left and right of the cockpit at the center of gravity, and the aircraft is tilted to move forward. Indirect climbing such as climbing and retreating is possible, and the reaction force of the reaction is extracted from the rotation of one of the left and right sides of the vertical electric motor, and the right turn forward, right turn backward, left turn forward and left turn during flight Indirect direction change such as retreat is also possible, and reaction flight propulsion control can solve the problem.
上述の様に、本考案の反作用飛行推進コントロールの原理を使って、空中で前後左右に機体を自在に傾けて前進上昇や後退上昇の間接的上昇を果たしたり、また、この原理から飛行中の間接的方向転換を果たしたり空を自在に飛ぶことが誰でも容易となるが、空飛ぶ車等の歴史は海外にはあるものの現在まで本考案の原理を使った飛翔型機体は見受けられず、実際に空飛ぶ車としての飛行推進のコントロールの技術は世界的に閉塞状態であり、本考案の反作用飛行推進コトロールの原理は、まさに技術待ちの状態で本考案を採用した飛翔型機体が将来、広域的に世界中で普及することが可能であれば、地上走行の交通渋滞や交通事故の課題から人類は大幅に解放されることになり、また、高層階の火災に対する課題として上空外側からの消火活動や人命救助にも早急に対応でき、さらに動力源を電気エネルギーとすることにより自然環境にも配慮された次世代の空飛ぶ乗り物として、本考案の反作用飛行推進コントロールの原理から造られた飛翔型機体は大いに役立つことができる。 As described above, using the principle of reaction flight propulsion control of the present invention, the aircraft can be tilted freely forward and backward, left and right in the air to achieve indirect rise and reverse rise, and from this principle Although it is easy for anyone to perform indirect direction change and fly freely in the sky, although there is a history of flying cars etc. overseas, there are no flying aircraft using the principle of the present invention until now, The technology of flight propulsion control as a flying car is actually blocked worldwide, and the principle of the reaction flight propulsion control of the present invention is the flight type aircraft that adopts this invention in the state of waiting for technology, If it is possible to spread throughout the world in a wide area, humans will be greatly freed from the problems of traffic congestion and traffic accidents on the ground, and as a problem for high-rise fires from outside the sky Fire fighting A flight created from the principle of reaction flight propulsion control of the present invention as a next-generation flying vehicle that can respond quickly to life and lifesaving, and also considers the natural environment by using electric energy as the power source The type aircraft can greatly help.
本考案の飛翔型機体は基本的に重心が操縦席にあるが、その前方内部と後方内部には水平型の電動発動機と回転翼があり、それを反対照的に機体内部で高速回転させ機体は直接的上昇を行い、回転翼を反対照的に別方向に回転させるのは、作用反作用の法則の影響から機体が横にブレないように安定させるためであり、風力により直接的に浮上させた直後に、操縦席の重心位置を起点として、その左右水平軸の延長線にある垂直型の電動発動機の回転からの反作用の反動力を引き出して、本機体は重心を中心に前方や後方に傾いて上昇し、及び左側と右側の斜めに傾き方向転換を行い、これは空中で水平に安定していた機体が反作用の反動力で斜めに傾くことにより、機体が留まろうとする位置エネルギーの一部が減量され、一瞬で力は運動エネルギーへと移行されて上へと押し上げる力に変わるためであり、また、この場合の瞬間加速は等加速度自由落下運動の落下加速原理と同等であり、空気抵抗から減速しても断続的に垂直型の電動発動機を繰り返して回転させれば、反作用の反動力は何度でも引き出され、機体は上昇加速されるが、本機体を現実的に飛行させるためには最低限度の条件として空中に留まっていられるだけの風力が必要である。 The flying aircraft of the present invention basically has the center of gravity in the cockpit, but there are horizontal electric motors and rotor blades in the front and rear of the aircraft. The aircraft will rise directly and rotate the rotor blades in the opposite direction in order to stabilize the aircraft from side effects due to the effects of the law of action and reaction. Immediately after this, starting from the center of gravity position of the cockpit, the reaction force of the reaction from the rotation of the vertical electric motor on the extension line of the left and right horizontal axis is pulled out, It tilts backward and rises, and the left and right sides are tilted diagonally, and this is the position where the aircraft tries to stay when it is tilted diagonally by the reaction force of the reaction, which was stable horizontally in the air. Part of the energy is reduced, and the power moves in an instant The momentary acceleration in this case is equivalent to the fall acceleration principle of the constant acceleration free fall motion, and even when decelerating from the air resistance, it is intermittently vertical. If the electric motor of the type is rotated repeatedly, the reaction force of the reaction will be drawn out as many times as possible, and the aircraft will rise and accelerate. We need enough wind power to stay.
以下、添付図面に従って一実施例を説明する。第一段階として反作用飛行推進コントロールの本機体1の直接的な浮上及び第二段階の間接的な前進上昇11と後退上昇12について、1の本機体は外側を丈夫な軽量素材で形成された反作用飛行推進コントロールの本機体1の全容であり、向かって左側が機体の前方で右側が後方であり、最初にこの本機体1を直接的に上昇させるために前方内部の水平型電動発動機2と後方内部の水平型電動発動機4の前後の回転方向を違えた同時回転から、前方水平型回転翼3と後方水平型回転翼5の風力により機体を水平に浮上させ、その直後に重心位置9である操縦席10の左右水平軸の延長線上にある左側垂直型電動発動機6と右側垂直型電動発動機7の同時後方回転6a、7aの回転から反作用の反動力を引き出して、機体を前方斜めに傾けて間接的に前進上昇11を果たし、もしくは左右垂直型電動発動機6,7の同時前方回転6b、7bの回転から反作用の反動力を引き出して、機体を後方斜めに傾けて間接的に後退上昇12を果たし基本的にバッテリー8は重心位置9である操縦席10の底部に設置され存在する。 Hereinafter, an embodiment will be described with reference to the accompanying drawings. As the first step, the reaction aircraft propulsion control direct ascent of the aircraft 1 and the second step of the indirect
本機体1が第二段階で機体を斜めに傾けて間接的に前進上昇11や後退上昇12を果たしたのちに、第三段階として空中推進中に間接的な方向転換をするために重心位置9である操縦席10の左右水平軸の延長線上にある左右の垂直型電動発動機6,7の片側一方の回転により4つの間接的な方向転換13,14,15,16を果たすことができ、すなわち操縦席10の左側垂直型電動発動機6の後方回転6aの回転から反作用の反動力を引き出して、機体を右側前方に傾けて間接的に右折前進14を果たし、左側垂直型電動発動機6の前方回転6bの回転から反作用の反動力を引き出して、機体を右側後方に傾けて間接的に右折後退16を果たし、操縦席10の右側垂直型電動発動機7の後方回転7aの回転から反作用の反動力を引き出して、機体を左側前方に傾けて間接的に左折前進13を果たし、右側垂直型電動発動機7の前方回転7bの回転から反作用の反動力を引き出して、機体を左側後方に傾けて間接的に左折後退15を果たし、飛行推進中の空中停止は、操縦席10の左右に設置された垂直型電動発動機6、7を同方向に同時回転させて空中停止を行い、すなわち前進推進中なら左側垂直型電動発動機6の前方回転6bと右側垂直型電動発動機7の前方回転7bの同時回転で本機体を後方斜めに傾けて空中停止を果たし、後退推進中なら左側垂直型電動発動機6の後方回転6aと右側垂直型電動発動機7の後方回転7aの同時回転で本機体を前方斜め傾けて空中停止を果たす。 After the main body 1 inclines the airframe obliquely in the second stage and indirectly performs forward
反作用飛行推進コントロールの本機体1の第四段階としての直接的降下は、操縦席10の前方内部と後方内部に設置された水平型電動発動機2,4の出力を同時に抑えて、その上部に設置された回転翼3,5の風力を下げながら直接的に下降を果たす。 The direct descent as the fourth stage of the main body 1 of the reaction flight propulsion control suppresses the outputs of the horizontal
1 反作用飛行推進コントロールの本機体
2 前方水平型電動発動機
3 前方水平型回転翼
4 後方水平型電動発動機
5 後方水平型回転翼
6 左側垂直型電動発動機
7 右側垂直型電動発動機
8 バッテリー
9 重心
10 操縦席
11 前進上昇の側面図
12 後退上昇の側面図
13 飛行推進中の左折前進の平面図
14 飛行推進中の右折前進の平面図
15 飛行推進中の左折後退の平面図
16 飛行推進中の右折後退の平面図DESCRIPTION OF SYMBOLS 1 Body of reaction
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Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN109481859A (en) * | 2018-10-19 | 2019-03-19 | 谷雨 | A kind of manned steadily hovering and lifting device for high-rise building life saving |
JP2021521056A (en) * | 2018-04-17 | 2021-08-26 | ラズヴァン サビエ, | Personal vertical takeoff and landing flight equipment |
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Cited By (3)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JP2021521056A (en) * | 2018-04-17 | 2021-08-26 | ラズヴァン サビエ, | Personal vertical takeoff and landing flight equipment |
JP7478667B2 (en) | 2018-04-17 | 2024-05-07 | ラズヴァン サビエ, | Vertical Take-Off and Landing Personal Vehicle |
CN109481859A (en) * | 2018-10-19 | 2019-03-19 | 谷雨 | A kind of manned steadily hovering and lifting device for high-rise building life saving |
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