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Citation:
 Benamar Derrar,Benameur Hamoudi,Mohammed El-Amine Dris,et al.Numerical Simulation of Marine Vehicle Immersed in Water[J].Journal of Marine Science and Application,2019,(3):282-294.[doi:10.1007/s11804-019-00099-1]
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Numerical Simulation of Marine Vehicle Immersed in Water

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Title:
Numerical Simulation of Marine Vehicle Immersed in Water
Author(s):
Benamar Derrar1 Benameur Hamoudi1 Mohammed El-Amine Dris2 Fethi Saidi1
Affilations:
Author(s):
Benamar Derrar1 Benameur Hamoudi1 Mohammed El-Amine Dris2 Fethi Saidi1
1 Aerohydrodynamic Laboratory, Department of Maritime Engineering, Faculty of Mechanical Engineering, University of Sciences and Technology of Oran Mohamed Boudiaf, Bir El Djir, BP 1505, 31000 El’Mnaouer, Oran, Algeria;
2 Department of Hydraulics, University Djillali Liabes of Sidi Bel-Abbes, 22000 Sidi Bel Abbès, Algeria
Keywords:
SlammingHydrodynamic impactAero-hydro-elasticDihedralFluid/structure interactionMarine vehicle
分类号:
-
DOI:
10.1007/s11804-019-00099-1
Abstract:
This article presents a numerical study of the forces induced by hydrodynamic impact, that is, the impact of a part of the bottom of the hull on the water surface. The prediction of these efforts is often based on numerical simulations to determine the shock intensity of a structure on the surface of a weakly compressible fluid (for example, water). The short duration of the impact is also investigated in this work. This phenomenon occurs especially when a ship encounters a harsh and difficult sea conditions. Under such conditions, it is important to know how to predict the hydrodynamic forces applied to the structure to correctly optimize the ship elements during its design stage or to prevent possible damage. Indeed, various factors such as speed of the ship and height of the swell can cause the hull to partially emerge and then fall violently onto the water surface, which is referred to by naval personnel as tossing or slamming causing vibrations, stresses, and fatigue to the structural elements of the ship. In this work, we present an example of phenomenon modeling and then a numerical study of the different geometries (dihedron) that play a role in different sections of the bow. Then, we compare our present results with the theoretical and experimental results of other researchers in the field. The average interval impact time for a dihedral model corresponding to the section of the chosen ship and other experimental and theoretical data is in good agreement with the experimental and theoretical measurements.

References:

Alan T (2010) Modélisation Tridimensionnelle d’Impacts Hydrodynamiques pour l’Etude du Tossage des Bulbes d’Etrave. P.hD. thesis, Laboratoire Brestois de Mécanique et des Systèmes. Ecole Doctorale SICMA (E.D. 373). EA4325 ENSIETA. Université de Bretagne Occidentale. ENIB.:2010
Albert Z (2005) Ship load model on large amplitude waves. Revue. Faculty of Engineering, Department of Naval Architecture and Ocean Engineering. University of Rijeka, Croatia. https://doi.org/10.1201/9781439833728.ch39
Antoinat L, Kubler R, Achard G, Barrallier L (2013) Etude d’un Programmateur d’Impact Solide Equivalent à un Impact à l’Eau. ParisTech, laboratoire MSMP, 21ème Congrès Français de Mécanique, Bordeaux
Carmine C (2010) Numerical simulation of fluid/structure interaction comparing SPH and ALE approaches. Sixth pegasus-AIAA student conference. Sevilla, Spain
Chuang SL (1966) Experiments on flat-bottom slamming. J Ship Res 10(1):10-17
Chuang SL (1967) Experiments on slamming of wedge-shaped bodies. J Ship Res
Constantinescu A (2006). Modélisation 2D de l’Impactd’une Structure sur l’Eau. Ph.D thesis, Initiation de l’endommagement. Université de Bretagne Occidentale
Derrar B, Hamoudi B (2012) Etude Numérique d’Impact Hydrodynamique entre une Structure et une Surface Libre. 1er Congrès International d’Aéro-Hydrodynamique Naval (CIAHN-2012). Oran, Algérie
Derrar B, Hamoudi B (2013) Etude Théorique d’Impact et d’Immersion entre une Structure et une Surface Libre. 1èreConférence Internationale sur les Sciences Aéronautiques (I.C.A.S’ 01). Oran, Algérie
Derrar B, Hamoudi B, Nadji C (2014) Etude, Evaluation Formulaire d’Impact Hydrodynamique d’une Structure Flottante. 3eme Conférence Internationalesur les Matériaux et les Structures en Composite (CIMSC’14). Oran, Algérie
Destuynder P, Fabre C (2012) Modélisation du Comportement Hydrodynamique des Bateaux. Cours donné à l’Ecole d’Ingénieurs de Kénitra, Maroc (ENSA) du 25 au 28 juin 2012 dans le cadre du projet MNOTSI
Faltinsen O (2002) Water entry of a wedge with finite deadrise angle. J Ship Res 46(1):39-51
Fontaine E, Boudet L, Leguen JF, Magee A (1997) Etude Impact Hydrodynamique d’un Corps Allonge et Plat:Application au Tossage. 6ème Journées de l’hydrodynamique. ECOLE Centrale de Nantes, France
Guilmineau E, Leroyer A, Visonneau M, Naciri M, Ory E (2010) Numerical Simulation of a Moored Ship. Equipe Modéliation Numérique, Laboratoire de Mécanique des Fluides, CNRS UMR 6598. Ecole Centrale de Nantes, 12ème Journée de l’Hydrodynamique, Nantes, France
Hamoudi B (1995) Dynamic response of hull due to bottom slamming and deck wetness. Ph.D thesis, University of Glasgow
Howison SD, Ockendon JR, Wilson SK (1991) Incompressible waterentry problems at small deadrise angels. J Fluid Mech 222:215.https://doi.org/10.1017/S0022112091001076
Jacques N, Constantinescu A, Kerampran S, Neme A (2007) Comparaison de Déférentes Méthodes pour la Simulation Numérique de l’Impact Hydrodynamique. Laboratoire de Mécanique des Structures Navales (MSN). 11èmes Journées de l’Hydrodynamique.Brest, France
Lewison GRG (1970) On the reduction of slamming pressures. Trans. RINA, 2, and, National Physical Laboratory, Ship Report 138
Lloyd ARJM (1989) Seakeeping:ship behaviour in rough weather, London. Ellis Horwood Ltd. The Royal Institute of Navigation
Malleron N (2009) Contribution à l’Etude des Interactions Fuide/Structure pour l’Analyse de l’Impact Hydrodynamique d’un Système de Flottabilité d’Hélicoptère. Cours Physics, Université de la Méditerranée-Aix-Marseille Ⅱ, 2009. France
Nicolas A (2004) Modélisation de l’impact hydrodynamique par un couplage fluide/structure. Ph.D thesis, Université des Sciences et technologies de lille, Villeneuve d’Ascq, France
Oliver J M (2002) Water-Entry and Related Problems. PhD thesis, Oxford
Ribet H (1997) Modélisation Numérique d’Impact sur l’Eau d’une Structure Souple par une Méthode Élément Finis Explicite. Convention de Recherche Université Paul Sabatier (Toulouse) -Aérospatiale, 6ème Journée de l’Hydrodynamique, Nantes, France
Roger WP (2011) Multiphysics modeling (using) Comsol a first principles approach. Copyright by Jones and Bartlett Publishers, LLC
Ropars J (1962) La Théorie du Navire Appliquée au Navire de Commerce. Suivie d’une étude sur les fatigues du navire. Éditions Maritimes et d’Outre-mer Bordeaux, Paris
Rouss JM, Pettinotti B, Quillard O, Toularastel JL, Ferrant P (1973) Slamming experiments on a ship model. Hydrodynamics and Ocean Eng. Group, Fluids Mech. Lab.-UMR 6598 CNRS/Centrale Nantes, France
Rouss JM, Couty N, Toularastel JL, Pettinotti B, Ferrant P (2005) Etude Expérimentale du Tossage sur un Navire. 10ème Journées de l’hydrodynamique. Equipe Hydrod-ynamique et Génie Océanique. Nantes, France
Scolan YM (2012) Hydrodynamic loads during impact of a threedimensional body with an arbitrary kinematics. ENSTA-Bretagne. Verny 29806 Brest Cedex 9, France
Scolan Y-M, Coche E, Condray T, Fontaine E (1999) Etude Analytique et Numérique de l’Impact Hydrodynamique sur des Carènes Dissymétriques. Revue. 7ème Journées de l’hydrodynamique, Marseille, France
Sébastien E (2013) Propagation d’une Onde de Choc en Présence d’une Barrière de Protection. P.hD. thesis, Ecole Doctorale Energie, Materiaux, Sciences de la Terre et de l’Univers. Universitéd’Orléans
Souali M, Nicolas A (2002) An overview of fluid/structure interaction. In:Recent development and applications. Revue Laboratoire de mécanique de Lille, France
Temarel P (2006) Loads on ships, Volume 1. 16th international ship and offshore structures congress. Southampton, UK
Tveitnes T, Fairlie-Clarke AC, Varyani K (2008) An experimental investigation into the constant velocity water entry of wedge-shaped sections. Ocean Eng 35(14-15):1463-1478. https://doi.org/10.1016/j.oceaneng.2008.06.012
Van Daalen EFG (1993) Numerical and theoretical studies of water waves and floating bodies. Ph.D thesis, University of Twente. Enschede, Pays-Bas
Verhagen JHG (1967) The impact of flat on a water surface. J Ship Res 11:211-223
Xia J (2005) A consistent strip-theory approach for wave loads and ship motions in rough seas. Proc 20th Int workshop on water waves and floating bodies IWWWFB, Norway

Memo

Memo:
Received date:2018-07-29;Accepted date:2018-12-19。
Corresponding author:Benameur Hamoudi,hamoudi_benameur@yahoo.fr
Last Update: 2019-09-18