Flatness-based improved relative guidance maneuvers for commercial aircraft

被引:0
|
作者
Miquel, T
Lévine, J
Mora-Camino, F
机构
[1] Ecole Mines Paris, Ctr Automat & Syst, F-77300 Fontainebleau, France
[2] CENA, F-31055 Toulouse, France
[3] ENAC, F-31055 Toulouse, France
[4] CNRS, LAAS, F-31077 Toulouse, France
关键词
aircraft control; relative guidance; nonlinear control; differential flatness;
D O I
暂无
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
With the sustained increase of air traffic leading to airspace saturation, new flight maneuvering capabilities are expected for commercial aircraft. Among these, relative guidance of airliners, a set of maneuvers that doesn't require air traffic control support, appears as a. promising solution to ease air traffic controllers' workload. Relative guidance means path convergence of following aircraft to delayed position of leading ones and station keeping The convergence and station keeping phases are realized onboard the aircraft using their sensing and communication facilities, in a decentralized way, under aircraft maneuverability constraints due to safety and passenger comfort issues. Tu this paper, after introducing the relative positioning dynamics of two aircraft,, their flatness property is shown and a flat control law is proposed. Reference trajectories are designed in two steps: if the separation between aircraft is too small, the follower's trajectory is stretched by imposing a sinusoidal movement; at constant speed; in the opposite case, the follower copies the leader's delayed trajectory. The feedback tracking is done by feedback linearization. Simulation results, using a real scenario involving wide body aircraft in a merging situation are displayed and discussed.
引用
收藏
页码:271 / 284
页数:14
相关论文
共 50 条
  • [1] Flatness-based guidance for planetary landing
    Desiderio, Delia
    Lovera, Marco
    [J]. 2010 AMERICAN CONTROL CONFERENCE, 2010, : 3642 - 3647
  • [2] Guidance and Control for Planetary Landing: Flatness-Based Approach
    Desiderio, Delia
    Lovera, Marco
    [J]. IEEE TRANSACTIONS ON CONTROL SYSTEMS TECHNOLOGY, 2013, 21 (04) : 1280 - 1294
  • [3] Flatness-Based Reduced Hessian Method for Optimal Control of Aircraft
    Sandeepkumar, R.
    Mohan, Ranjith
    [J]. JOURNAL OF GUIDANCE CONTROL AND DYNAMICS, 2022, 45 (05) : 921 - 934
  • [4] Flatness-based hypersonic reentry guidance of a lifting-body vehicle
    Morio, Vincent
    Cazaurang, Franck
    Vernis, Philippe
    [J]. CONTROL ENGINEERING PRACTICE, 2009, 17 (05) : 588 - 596
  • [5] Neural guidance control for aircraft based on differential flatness
    Lu, Wen-Chi
    Duan, Lili
    Hsiao, Fei-Bin
    Mora-Camino, Felix
    [J]. JOURNAL OF GUIDANCE CONTROL AND DYNAMICS, 2008, 31 (04) : 892 - 898
  • [6] Flatness-based Trajectory Optimization for Spacecraft Proximity Relative Motion in Elliptic Orbits
    Ao Houjun
    Cai Weiwei
    Yang Leping
    Zhu Yanwei
    Zhang Yuanwen
    [J]. PROCEEDINGS OF THE 35TH CHINESE CONTROL CONFERENCE 2016, 2016, : 5415 - 5420
  • [7] Flatness-based optimization of batch processes
    van Wissen, ME
    Palanki, S
    Grievink, J
    [J]. EUROPEAN SYMPOSIUM ON COMPUTER AIDED PROCESS ENGINEERING - 12, 2002, 10 : 589 - 594
  • [8] Flatness-based Control of a Continuous Furnace
    Winkler, Franz J.
    Krause, Inga
    Lohmann, Boris
    [J]. 2009 IEEE CONTROL APPLICATIONS CCA & INTELLIGENT CONTROL (ISIC), VOLS 1-3, 2009, : 719 - +
  • [9] Flatness-based control of a Timoshenko beam
    Rudolph, J
    Woittennek, F
    [J]. ZEITSCHRIFT FUR ANGEWANDTE MATHEMATIK UND MECHANIK, 2003, 83 (02): : 119 - 127
  • [10] Flatness-based Online Controller Reconfiguration
    Osmic, Semir
    Traechtler, Ansgar
    [J]. IECON 2008: 34TH ANNUAL CONFERENCE OF THE IEEE INDUSTRIAL ELECTRONICS SOCIETY, VOLS 1-5, PROCEEDINGS, 2008, : 155 - 160