JP6537000B1 - Stabilization mechanism of an aircraft having two or more rotors - Google Patents

Stabilization mechanism of an aircraft having two or more rotors Download PDF

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JP6537000B1
JP6537000B1 JP2018014123A JP2018014123A JP6537000B1 JP 6537000 B1 JP6537000 B1 JP 6537000B1 JP 2018014123 A JP2018014123 A JP 2018014123A JP 2018014123 A JP2018014123 A JP 2018014123A JP 6537000 B1 JP6537000 B1 JP 6537000B1
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fuselage
arm
rotary
fuselage body
aircraft
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JP2019123486A (en
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石川 誠司
石川  誠司
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石川 誠司
石川 誠司
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Abstract

【課題】2個以上の回転翼で飛行する航空機の減速時や着陸時に機体に生じる負荷を緩衝し安全性能を向上する。【解決手段】2個以上の回転翼を有する航空機において回転翼を機体に接続するアーム部を可動式として上下方向へ可動するアーム部と機体の間に緩衝装置を設け回転翼ならびに着陸脚にかかる機体の荷重を緩衝するとともに回転翼に負荷がかかった場合に機体胴体に対する回転翼の回転面に上反角が生じる構造とし飛行中の機体を安定させる。【選択図】図2An object of the present invention is to improve a safety performance by buffering a load generated on an aircraft at the time of deceleration or landing of an aircraft flying with two or more rotary wings. In an aircraft having two or more rotary wings, a shock absorbing device is provided between the wing and an air moving arm which connects an rotary wing to an airframe so as to move the arm to move the rotary wing and the landing leg It stabilizes the in-flight fuselage by buffering the load of the fuselage and creating a diversion on the rotary surface of the rotary blade with respect to the fuselage when the load is applied to the rotary blade. [Selected figure] Figure 2

Description

2個以上の回転翼を有する航空機の構造に関するものである。The present invention relates to the structure of an aircraft having two or more rotors.

複数の回転翼をもつ一般にドローン、マルチコプターと呼ばれる航空機が開発されており機体胴体部と回転翼部を接続するアーム部は可能式の物もあるが飛行中は固定式である。An aircraft generally called a drone or multicopter having a plurality of rotors has been developed. The arm connecting the fuselage fuselage and the rotor is available while it is stationary during flight.

飛行機の機体胴体部に取り付けられた揚力を発生させる翼に上反角を設けることで機体の安定性を向上できることが知られている。It is known that the stability of the fuselage can be improved by providing a diversion on a wing attached to the fuselage body of the aircraft to generate lift.

2個以上の回転翼で機体を制御する航空機の回転翼と機体の間の構造にかかる負荷を低減するとともに機体の安定性を向上する。It controls the fuselage with two or more rotors, reduces the load on the structure between the rotor and the fuselage of the aircraft, and improves the stability of the fuselage.

2個以上の回転翼を有する航空機において、回転翼を機体胴体部に接続するアーム部の連結部を中心としてアーム部を上下方向に可動式とし機体胴体部とアーム部の間に緩衝装置を設けるIn an aircraft having two or more rotary wings, an arm is vertically movable centering on a connecting portion of the arm connecting the rotary wing to the fuselage body, and a shock absorber is provided between the fuselage body and the arm

回転翼と機体胴体部を接続するアーム部が上方に可動した際に機体胴体部に対し回転翼の回転面に上反角が生じる構造とする。When the arm connecting the rotor and the fuselage body is moved upward, an upward angle is produced on the rotational surface of the rotor relative to the fuselage body.

降下中の機体が降下速度の減速を行った場合、機体胴体部とアーム部の間に生じる負荷を緩衝できる。If the descent aircraft is slowing down, the load generated between the fuselage body and the arm can be buffered.

機体が前進あるいは後進状態から回転翼の揚力で減速を行った場合に機体胴体部とアーム部の間にかかる負荷を緩衝できる。The load applied between the fuselage body portion and the arm portion can be buffered when the body is decelerated by the lift of the rotary wing from the forward or reverse state.

緩衝装置が縮んだ状態になった際に機体胴体部と回転翼の回転面の間に上半角をあたえるとともに回転翼の回転面に対し機体胴体部の重心を低くし機体の安定性を向上できる。When the shock absorber is contracted, the upper half-angle can be provided between the fuselage body and the rotary surface of the rotary wing, and the center of gravity of the fuselage body can be lowered relative to the rotary surface of the rotary wing to improve the stability of the fuselage. .

着陸時に機体の着陸脚ならびに着陸脚を取り付ける部位にかかる機体胴体部の荷重を緩衝できる。It can buffer the load of the fuselage fuselage that is applied to the landing leg of the airframe and the site to which the landing leg is attached at the time of landing.

機体胴体部下部に緩衝装置を設けた機体構造を示す断面図である。(実施例1)It is sectional drawing which shows the airframe structure which provided the shock absorbing device in the fuselage body lower part. Example 1 アーム部と緩衝装置の作動状態を示す説明図である。(実施例1)It is explanatory drawing which shows the operating state of an arm part and a shock absorbing device. Example 1 アーム上部側に緩衝装置を設けた機体構造を示す断面図である。(実施例2)It is sectional drawing which shows the airframe structure which provided the shock absorbing device in arm upper side. (Example 2)

機体胴体部に回転翼をアーム部を介して連結しアーム部と機体胴体部を接続する回転軸を中心にアームが上下方向に可動するようにする。The rotary wing is connected to the fuselage body via an arm, and the arm is movable in the vertical direction around a rotation axis connecting the arm and the fuselage body.

アーム部と機体胴体部の間に緩衝装置をとりつけ負荷が加わった場合、緩衝装置で負荷を緩衝できるようにする。Install a shock absorber between the arm and the fuselage body so that if a load is applied, the shock absorber can cushion the load.

アーム部が上方に可動した際に機体胴体部と回転翼の回転面の間に上反角が生じるようにする。An upward angle is produced between the fuselage body and the rotational surface of the rotary wing when the arm moves upward.

図1で示すように機体胴体部1に回転軸5を介してアーム部4を取り付けアーム部4には回転翼2と回転翼2を駆動する装置が設けられる。As shown in FIG. 1, the arm 4 is attached to the fuselage body 1 via the rotation shaft 5, and the arm 4 is provided with a device for driving the rotary wings 2 and the rotary wings 2.

機体が降下状態から回転翼の揚力を大きくして降下速度を減速した場合、機体胴体部1の荷重がアーム部4の回転軸5にかかり回転軸5を中心にアーム部4には上方へ回転する力が生じる。When the lift of the rotor is increased from the descent state to decrease the descent speed, the load of the fuselage body 1 is applied to the rotation shaft 5 of the arm 4 and rotated upward to the arm 4 around the rotation shaft 5 Power is generated.

アーム部4にかかる力は図2で示すようにアーム部4と機体胴体部1の間に設けた緩衝装置3へと伝わり緩衝装置3で負荷を緩衝する。The force applied to the arm 4 is transmitted to a shock absorber 3 provided between the arm 4 and the fuselage body 1 as shown in FIG.

緩衝装置3が作動しアーム部4が回転軸5を中心に回転することで機体胴体部1と回転翼2の回転面の間に上反角が生じ機体を安定させる。The shock absorber 3 operates and the arm 4 rotates around the rotation shaft 5, thereby generating an upward diversion between the rotation surface of the fuselage body 1 and the rotary wing 2 to stabilize the vehicle.

機体が着陸した際に機体胴体部1の荷重が機体胴体部1と回転軸5で接続されるアーム部4にかかった場合も同様に緩衝装置3が働き着陸脚6にかかる荷重を緩衝する。Similarly, when the load of the fuselage body 1 is applied to the arm 4 connected with the fuselage body 1 and the rotary shaft 5 when the airframe lands, the shock absorber 3 acts similarly to buffer the load applied to the landing leg 6.

図3で示すように機体胴体部1上部側に緩衝装置3を取り付けることも可能であり実施例1と同様の効果を得ることができる。As shown in FIG. 3, it is also possible to attach the shock absorber 3 to the upper side of the fuselage body 1 and it is possible to obtain the same effect as the first embodiment.

回転翼2の羽根の角度を変更することで揚力の発生方向を変更し連続して背面飛行を行う機体では、緩衝装置3を回転翼2にかかる負荷が正方向、逆方向いづれの場合でも緩衝することができる構造とすることで背面飛行中であっても実施例1、実施例2と同様の効果を得ることができる。In the airframe where the direction of lift generation is changed by changing the angle of the blades of the rotary wing 2 and flight is continuously performed in the reverse direction, the shock absorber 3 cushions whether the load on the rotary wing 2 is forward or reverse. With this structure, the same effects as those of the first and second embodiments can be obtained even during reverse flight.

複数の回転翼で飛行する航空機の安全性能を向上することができる。It is possible to improve the safety performance of an aircraft flying with a plurality of rotors.

1 機体胴体部
2 回転翼
3 緩衝装置
4 アーム部
5 回転軸
6 着陸脚
1 fuselage body 2 rotary wing 3 shock absorber 4 arm 5 rotary shaft 6 landing leg

Claims (2)

2個以上の回転翼を有する航空機において回転翼を機体に接続するアーム部を可動式とし上下方向へ可動するアーム部と機体胴体部の間に緩衝装置を設け、回転翼と機体胴体部間ならびにアーム部側に設けた着陸脚にかかる機体胴体部の荷重を緩衝する機構In an aircraft having two or more rotors, an arm connecting the rotor to the fuselage is movable, and a shock absorber is provided between the arm and the fuselage body movable in the vertical direction, and between the rotor and the fuselage body and A mechanism to buffer the load of the fuselage body applied to the landing leg provided on the arm side 請求項1の機構の航空機において機体胴体部と回転翼を接続するアーム部が機体胴体側の回転軸を中心に上方へ回転し機体胴体に対する回転翼の回転面に上反角が生じる構造とし回転翼に上向きの負荷がかかった場合、機体胴体部に対し回転翼の回転面に上反角が生じ機体を安定させるとともに回転翼面に対し機体胴体部の重心を下げることで飛行中の機体を安定させる機構In the aircraft of the mechanism according to claim 1, the arm portion connecting the fuselage body portion and the rotary blade is rotated upward about the rotation axis on the fuselage body side so that an upward angle is generated on the rotational surface of the rotary wing with respect to the fuselage body. When an upward load is applied to the wing, an upward angle is generated on the rotary surface of the rotary wing relative to the fuselage body to stabilize the fuselage and lower the center of gravity of the fuselage body relative to the rotary wing surface to lower the in-flight fuselage. Mechanism to stabilize
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GB393445A (en) * 1931-10-28 1933-06-08 Dornier Metallbauten Gmbh Improvements in or relating to aircraft landing gear
GB513664A (en) * 1937-04-05 1939-10-18 Getefo Spring suspension for aircraft
JPH03148396A (en) * 1989-11-01 1991-06-25 Hiroaki Yasuda Hang glider glidable by human power
FR2959208B1 (en) * 2010-04-22 2012-05-25 Eurl Jmdtheque GYROPENDULAR ENGINE WITH COMPENSATORY PROPULSION AND COLLIMATION OF MULTIMODAL MULTI-MEDIUM FLUID FLOWING GRADIENT WITH VERTICAL LANDING AND LANDING
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