Transient responses of a VLFS during landing and take-off of an airplane

被引:107
|
作者
Kashiwagi, M [1 ]
机构
[1] Kyushu Univ, Appl Mech Res Inst, Kasuga, Fukuoka 8168580, Japan
关键词
very large floating structure (VLFS); hydroelastic response; time domain; landing; take-off;
D O I
10.1007/s00773-003-0168-0
中图分类号
U6 [水路运输]; P75 [海洋工程];
学科分类号
0814 ; 081505 ; 0824 ; 082401 ;
摘要
The transient elastic deformation of a pontoon-type very large floating structure (VLFS) caused by the landing and take-off of an airplane is computed by the time-domain mode-expansion method. The memory effects in hydrodynamic forces are taken into account, and great care is paid to numerical accuracy in evaluating all the coefficients appearing in the simultaneous differential equations for the elastic motion of a VLFS. The time-histories of the imparted force and the position and velocity of an airplane during landing and take-off are modeled with data from a Boeing 747-400 jumbo jet. Simulation results are shown of 3-D structural waves on a VLFS and the associated unsteady drag force on an airplane, which is of engineering importance, particularly during takeoff. The results for landing show that the airplane moves faster than the structural waves generated in the early stage, and the waves overtake the airplane as its speed decreases to zero. The results for take-off are essentially the same as those for landing, except that the structural waves develop slowly in the early stage, and no obstacle exists on the runway after the take-off of airplane. The additional drag force on an airplane due to the elastic responses of the runway considered in this work was found to be small in magnitude.
引用
收藏
页码:14 / 23
页数:10
相关论文
共 50 条
  • [1] Transient responses of a VLFS during landing and take-off of an airplane
    Masashi Kashiwagi
    Journal of Marine Science and Technology, 2004, 9 : 14 - 23
  • [2] Take-off and landing of an AWE system using a multicopter
    Schanen, Audrey
    Dumon, Jonathan
    Meslem, Nacim
    Hably, Ahmad
    2020 AMERICAN CONTROL CONFERENCE (ACC), 2020, : 3846 - 3851
  • [3] Quadcopter neural controller for take-off and landing in windy environments
    Olaz, Xabier
    Alaez, Daniel
    Prieto, Manuel
    Villadangos, Jesus
    Astrain, Jose Javier
    EXPERT SYSTEMS WITH APPLICATIONS, 2023, 225
  • [4] Unified controller for take-off and landing for a fixed-wing aircraft
    de Oca, Andres Montes
    Flores, Gerardo
    2020 INTERNATIONAL CONFERENCE ON UNMANNED AIRCRAFT SYSTEMS (ICUAS'20), 2020, : 473 - 479
  • [5] The Design of an Optical Wireless Network Based Landing and Take-off Assistance System
    Krichen, Dhouha
    Abdallah, Walid
    Boudriga, Noureddine
    PROCEEDINGS OF 2016 ADVANCES IN WIRELESS AND OPTICAL COMMUNICATIONS (RTUWO), 2016, : 59 - 65
  • [6] Relationship between myological variables and different take-off and landing behaviours in frogs
    Soliz, Monica
    Tulli, Maria J.
    Abdala, Virginia
    ACTA ZOOLOGICA, 2020, 101 (03) : 271 - 281
  • [7] Formulation of a nonlinear mathematical model to simulate accelerations of an AAMV in take-off and landing phases
    Amiri, Mojtaba Maali
    Dakhrabadi, Mohammad Tavakoli
    Seif, Mohammad Saeed
    SHIPS AND OFFSHORE STRUCTURES, 2016, 11 (02) : 198 - 212
  • [8] Technology of Autonomous Take-Off and Landing for the Modern Flight and Navigation Complex of an Unmanned Aerial Vehicle
    Volkov, O.
    Komar, M.
    Rachkovskij, D.
    Volosheniuk, D.
    CYBERNETICS AND SYSTEMS ANALYSIS, 2022, 58 (06) : 882 - 888
  • [9] Technology of Autonomous Take-Off and Landing for the Modern Flight and Navigation Complex of an Unmanned Aerial Vehicle
    O. Volkov
    M. Komar
    D. Rachkovskij
    D. Volosheniuk
    Cybernetics and Systems Analysis, 2022, 58 : 882 - 888
  • [10] Experiment on flight performance of dragonfly during take-off
    Zheng M.
    Li Q.
    Pan T.
    Zhang J.
    Hangkong Dongli Xuebao/Journal of Aerospace Power, 2019, 34 (07): : 1450 - 1458