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不確実性がある場合に,適応的第二次連続制御を用いたクアドローターの起
Sandeep Gupta1, Anuj Nandanwar2, Narendra Kumar Dhar3
1Department of Electrical Engineering, Indian Institute of Technology Kanpur, Kanpur, 208016, India. sngupta@iitk.ac.in.
Scientific reports
|February 12, 2026
まとめ
この研究は,垂直の表面に安定した座着を達成するために,クワドローターの適応制御戦略を導入します. これにより,検査と監視のタスクの耐久性とエネルギー効率が向上します.
科学分野:
- ロボット工学 ロボット工学 ロボット工学
- 制御システム工学 制御システム工学
- 航空宇宙工学は,航空宇宙工学である.
背景:
- 四旋翼ドローンは,検査と監視に不可欠です.
- 現在の制限には,短時間のミッション耐久性と高いエネルギー消費が含まれています.
- 垂直面 (perching) との安定した接触が解決策となる.
研究 の 目的:
- 安定した四旋翼機が垂直表面に座るための適応制御戦略を開発する.
- 査察と監視におけるミッション耐久性とエネルギー効率の向上.
- 模型の不確実性や外部の乱れを処理するため.
主な方法:
- 適応的第2次連続制御 (ASOCC) 戦略を提案しました.
- 不確実性と乱れを扱うために,有限時間収束的乱れオブザーバーを導入した.
- 観察者-コントローラーシステムのための閉ループリヤプノフ安定性を確立しました.
主要な成果:
- 広範なシミュレーションにより,ASOCCの戦略は様々な条件下で検証されました.
- 比較分析は,既存の方法よりも優れた精度,堅固さ,および障害耐性を示しました.
- 実験試験では,室内および室外での垂直の壁に安定した座り方を確認しました.
結論:
- ASOCCの戦略は,垂直の表面に安定した四旋翼を座らせることを可能にします.
- これは,検査と監視のための耐久性とエネルギー効率を大幅に改善します.
- 提案された方法は,実際の条件下で高い性能と堅実性を実証しています.
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