JPH0960576A - Simple buoyancy engine - Google Patents

Simple buoyancy engine

Info

Publication number
JPH0960576A
JPH0960576A JP24821195A JP24821195A JPH0960576A JP H0960576 A JPH0960576 A JP H0960576A JP 24821195 A JP24821195 A JP 24821195A JP 24821195 A JP24821195 A JP 24821195A JP H0960576 A JPH0960576 A JP H0960576A
Authority
JP
Japan
Prior art keywords
force
buoyancy
generated
torque
gear
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP24821195A
Other languages
Japanese (ja)
Inventor
Kunihiro Miyanaga
邦弘 宮良
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP24821195A priority Critical patent/JPH0960576A/en
Publication of JPH0960576A publication Critical patent/JPH0960576A/en
Pending legal-status Critical Current

Links

Abstract

PROBLEM TO BE SOLVED: To effect taking off and landing having no pollution in a narrow place by obtaining large torque through a process of amplifying small torque of a motor, and by generating buoyancy on a vehicle or an aircraft through a process of generating buoyancy or propulsion force by making use of the torque. SOLUTION: A plurality of P parts (P1 to P3) are arranged on a disc A, and torque generated on an O-shaft is transmitted to respective P parts, so as to generate force F (F1 to F3) are generated on respective P parts. Generating force is increased by attaching the disc A to the O-shaft into plural stages. Buoyancy for floating the whole device is generated by fixing the F force upward, and the device is vertically and laterally moved by controlling the buoyancy to the direction of the F force. Concretely, a plurality of gears are meshed with a gear of a fixed outer ring, a weight is attached to a shaft provided perpendicularly to respective gears through a spring and rubber, torque is amplified by making use of centrifugal force of the weight to be generated with the rotation, so as to generate electric power, and a motor is driven by mating use of electric power charged in a charger, so as to rotate the gears.

Description

【発明の詳細な説明】Detailed Description of the Invention

【0001】[0001]

【発明の属する技術分野】図1)のP部のF力によりO
軸を中心に円盤Aは回転する.P部を増やせば円盤Aの
回転力は増大する.又円盤Aを多段に増やせばO軸を中
心に回転力は増大する.P部のF力は図3)により発生
する.この回転力を利用して別の固定したP部の軸を前
述の回転力で回すとF力が発生する.P部を固定してF
力の方向を上向に固定すると浮力として利用出来る.こ
の浮力を飛行機の浮力として利用することにより無公害
で,狭まい場所での離発着出来,大風にも強い飛行機に
替る乗り物が可能となる.又車に利用可である.消防車
や救急車のような事を急ぐ乗り物には道が混んでいる場
合や高層ビルの出火の際等の場合には空を飛んで現場に
急行出来る.又地震のときの避難にも利用出来る.又シ
ロバイやパトカーのような防犯活動車にも利用出来る.
浮力の発生装置について概略説明すると図−7)P部の
F力を利用して別のP部を固定し…Q部という…F力を
上方向に向けることにより回転力を増大することによっ
てF力は増大する.この上方向に向く力をFy力とす
る.回転力を増大することによってFy力は増大する.
このFy力を複数ケ バランスよく機体に配置し固定す
れば機体はFy力によって浮く.又F力を下方向に向け
ることにより機体は降下する.又F力を左右方向に向け
ることにより浮いた機体を左右に移動させるとが出来る
…この力をFx力とよぶ.又同じ方法で前後にも推進さ
せることが可能である…この力をFz力とよぶ.Q部の
F力を上下左右前後に方向を変えることは困難なので,
左右の動作と上下前後の動作に分けて動力部を設置す
る.左右の動作は左と右に対称,かつバランスよく動力
部を設置し,上下前後の動作は動力部を設置する位置は
前後にバランスのよい位置に動力部を設置する. 左右
の動作は同時に,又上下前後の動作は同時に作動するよ
うに作動レバーを別々に設置し(図−8のように各レバ
ーに作動部を連結して)必要に応じて操作が出来るよう
に,又使い勝手のよいように設置する.
BACKGROUND OF THE INVENTION 1. Field of the Invention
Disk A rotates about its axis. If the P part is increased, the rotating force of the disk A increases. Also, if the disk A is increased in multiple stages, the rotational force around the O axis will increase. The F force of P section is generated by Fig. 3). When this rotating force is used to rotate the axis of another fixed P section with the above-mentioned rotating force, F force is generated. Fix P part and F
It can be used as buoyancy by fixing the direction of force upward. By using this buoyancy as the buoyancy of an airplane, it is possible to take off and land in a tight place without pollution and to replace the airplane with a strong wind. It can also be used for cars. In the case of rushing vehicles such as fire trucks and ambulances, when the road is crowded or when a skyscraper ignites, you can fly to the scene. It can also be used for evacuation in the event of an earthquake. It can also be used for crime prevention vehicles such as white bai and police cars.
The buoyancy generating device will be briefly described below. Fig. 7) Another P section is fixed by using the F force of the P section, which is called the Q section. The power increases. This upward force is called the Fy force. The Fy force increases as the rotational force increases.
If this Fy force is placed and fixed on the airframe in a good balance, the airframe will float due to the Fy force. Moreover, the aircraft descends by directing the F force downward. In addition, it is possible to move the floating body to the left and right by directing the F force to the left and right directions. This force is called the Fx force. It is also possible to propel it back and forth in the same way ... This force is called the Fz force. Since it is difficult to change the direction of the F force of the Q section up, down, left and right,
The power unit is installed separately for left and right movements and up, down, front and back movements. The left and right motions are symmetrical to the left and right, and the power unit is installed in a well-balanced manner. For the up and down and front and back motions, the power unit is installed at a well balanced position in the front and back. Install the operating levers separately so that the left and right actions can be performed simultaneously, and the up and down and forward and backward actions can be performed simultaneously (connecting the action part to each lever as shown in Fig. 8) so that it can be operated as necessary. , Also, it is installed so that it is easy to use.

【0002】[0002]

【従来の技術】燃料にガソリン,重油を使用し,内燃機
関にて燃料を爆発させながら回転力を得,その力を利用
して舟や車や,飛行機等の乗り物を動かしていた.その
為に排気ガスによる環境公害汚染が大きな問題となって
いる.又未来のエネルギーとして原子力利用があるが,
放射能漏れ等の危険があり,飛行機等は滑走路として広
い場所が必要で又強い風の時等羽根による飛行は安全面
に問題が残る
2. Description of the Related Art Gasoline and heavy oil are used as fuels, and the internal combustion engine explodes the fuel to obtain a rotational force, which is used to move vehicles such as boats, cars, and airplanes. Therefore, environmental pollution due to exhaust gas has become a big problem. There is also the use of nuclear energy as future energy,
There is a danger of radiation leakage, and airplanes need a large area for the runway. Also, flight with blades when there is a strong wind leaves a safety problem.

【0003】[0003]

【発明が解決しようとする課題】小さな回転力を増幅し
て大きい回転力を得,これを利用して浮力及推進力を発
生させて車や飛行機に浮力を発生させフライト飛行をせ
ずに,電気エネルギーの利用で無公害な,狭い場所での
離着陸が可能となり,救急車や消防車,高層ビルの火事
時の避難車等を作ること.そして永続的に動く乗り物を
提供すること.
[Problems to be Solved by the Invention] A small rotational force is amplified to obtain a large rotational force, and by utilizing this, buoyancy and propulsive force are generated to generate buoyancy in a car or an airplane without flying. Use of electric energy makes it possible to take off and land in a pollution-free, narrow space, and make ambulances, fire trucks, evacuation vehicles in the event of a fire in a skyscraper, etc. And to provide a permanently moving vehicle.

【0004】[0004]

【課題を解決するための手段】浮力や推進力を電気エネ
ルギーで得,特殊車や一般の飛行機に替わる強風に強い
乗り物にこの力を発生する装置を搭載する.浮力や推進
力を電気エネルギーで得る方法は図3)のP部を固定し
た構造のQ部のF力を開発すること.
[Means for Solving the Problems] A device that obtains buoyancy and propulsion by electrical energy and that generates this force is installed in a vehicle that is strong against strong winds as an alternative to special vehicles and general airplanes. To obtain buoyancy and propulsion with electric energy, develop the F force of Q part of the structure with fixed P part of Fig. 3).

【0005】[0005]

【発明の実施の形態】浮力や推進力を電気エネルギーで
得る方法は図3)のP部を固定したQ部のF力を浮力と
して又推進力として利用する方法を開発しればよい 図1)のP部にF力を発生させ複数のP部を円盤Aに取
り付け回転力をO軸に伝え,又円盤Aを多段に軸Oに取
り付けると回転力は増大する.この回転力を固定された
P部……Q部と呼ぶ……の軸を回すとQ部にF力が生
じ,このF力を上方向に向けて固定すると浮力となる.
Q部をバランスよく機体に複数ケ取り付け図8)のよう
にレバーにて操作することによりバランスよく機体は浮
上,推進,上下左右前後に移動する.例えば避難用バス
として上記の装置を設置する.
BEST MODE FOR CARRYING OUT THE INVENTION A method of obtaining buoyancy and propulsion force by electric energy may be developed by utilizing the F force of Q part, which is fixed to P part of FIG. 3), as buoyancy and propulsion force. When a plurality of P parts are attached to the disk A to transmit the rotational force to the O-axis, and when the disk A is attached to the shaft O in multiple stages, the rotational force increases. When this rotating force is rotated around the fixed P part ... Called Q part ..., F force is generated in Q part, and if this F force is fixed upward, it becomes buoyancy.
Attach multiple Q parts to the machine with good balance. By operating the levers as shown in Fig. 8), the machine can be levitated, propelled, and moved up, down, left, right, back and forth with good balance. For example, the above device is installed as an evacuation bus.

【0006】[0006]

【実施例】ビルの屋上に避難用バスを配備しておけば,
ビル火災の時バスで大量の人を脱出させることが可能.
風の強い時も.又防犯活動にもパトカー等のように活躍
出来る.又消防車,救急車等に搭載して空を飛んでいけ
ば急行が可能.
[Example] If an evacuation bus is installed on the roof of the building,
It is possible to get a large number of people to escape by bus in the event of a building fire.
Even when the wind is strong. It can also be used in crime prevention activities like police cars. In addition, it can be used on a fire engine, ambulance, etc. if you fly in the sky.

【0007】[0007]

【発明の効果】燃料のいらない,クリーンなエネルギー
で特種な車,飛行機の動力が得られ,狭い所でも離着陸
ができ,防災や防犯にも活躍出来る乗り物が得られる.
[Effects of the Invention] Fuel-free, clean energy can be used to obtain the power of special vehicles and airplanes, and it is possible to take off and land even in a narrow space and obtain a vehicle that can be used for disaster prevention and crime prevention.

【0008】[0008]

【図面の簡単な説明】[Brief description of drawings]

【図1】P部のF力によりO軸を中心に円盤Aが時計方
向に回転することを示す断面図
FIG. 1 is a sectional view showing that a disk A rotates clockwise around an O axis by an F force of a P portion.

【図2】 セルモーターのシヤフトに取り付けたギヤー
Rとギヤーiを介してP部の軸Cの端に取り付けたギヤ
ーjと円盤Aを多段に取り付けた図1)の側面図.
FIG. 2 is a side view of FIG. 1) in which a gear R attached to a shaft of a starter motor and a gear j attached to an end of an axis C of a P portion via a gear i and a disk A are attached in multiple stages.

【図3】P部の詳細説明図である.C軸を中心に オモ
リMとレバーL,スプリング押板B,スプリングやゴム
材,ストッパーEやカムKの関係を示す.カムKはV1
点に固定されておりC軸を中心に回転の際にオモリMが
V1点にくるとレバーL1,L2がKによって90度回
転し,Lに固定されているストッパーE1,E2がスプ
リング押板Bを押上げ90度反転して起き,固定板Qに
直接 接し衝撃力F1が固定板Qに伝わり軸Cをベクト
ルF1の方向に衝撃力が連続的に加わる.従ってスフリ
ングやゴムによる力の吸収は皆無となる.カムKの無い
V2,V3点はF力を吸収してしまう.ここではオモリ
Mを3固使った場合の説明をしている.M1,M2,M
3のオモリが回転していてV1点にきたときだけF力1
が発生しV2,V3の点を通過するときはF2,F3力
が吸収されて小さくなる.従ってF1力のみが発生する
ことになる.軸oに連結されているギヤーVと固定ギヤ
ーUとの比は1:3であるので固定ギヤーUの周囲を一
回転するとオモリMは3回転することになる.V1,V
2,V3点の順に又元に戻りV1点にF1,F2,F3
と力を生じながら回転は連続的につづく.F2,F3は
即ちV2,V3の点で発生するが前述の通りF力がスプ
リングやゴム材で吸収されて小さくなりF1力のみ作用
する.アクセルに連動されたセルモーターの端子に加わ
わる電圧をアクセルで調節する可変抵抗を図−6)の様
に連動する事でセルモーターの回転が調節でき図3)の
P部の端のギヤーjの回転を変へる事ができる.
FIG. 3 is a detailed explanatory diagram of a P section. The relationship between the weight M, the lever L, the spring push plate B, the spring and the rubber material, the stopper E, and the cam K around the C axis is shown. Cam K is V1
When the weight M is fixed to the point and rotates around the C axis, the levers L1 and L2 are rotated 90 degrees by K when the weight M reaches the point V1, and the stoppers E1 and E2 fixed to the L are spring pressing plates B. Is raised upside down by 90 degrees and comes into direct contact with the fixed plate Q, the impact force F1 is transmitted to the fixed plate Q, and the impact force is continuously applied to the axis C in the direction of the vector F1. Therefore, there is no absorption of force by the sling and rubber. Points V2 and V3 without cam K absorb the F force. Here, the case of using 3 weights M is explained. M1, M2, M
F force 1 only when the weight of 3 rotates and it reaches the V1 point
Occurs and passes through points V2 and V3, the F2 and F3 forces are absorbed and become smaller. Therefore, only F1 force is generated. Since the ratio of the gear V and the fixed gear U connected to the shaft o is 1: 3, one rotation around the fixed gear U causes the weight M to make three rotations. V1, V
Return to the V2 point in the order of 2, V3, and then F1, F2, F3 at the V1 point.
The rotation continues continuously while generating force. F2 and F3 are generated at the points of V2 and V3, but as described above, the F force is absorbed by the spring or the rubber material and becomes small, and only the F1 force acts. The rotation of the cell motor can be adjusted by interlocking the variable resistor that adjusts the voltage applied to the cell motor terminal linked to the accelerator with the accelerator as shown in Fig. 6), and the gear j at the end of part P in Fig. 3) can be adjusted. You can change the rotation of.

【図4】図3)の側面図を示す.FIG. 4 shows a side view of FIG. 3).

【図5】図4)のカムKとレバーLとストッパーEとオ
モリMの関係を示す拡大図を表す.(イ図)はスプリン
グ押板BでストッパーEが押さえられてレバーLも開い
た状態を示す.(ロ図)はオモリMが回転力でG1のほ
うえ移動するとカムKのテーパーの部分でレバーLが閉
じると(ハ図)のようにEがBを押上げて固定板qに接
触し,MがG1の方向に移動したときに加る衝撃力をq
に伝えo軸からS板を通じてC軸に伝わる.これにより
F力が生ずる.(ハ図)はMがG2に移動するとスプリ
ング押板BがX方向にEを押し戻し,同時にレバーLが
Z方向にLが開ことを示す.そして(イ図)に戻る.
FIG. 5 is an enlarged view showing the relationship among the cam K, the lever L, the stopper E, and the weight M in FIG. 4). (B) shows the state in which the stopper E is pressed by the spring push plate B and the lever L is also opened. In (B), when the weight M moves toward G1 by the rotational force, the lever L closes at the taper part of the cam K, and E pushes up B and contacts the fixed plate q as shown in (C). The impact force applied when M moves in the direction of G1 is q
It is transmitted from the o axis to the C axis through the S plate. This causes F force. (C) shows that when M moves to G2, the spring push plate B pushes E back in the X direction, and at the same time, the lever L opens in the Z direction. Then, return to (a).

【図6】可変抵抗を図のように連動することで車につい
ているアクセルのようにアクセル連動片aで可変抵抗値
を変化させてセルモーターの回転が調節でき図2)のP
部の端のギヤーjの回転を変える事できる.アクセル連
動片aで可変抵抗値を変化させながらモーターの回転を
コントロールする発信器xはセルモーターの回転力を制
御するインバーターのチョッパーを示す.発信したパル
ス波形を平滑にして用いる.これでブラシのいらない長
寿命のモーターで回転力を得ることができる.
[Fig. 6] By changing the variable resistance as shown in the figure, the rotation of the starter motor can be adjusted by changing the variable resistance value with the accelerator interlocking piece a like an accelerator on a car.
The rotation of gear j at the end of the part can be changed. The oscillator x that controls the rotation of the motor while changing the variable resistance value with the accelerator interlocking piece a is an inverter chopper that controls the rotation force of the cell motor. The transmitted pulse waveform is smoothed before use. This makes it possible to obtain rotational force with a long-life motor that does not require a brush.

【図7】P部の付いた円盤A群をモーターで回してβで
得た増幅した回転力のO軸のギヤーΨと噛み合っている
ギヤーΦにて機体Σに取り付けてあるQ部にてFy力が
発生することを示す図
FIG. 7: A disk A group with a P portion is rotated by a motor, and a Fy is attached to a body Σ by a gear Φ meshed with a gear Ψ of the O axis of the amplified rotational force obtained in β. Diagram showing that force is generated

【図8】 とを示す.[Figure 8] And.

【図9】Q本体は固定されておりzはK(d1,d2方
向に回転自在になっている)と 連動しzとKはd1,d2方向に連動しF力の向きがK
の方向に向く.F力の向きに合うように機体Σを左右前
後上下に向かせられる. *ページ(6)は略 ページ(7)以降に符号の説明を記載
FIG. 9: The Q body is fixed and z is K (rotatable in the d1 and d2 directions). The z and K are linked in the d1 and d2 directions, and the direction of the F force is K.
In the direction of. The aircraft Σ can be oriented left, right, front, back, up and down to match the direction of the F force. * Page (6) is abbreviated. The explanation of the symbols is described after page (7)

【符号の説明】[Explanation of symbols]

A…O軸に固定されている円盤 B…Eを押さえているスプリング押板 b…gによって発電された電気エネルギーを充電する蓄
電池 C…P部のセンターの軸 D…P部のギヤー軸に直角かつ平行に固定されMを取り
付けている軸 E…ストッパー片 F…ベクトル量で力の大さの値 P部で発生しる. f…P部内で生じる力の大さの値 G…G1,G2があり回転によりMが遠心力により移動
にる方向 g…発電機 H…Uの内側のギヤーの歯部 h…P部の軸受を支えているフレーム i…O軸に軸受を介して固定されRとjを連結してフリ
ーに回転するギヤー j…C軸に固定されているギヤー K…カムでレバーL1,L2を反転させる L…L1,L2がありE1,E2が付いていてKにて反
転しEを反転させる. l…Aの中心からP部のセンターまでの距離 M…オモリ(質量) m…Mの質量を示す. MC…モーター軸 Mo…モーターの総称 Mo1…セルモーター Mo2…ACモーヘーを示し家電商品に内臓されいるA
Cモーターを指す. O…増幅された回転力の中心軸 o…P部内部にあるギヤーVが固定されている軸 P…モーターの回転力により増幅された回転力を発生さ
せる装置の総称部 P1,P2,P3…Pを3つ使用していることを示す. Q…P部を固定した浮力,推進力を生ずる装置. q…MをEを介してF力を受ける固定板 R…モーターの軸に固定されている,iと噛み合ってい
るモーターギヤー r…可変抵抗器 s…スイッチ se…整流器 sp…スプリングを示しMをo軸に押さえ付け半固定の
状態にしている. S…P部内部にo軸を軸受を介して両端で受けCに固定
されている支え板 t…止金具 U…Vの外輪ギヤーで固定されている. V…o軸に固定されておりUの内側で噛み合っているギ
ヤー V1,V2,V3…Vを3つ使用していることを示す. v…電圧計 x…発信器を示す. y…ゴム材を示す Z…BでEを反転させるとLが開く方向を示す. Σ…機体のベース. Φ…Qのシヤフトの端に取り付けたギヤー β…図2)全体を示す. Ψ…O軸の端に取り付けたギヤー γ…βを取り付け部金具
A ... Disk fixed to O axis B ... Spring pressing plate that holds E down B ... Storage battery for charging electric energy generated by g C ... Center axis of P section D ... Right angle to gear axis of P section And the axis that is fixed in parallel and has M attached to it E ... stopper piece F ... vector magnitude value of force magnitude It occurs at P part. f ... Value of magnitude of force generated in P part G ... G1 and G2, and direction in which M is moved by centrifugal force due to rotation g ... Teeth of gear inside generator H ... U h ... Bearing of P part A frame that supports the gear i ... a gear that is fixed to the O shaft via a bearing and rotates freely by connecting R and j j ... a gear that is fixed to the C shaft K ... the levers L1 and L2 are inverted by a cam L ... L1 and L2 are present, E1 and E2 are attached, and K is inverted and E is inverted. l ... Distance from the center of A to the center of P part M ... Weight (mass) m ... M mass. MC ... Motor shaft Mo ... General name of motor Mo1 ... Cell motor Mo2 ... AC Mohe, which is a built-in electric home appliance
Refers to the C motor. O ... central axis of amplified rotational force o ... axis to which gear V inside P part is fixed P ... generic name of device for generating rotational force amplified by rotational force of motor P1, P2, P3 ... It shows that three P are used. Q: A device that produces buoyancy and propulsion with the P section fixed. q ... M fixing plate for receiving F force via E R ... Motor gear fixed to shaft of motor r meshing with i r ... Variable resistor s ... Switch se ... Rectifier sp ... Shows M and shows M It is pressed onto the o-axis and is in a semi-fixed state. A support plate t is fixed to the inside of the S ... P section through the bearings and is fixed to the C at both ends. T ... Fastening bracket U ... V is fixed by the outer ring gear. V ... It is shown that three gears V1, V2, V3 ... V that are fixed to the o-axis and mesh inside U are used. v ... Voltmeter x ... Indicates a transmitter. y ... indicates rubber material. Z ... B indicates the direction in which L opens when E is inverted. Σ ... Base of the aircraft. The gear β attached to the end of the shaft of Φ ... Q ... Figure 2) shows the whole. Gears γ… β attached to the end of Ψ… O axis

Claims (1)

【特許請求の範囲】[Claims] 【請求項1】固定された外輪のギヤーに内側に噛み合う
複数のギヤーとギヤー軸に直角,かつ平行に設けた複数
の軸に錘の孔を通してスフリングとゴム材にて半固定に
取り付け,回転力にて錘に生ずる遠心力を利用して回転
力を増幅させる装置を有しこれを利用して発電機を回
し,これにて発電して充電器に充電してこの電源を利用
してモーターを回転させ,内側に噛み合う複数のギヤー
とギヤー軸を回転せしめ回転力を増幅させる装置を有る
構造を有しアクセルに可変抵抗を連結しセルモーターの
回転を調整することにより増幅された回転の速度を調整
する事により浮力の調整が可能となる又レバーにて左右
上下前後に移動出来る飛行機等の浮力及び推進力の簡易
形動力.
1. A semi-fixed mounting with a sliding ring and a rubber material through a hole of a weight through a plurality of gears meshing inward with a gear of a fixed outer ring and a plurality of shafts provided at right angles to and in parallel with the gear shaft, and rotating force There is a device that amplifies the rotational force by using the centrifugal force generated in the weight and uses it to turn the generator, which generates electricity to charge the charger and uses this power source to drive the motor. It has a structure that has a device that amplifies the rotational force by rotating a plurality of gears that mesh with each other and the gear shaft that rotates inward, and connects the variable resistance to the accelerator to adjust the rotation of the starter motor to increase the speed of the amplified rotation. The buoyancy can be adjusted by adjusting it. It is a simple type of buoyancy and propulsion power for airplanes that can be moved left, right, up, down, front and back by levers.
JP24821195A 1995-08-23 1995-08-23 Simple buoyancy engine Pending JPH0960576A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP24821195A JPH0960576A (en) 1995-08-23 1995-08-23 Simple buoyancy engine

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP24821195A JPH0960576A (en) 1995-08-23 1995-08-23 Simple buoyancy engine

Publications (1)

Publication Number Publication Date
JPH0960576A true JPH0960576A (en) 1997-03-04

Family

ID=17174843

Family Applications (1)

Application Number Title Priority Date Filing Date
JP24821195A Pending JPH0960576A (en) 1995-08-23 1995-08-23 Simple buoyancy engine

Country Status (1)

Country Link
JP (1) JPH0960576A (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
KR20000000051A (en) * 1999-08-10 2000-01-15 강윤팔 Airplane using centrifugal force
WO2022121262A1 (en) * 2020-12-11 2022-06-16 董小华 Power machine

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
KR20000000051A (en) * 1999-08-10 2000-01-15 강윤팔 Airplane using centrifugal force
WO2022121262A1 (en) * 2020-12-11 2022-06-16 董小华 Power machine

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