FLUID STRUCTURE INTERACTION ANALYSIS OF AN HYDROFOIL

被引:0
作者
Lothode, C. [1 ]
Durand, M. [1 ]
Leroyer, A. [2 ]
Visonneau, M. [2 ]
Delaitre, M. [1 ]
Roux, Y. [1 ]
Dorez, L. [3 ]
机构
[1] K Epsilon, Espaces Antipolis, 300 Route Cretes,CS 70116, F-06902 Sophia Antipolis, France
[2] Lab Recherche Hydrodynamiqu, Energetique & Environm Atmospherique, Nantes F-44321, France
[3] Groupama Sailing Team, Brittany 56100, France
来源
COMPUTATIONAL METHODS IN MARINE ENGINEERING V (MARINE 2013) | 2013年
关键词
Fluid Structure Interaction; VIV; RANSE; Racing Yacht;
D O I
暂无
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
In this paper, a dynamic computation of the Groupama 3 foil is performed. Foils are thin profiles, placed under the hull of a ship, allowing it to provide a lifting force. This study is placed in the context of the 2013 America's Cup, which will see the appearance of a new kind of high performance multihull. At high speeds, the foils are subject to intense hydrodynamic forces and to movement due to the sea. The deformations are then sizable and there is a risk of ventilation, cavitation or vibration that could lead to important modification of the hydrodynamic forces or to the destruction of the foil. It is therefore necessary to quantify correctly its deformation and its response to dynamical efforts. The foil/water interaction is a strongly coupled problem, due to the thickness of the object. In this paper, the problem is solved using a segregated approach. The main problems resulting of such a method are the numerical stability and remeshing. These problems are detailed and some results presented. As a first test case, the simulation of a vortex excited elastic plate proposed by Hubner is presented. This case is very demanding in terms of coupling stability and mesh deformation. Then, the foil of Groupama 3 is modelled in a simplified form without hull and free surface, and then in a more realistic conditions with free surface and waves.
引用
收藏
页码:491 / 501
页数:11
相关论文
共 50 条
  • [31] Fluid-structure interaction analysis of a piezoelectric flexible plate in a cavity filled with fluid
    Amini, Y.
    Emdad, H.
    Farid, M.
    SCIENTIA IRANICA, 2016, 23 (02) : 559 - 565
  • [32] ALE and fluid structure interaction
    Souli, M
    Mahmadi, K
    Aquelet, N
    EXPLOSION, SHOCK WAVE AND HYPERVELOCITY PHENOMENA IN MATERIALS, 2004, 465-466 : 143 - 149
  • [33] Fluid structure interaction and sloshing
    ASME Pressure Vessels Piping Div. Publ. PVP, 2006,
  • [34] Fluid-structure simulation of a viscoelastic hydrofoil subjected to quasi-steady flow
    Campbell, R. L.
    Paterson, E. G.
    Reese, M. C.
    Hambric, S. A.
    ADVANCES IN FLUID MECHANICS VIII, 2010, : 439 - 447
  • [35] Stochastic analysis of fluid-structure interaction systems by Lagrangian approach
    Bayraktar, A
    Hançer, E
    STRUCTURAL ENGINEERING AND MECHANICS, 2005, 20 (04) : 389 - 403
  • [36] An hp Error Analysis of HDG for Linear Fluid-Structure Interaction
    Meddahi, Salim
    JOURNAL OF SCIENTIFIC COMPUTING, 2025, 102 (02)
  • [37] On the analysis of a mechanically consistent model of fluid-structure-contact interaction
    Champion, Marguerite
    Fernandez, Miguel A.
    Grandmont, Celine
    Vergnet, Fabien
    Vidrascu, Marina
    MATHEMATICS IN ENGINEERING, 2024, 6 (03): : 425 - 467
  • [38] BEM and FEM analysis of fluid-structure interaction in a double tank
    Ravnik, J.
    Strelnikova, E.
    Gnitko, V.
    Degtyarev, K.
    Ogorodnyk, U.
    ENGINEERING ANALYSIS WITH BOUNDARY ELEMENTS, 2016, 67 : 13 - 25
  • [39] Partitioned vibration analysis of internal fluid-structure interaction problems
    Gonzalez, Jose A.
    Park, K. C.
    Lee, I.
    Felippa, C. A.
    Ohayon, R.
    INTERNATIONAL JOURNAL FOR NUMERICAL METHODS IN ENGINEERING, 2012, 92 (03) : 268 - 300
  • [40] Numerical and experimental fluid-structure interaction analysis of a flexible propeller
    Fuentes, D.
    Hochbaum, A. Cura
    Schulze, R.
    SHIP TECHNOLOGY RESEARCH, 2023, 70 (03) : 163 - 173