JP2008309054A

JP2008309054A - Propelling machine

Info

Publication number: JP2008309054A
Application number: JP2007157084A
Authority: JP
Inventors: Ieharu Okamoto; 家春岡本
Original assignee: Individual
Current assignee: Individual
Priority date: 2007-06-14
Filing date: 2007-06-14
Publication date: 2008-12-25

Abstract

<P>PROBLEM TO BE SOLVED: To generate a propulsive power using centrifugal force and precession. <P>SOLUTION: When a small flywheel 2 is rotated 2,000 turns, revolved 200 turns along a U-shaped curved ring 3, and then rotated 100 turns by the overall rotation of a large flywheel 9, the force is transferred in a vertical direction against a tangent line by precession at two points: the rotation and the revolution of the small flywheel 2 and the 100 turns of overall rotation. At the same time, a lifting power (the force is transferred in the vertical direction along the tangent line of the rotation of the large flywheel 9) is used and the centrifugal force is exerted in a 60 degrees upward direction from the small flywheel 2 to generate a propulsive power by the resultant force. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

本発明は昇降機を内臓したフレーム外側に本推進機を組み付けて何段も重ねて上空に伸ばして物体を宇宙などに往復搬送に関するものである。
The present invention relates to a reciprocating conveyance of an object to space or the like by assembling the propulsion device outside a frame having a built-in elevator and stacking several layers and extending it to the sky.

これまでは宇宙へはガス噴出ロケットだけです。先行特許文献には
特許公開２００３−３９４６星野昌文特開２００４−３３２７０２長谷保宏ありますが遠心力、ジャイロスコープの原理を応用していますが構造が全く違います、東京大学宇宙工学部でエレベーターシステムをＮＨＫテレビで聞き、ネットでアクセスするがフレームの強度がネックとなり出来ないので、本推進機で補完する事が出来る。 Until now, only gas jet rockets have entered the universe. Prior patent documents include
Patent Publication 2003-3946 Masafumi Hoshino Although Yasuhiro Hase has applied the principles of centrifugal force and gyroscope, the structure is completely different. At the University of Tokyo Space Engineering Department, he listened to the elevator system on NHK TV and accessed it via the Internet, but the strength of the frame Since it cannot be a bottleneck, it can be supplemented with this propulsion device.

従来のロケット推進では宇宙搬送には施設、資金が莫大となる。
本推進器は遠心力、プレセッションを利用して推進力を発生させてフレームに内臓した昇降機、推進機と組み合わせ恒常的に宇宙へ搬送する事が課題である。
In conventional rocket propulsion, facilities and funds are huge for space transportation.
The problem with this propulsion unit is that it generates centrifugal propulsion and propulsion using precession and is transported to space constantly in combination with an elevator and propulsion unit built in the frame.

本発明は上記目的を達成する為、下記の手段、構成で解決させる、
鉄丸棒を円形リングにしたものを水平に置き、円形リングを蝶の羽のようにＵ状に二つ折れに、曲げて、上が広がったＵ型にする、Ｕ型の内角は１２０度にする、円形Ｕ曲がりリングのＵ型底両端は留め金１１、で大型フライホイル９、の円の淵に取り付け固定する。 In order to achieve the above object, the present invention is solved by the following means and configuration.
Place a round steel ring into a circular ring and place it in a U shape like a butterfly's wing and bend it into a U shape with an open top. The both ends of the U-shaped bottom of the circular U-bending ring are fixed to the circular flange of the large flywheel 9 with clasps 11.

大型フライホイル９、はフレーム７、に取り付け軸先に大型フライホイル９、を嵌入し、大型フライホイル９、のセンターに大型モーター１、を取り付け固定し軸先にには、フランジ駆動ホルダー８、を嵌入する。
The large flywheel 9 is inserted into the frame 7 with a large flywheel 9 at the mounting shaft, and the large motor 1 is mounted and fixed at the center of the large flywheel 9, and the flange drive holder 8 is mounted at the shaft. Insert.

フランジ駆動ホルダー８、には角型棒バー５、の６本をピンで放射状に取り付ける、角型棒バー５、の先端には小型モーター６、を取り付ける。
Six pieces of the square bar 5 are attached to the flange drive holder 8 with pins, and a small motor 6 is attached to the tip of the square bar 5.

小型モーター６、の軸先には小型フライホイル２、を嵌入する、小型フライホイル２、のカバー先端軸に、角金板１２、を嵌め更に長いボールベアリング４も嵌めこみ、角金板１２、に二つ目の長いボールベアリング４、を取り付け固定して円形Ｕ曲がりリング３、を挟んで取り付ける。
A small flywheel 2 is inserted into the shaft tip of the small motor 6. A square metal plate 12 is fitted into a cover tip shaft of the small flywheel 2, and a longer ball bearing 4 is also fitted into the small flywheel 2. The second long ball bearing 4 is attached and fixed to the circular U-bend ring 3 and attached.

小型フライホイル２、を上段左周りで２０００回転で自転させその小型フライホイル２、が円形Ｕ曲がリング３、に沿ってガイドされ２００回転で公転させて更に大型フライホイル９、を１００回転で全体回転するようにする。
The small flywheel 2 is rotated around the upper left at 2000 rotations, and the small flywheel 2 is guided along the circular U-shaped ring 3 and revolved at 200 rotations, and the large flywheel 9 is rotated at 100 rotations. Make the whole rotation.

小型フライホイル２、が右半円２個と左半円２個での、上６０度方向の遠心力の合力で推進力を発生させる、円形Ｕ曲がりリング３、のＵ型曲がりの底部位置で小型フライホイル２、の自転、公転で円周接線の直角方向にプレセッションの力で方向転換する、と同時に大型フライホイル９、の全体回転でも小型フライホイル２、のプレセッションで揚力が発生し下接線方向への力が減殺される、上段下段の回転方向はすべて逆回転とし反作用など相殺してバランスをとらせる、以上の手段を講じた推進機である。
At the bottom of the U-shaped bend of the circular U-bend ring 3, the small flywheel 2 generates propulsive force with the resultant force of centrifugal force in the direction of 60 degrees upward, with two right semicircles and two left semicircles. When the small flywheel 2 rotates and revolves, the direction is changed by the precession force in the direction perpendicular to the circumference tangential line. At the same time, the large flywheel 9 also rotates with the small flywheel 2 precession. The propulsion unit has the above measures in which the force in the lower tangential direction is reduced, and the upper and lower rotation directions are all reverse rotations and counterbalances and balances them.

請求項２の推進機は円形Ｕ曲がりリング３、を平鉄にし、そこに電磁石のリニアモーター駆動コイル１４、を貼り付け磁石ホルダー１３、が円形Ｕ曲がりリング３、に沿ってスライドするようにして、公転２００回転させる磁石ホルダー１３、には小型モーター６、と小型フライホイル２、を取り付ければ、請求項１と同じ効果の推進機である。
The propulsion device according to claim 2 is configured such that the circular U-curved ring 3 is made of flat iron, and an electromagnet linear motor drive coil 14 is attached thereto so that the magnet holder 13 slides along the circular U-curved ring 3. If the small motor 6 and the small flywheel 2 are attached to the magnet holder 13 that rotates 200 revolutions, the propulsion device has the same effect as that of the first aspect.

ロ字型の四角形立法体のフレームにして何段も積み上げ四角形の中にエレベターを組み込み本推進機又は電磁誘導駆動式かギヤーとスピンドルギヤーなどの組み合わせによってエレベーターを昇降させる事が出来る、本推進機を何箇所もフレームの外側に取り付けフレームを常に上方に推進力を働かせてフレームの重力を軽減上空に固定安定させる事が出来て、宇宙にも往復搬送が常時可能となる効果がある、動力は電力で賄う。
又宇宙でのソーラーシステムなどで電力を地上に送電出来る期待ががもてるまた小型フライホイル２、の回転中心点移動が推進機移動距離より遅ければ昇降機やヘリコプターなどに応用できる、効果のある推進機である。
This propulsion unit can be lifted up and down by a combination of a propeller or electromagnetic induction drive type or a combination of gear and spindle gear. A number of places are attached to the outside of the frame, and the frame is always moved upward to reduce the gravity of the frame, so that it can be fixed and stabilized in the sky. Cover with electricity.
Promising propulsion that can be applied to elevators and helicopters if the small flywheel 2 can move to the ground with a solar system in space, and if the movement of the center of rotation of the small flywheel 2 is slower than the propulsion unit movement distance Machine.

小型モーター６、で小型フライホイル２、の直径２００ミリ厚さ３３ミリの中刳りで重さ約４，５キロを回転数２０００回転させる。 The small motor 6 and the small flywheel 2 have a diameter of 200 mm and a thickness of 33 mm.

円形Ｕ曲がりリング３、の太さ２０ミリにして円形の直径約９４０ミリです
円形内径は９００ミリです、実際はＵ曲がり分だけ楕円状となる The circular U-bend ring 3 has a thickness of 20 mm and a circular diameter of about 940 mm. The circular inner diameter is 900 mm.

フランジ駆動ホルダー８、に付けた角型棒バー５、６本の公転数は２００回転です。 The number of revolutions of the 6 square bar bars attached to the flange drive holder 8 is 200 revolutions.

大型モーター１、の軸先にはフランジ駆動ホルダー８、を嵌入している、
角型バー５、の長さはフランジ駆動ホルダー８、軸中心から長いローラーベアリング４、先端まで５５０ミリです。 A flange drive holder 8 is inserted into the shaft end of the large motor 1.
The length of the square bar 5 is 550mm from the flange drive holder 8, the shaft center to the long roller bearing 4, and the tip.

超大型モーター１０、をフレーム７、に取り付けて、軸先には大型フライホイル９、を嵌入して１００回転させる、大型フライホイル９、の中心に大型モーター１、を乗せて固定する。 The super large motor 10 is attached to the frame 7, and the large motor 1 is mounted on the center of the large fly wheel 9 which is inserted into the large flywheel 9 at the shaft end and rotated 100 times.

超大型モーター１０、大型モーター１、小型モーター６、共に上段側左回転下段側右回転として上下段の回転反作用のバランスをとる。
The super large motor 10, the large motor 1, and the small motor 6 all balance the rotational reaction of the upper and lower stages as upper left rotation and lower right rotation.

手作り試作では小型モーター６、は自動車のワイパーモーターを使用、小型フライホイル２、は２個だけで自転約５００回転と、大型モーター１、は２００Ｖ、０．７５ＫＷ可変型を使用、公転は約６０回転で、大型フライホイル９、１００回転は使用しなかったが、横向きスライド方式にして実験した結果推進力は約１キログラムで高速回転は危険で出来なかった。
実用化には超大型モーター、大型モーター、小型モーター、円形Ｕ曲がりリング、フレーム、角型棒バー、など構造、大きさ共に増強して強力な推力を得るようにする、なお図面には補強材は表示していない。 In the handmade prototype, the small motor 6 uses a car wiper motor, the small flywheel 2 uses only two pieces and rotates about 500 revolutions, the large motor 1 uses a 200V, 0.75 kW variable type, and about 60 revolutions. In the rotation, large flywheel 9, 100 rotations were not used, but as a result of experimenting with a lateral slide system, the driving force was about 1 kilogram and high speed rotation was not possible.
For practical use, super large motors, large motors, small motors, circular U-bend rings, frames, square bar bars, etc., increase the structure and size to obtain a strong thrust. Is not displayed.

試算では総推進力は約１１４４キロです、計算式は下記又は図４で説明する。
瞬間時、推進力計算式
重量×半径×回転数？＝遠心力
4,5kg×0,45ｍ×200回転＝405kg

遠心力×小ベクトル係数＝左方小ベクトル遠心力
405kg×166%＝左672kg （ベクトル図面で算出166％）

左小ベクトル遠心力×大ベクトル係数＝総遠心力
672kg× 0% ＝672kg （ベクトル図面で算出０％）

推定プレセッション揚力×２箇所＝推定プレセッション全揚力
（遠心力の半分） 202.5ｋ×２＝405kg (大型フライホイルの全体左回転100回転の分)
推定−接線下方向遠心力×２箇所＝−接線全下方向推進力一段目推定自重
（遠心力の半分) 202.5kg×2＝ 405kg 100 kg

推定-接線全下方向推進力＋推定自重＝全マイナス推進力
405kg＋ 100kg ＝505kg

（総遠心力＋推定プレセッション揚力）−（−推定接線下方向推進力＋推定自重）＝上段推進力
（672kg＋405kg）−（ −405kg ＋100kg ）＝ 572kg

（上段側）572kg＋（下段側）572kg＝1144kg（総推進力）
理科の先生に計算して貰うと405kgが88.5kgとでる166％掛けると146.9kgで自重より大きい。
In the trial calculation, the total driving force is about 1144 km, and the calculation formula will be explained below or in FIG.
Momentary moment propulsion formula Weight x Radius x Rotation speed? = Centrifugal force
4,5kg × 0,45m × 200rpm = 405kg

Centrifugal force x small vector coefficient = left small vector centrifugal force
405 kg x 166% = left 672 kg (calculated by vector drawing 166%)

Left small vector centrifugal force x large vector coefficient = total centrifugal force
672kg × 0% = 672kg (Calculated with vector drawing 0%)

Estimated precession lift x 2 locations = estimated precession total lift (half of the centrifugal force) 202.5k x 2 = 405 kg (100 minutes of total left turn of large flywheel)
Estimated-Tangent downward centrifugal force x 2 locations =-Tangent full downward propulsive force First stage estimated dead weight (half of the centrifugal force) 202.5 kg x 2 = 405 kg 100 kg

Estimated-tangential full downward propulsive force + estimated dead weight = total negative propulsive force
405kg + 100kg = 505kg

(Total centrifugal force + Estimated precession lift)-(-Estimated tangential downward thrust + Estimated weight) = Upper thrust
(672kg + 405kg)-(-405kg + 100kg) = 572kg

(Upper side) 572kg + (Lower side) 572kg = 1144kg (Total driving force)
Calculated by a science teacher, 405 kg is 88.5 kg, multiplied by 166%, which is 146.9 kg, which is greater than its own weight.

本発明の斜視図であるIt is a perspective view of the present invention. 本発明の「請求項２」の推進機The propulsion device according to claim 2 of the present invention 図１の一部横、断面図Partial side view and cross-sectional view of FIG. 瞬間時の推力計算図Thrust calculation diagram at the moment

Explanation of symbols

１、大型モーター９、大型フライホイル
２、小型フライホイル１０、超大型モーター
３、円形Ｕ曲がりリング１１、円形Ｕ曲がりリング留め金
４、長いローラーベアリング１２、角金板
５、角型棒バー
６、小型モーター１３、磁石ホルダー（図２）
７、フレーム１４、リニアモーター駆動コイル（図２）
８、フランジ駆動ホルダー
1. Large motor 9. Large flywheel
2, Small flywheel 10, Super large motor
3. Circular U bend ring 11. Circular U bend ring clasp
4. Long roller bearing 12, square metal plate
5. Square bar
6. Small motor 13, magnet holder (Fig. 2)
7, frame 14, linear motor drive coil (Figure 2)
8. Flange drive holder

Claims

Two semi-circular bars are set up vertically in the front-rear direction, and the two vertices are tilted 60 degrees to the left and right, and the lower ends are connected to the U shape. The wheel surface is perpendicular to the semi-circular surface, and the rotational transition tangent is made by precession at the point when the rotational movement is 0 ° to 180 ° on the circumference so that the sun rises from the left semi-circular side. Since the force is changed in the direction perpendicular to the direction, and at the same time, it is rotated counterclockwise around the center point of the diameter of the semicircular rod, lift is generated in the same way as the former. The power is reduced, the small flywheel moves and rotates on the circumference of the semi-circular rod standing to the right, and the small flywheel guided by the circumferential movement of the semi-circular, from 180 degrees in front Go around 360 degrees to the right side as the sun goes down. If a plurality of small flywheels are attached, and the small flywheels are scattered on the left and right circumferences, the small flywheels are scattered 60 degrees upward on the left and right. The centrifugal force of the small flywheel works and the propulsive force that pulls up in the upward direction is generated by the resultant force of the vector. The upper and lower stages are propulsion units that balance the rotational reaction by reversing the direction of rotation.

To a strong magnet holder that makes a semicircular bar flat iron, affixes a linear motor drive coil to the flat iron and moves to the flat iron ring, and moves and revolves by sliding along the flat iron ring through the strong magnet holder by electromagnetic drive If a small motor and a small flywheel are attached, the propulsion device described in claim 1 is obtained.