Hydroelasticity 2012
Proceedings ofthe sixth International Conference on
Hydroelasticity in Marine Technology
Tokyo, JAPAN
19-21 September 2012
H Y D R O E L A S T I C I T Y IN MARINE
TECHNOLOGY
Edited by
Ken TAKAGI
The University of Tokyo, JAPAN
and
Yoshitaka OGAWA
First published 2012
©Takagi Lab. and the authors o f the individual papers The University o f Tokyo
5-1-5, Kashiwanoha, Kashivva, Chiba
I S B N 978-4-9906321-0-6
P R E F A C E
During the last three decades hydroelasticity has evolved from a theoretical concept at the outskirts o f naval architecture, staunchly espoused and promoted by few, to a mature science impacting all areas o f marine technology with a wide range o f appeal, from scientists to engineers and designers.
Important factors in this progression have been the prevailing trends for bigger ships, evermore unconventional ships and the rapid emergence o f a variety o f offshore structures, such as ultra-deepwater drill-ship, energy extraction devices and aquaculture artefacts.
Eighteen years have elapsed since the first conference on Hydroelasticity in Marine Technology, held in Trondheim, Norway. This was followed by the second conference in the series in Fukuoka, Japan (1998), the third in Oxford, UK(2003), the fourth in Wuxi,China(2006) and the fifth in Southampton, UK(2009). The content in terms o f applications and structures has varied; the context remained the same, namely promoting the development o f hydroelasticity and its applications and providing a platform for exchange o f ideas amongst scientists and engineers working i n related disciplines.
The papers included in the proceedings o f previous conference cover a wide range o f areas and structures, from aircushion-supported structures to floating bridges, ships and VLFS, the latter ships, including springing and whipping, and relating to novel methods, novel applications, experimental and full-scale measurements and implications o f hydroelasticity on design. There are also papers dealing with impact and flow-induced vibrations.
It is encouraging to observe that, i n spite o f reaching maturity, hydroelasticity still remains a challenging field o f research considering new and old problems that require solution. I am certain that papers to be presented in the conference w i l l generate substantial interest and discussion aiding the progression o f hydroelasticity, as well as the continuation o f the series o f conferences.
Finally, I would like to thank the International Scientific Committee for their support and advice. Class N K are sponsoring this conference and I gratefully acknowledge their support.
Tokyo
September 2012
INTERNATIONAL STANDING C O M M I T T E E
T.Y. Chung K I M M , Korea W.C. Cui CSSRC, China
C. Dalton University o f Houston, USA R. Eatock Taylor University o f Oxford, U K
R.C. Ertekin University o f Hawaii at Manoa, USA O.M. Faltinsen N T N U , Norway
R. Huijsmans T U Delft, The Netherlands J. J. Jensen D T U , Denmark
M . Kashiwagi Osaka University, Japan A . A . Korobkin University o f East Anglia, U K C M . Larsen N T N U , Norway
K. Takagi The University o f Tokyo, Japan R Temarel University o f Southampton, U K W. C. Webster University o f California, USA Y.S. Wu CSSRC, China
L O C A L ORGANISING C O M M I T T E E
K. Takagi The University of Tokyo (Co-Chairs) Y. Ogawa N M R I (Co-Chairs)
D. Kitazawa The University of Tokyo (Vice Chair) T. Fukasawa Osaka Prefecture University
M . Fujikubo Osaka University M . ICashiwagi Osaka University K. Kinoshita The University of Tokyo M . Kyo JAMSTEC
Y. Nishi Yokohama National University C. K . Rheem The University of Tokyo S. Tozawa NIVIRI
A . Usami ClassNK
CONTENTS
Hydroelasticity in Marine Technology 2012 Tokyo, JAPAN
P R E F A C E V
Impact
Elastic Plate Impact into Water at High Horizontal Speed with E a r l y Water 1 Detachment
M . Reinhard, A . A . Korobkin and M . J. Cooker
Hydroelastic Study ofthe Impact Phenomena in Sloshing Flow 11
A . Bardazzi, C. Lugni, O. M . Faltinsen and G. Graziani
A Study of Sloshing Influence on Wave Induced Responses of a L N G Ship by 21 Experimental Method
X . L . Wang, X . K . Gu, J.J. H u and C. X i i
Application of the Loading Inherent Subspace Scaling Method on the 31 Whipping Responses Test of a Surface Ship to Underwater Explosions
J.H. L i u , Y.S. Wu, H.K. Wang and J.Q. Pan
Wave Loads
A Method for Ship Hydroelasticitic Analysis by Means of Ranldne Panel 41 Method
M . Kashiwagi and T. Kara
Whipping Responses and Whipping Effects on Design Bending Moments of a 51 Large Container Ship
Y.W. Lee, N . White, Z.H. Wang and J.B. Park
Numerical Analysis on Ship Hydroelasticity by Using 3D Ranldne Panel 63 Method and 3D Finite Element Method
K . H . K i m and Y H . K i m
The Influence of Abnormal Waves on Global Wave-Induced Loads 75 S.S. Bennett, D . A . Hudson, R Temarel and W G . Price
Hydroelastic Method
Modal Parameters of Ship Global Modes: Model-Scale and Full-Scale 85 Estimations
D . Dessi and D . D'Orazio
Analysis on Sliip Springing Using Fully-Coupled F S I Models
J.H. K i m , K . H . K i m , B . H . Jung, J.H. Clioi and Y.H. K i m
95
Time Domain Hydroelasticity Analysis: The Three-Dimensional Linear 105 Radiation Problem
A.C. Cliapciiap, S. H . Miao, P. Temarel and S.E. Hirdaris
Improved Methodology of Ship Hydroelastic Analysis 115
I . Senjanovic, N . Hadzic and N . Vladimir
The Three-dimensional Hydroelasticity Theory of Ship Structures in Acoustic 125 Fluid of Shallow Sea
M.S. Zou, Y.S. Wu, W W . Wu, Y.L. Ye and C. Tian
Hydroelastic Method-Experiments
Design of Segmented Model for Ship Seakeeping Tests with Hydroelastic 135 Effects
M.K.. Wu, E. Lehn and T. Moan
An Experimental Study on the Whipping Response of Large Container 145 Carriers
Y. Talcaoka, A . Murakami, T. Yoshida, R. Miyake, N . Yamamoto, K . Terai and K . Toyoda
A Comparative Study of the Influence of Bow Shape on Hull Girder Vibrations 153 through Two Backbone Models
S. Zhu and T. Moan
Lessons Learnt through the Design, Construction and Testing of a Hydroelastic 163 Model for Determining Motions, Loads and Slamming Behaviour in Severe Sea
States
G. Thomas, S. Matsubara, M.R. Davis, B . French, J. Lavroff and W. A m i n
Hydroelastic Method-Application
Wave Load Prediction for Structural Analysis of Damaged Ships 173
H . Hashimoto, Y. Ito, N . Kawakami and M . Sueyoshi
Mooring Loads of a Circular Net Cage with Elastic Floater in Waves and 183 Current
T. Kristiansen and O.M. Faltinsen
Investigation on Rudder Vibrations Due to Hydroelastic Coupling 193
D . Dessi, S. Mancini and S. Linimento
Numerical Study of the Response of a Floating Ice Plate and the Ice Failure for 203 a Ship in Level Ice
J. Sawamura and Y. Kanewaka
Hydroelastic Method -
Response of Large Vessels
On the Numerical Non-Linear Hydroelastic Response of a L P G 100,000 C B M 213 Carrier in Irregular Head Waves
I . Mirciu, 1. Rubanenco and L . Domnisoru
The Antisymmetric Dynamic Behaviour of a Modern Containership in Regular 223 Waves
S.H. Miao, R Temarel and S.E. Hirdaris
Hydro-Elastic Issues in the Design of Ultra Large Container Ships - T U L C S 233 Project
S. Malenica and Q. Derbanne
Hydroelastic Response Analysis Using Unsteady Time Domain Analysis of Ship 247 Motions
H . Kobayakawa, H . Kusumoto, T. Nagashima and I . Neki
Structural Response in Waves-Analysis
A Study for the Effect of Operation on Hydroelasticity of Hull 257
Y. Ogawa and K . Takagi
A Fluid-Structure Coupling Method Based on Field Methods and a Structural 267 Mode Decomposition
J. Oberhagemann, M . Krömer, C. Cabos and O. el Moctar
Nonlinear Finite Element Dynamic Collapse Analyses of Stiffened Panels 277
L . Jiang, S. Zhang and N . White
Numerical Simulation of Fatigue C r a c k Propagation under Superposed 287 Loading Histories with Two Different Frequencies
K . Gotoh, K . Matsuda and O Kitamura
Structural Response in Waves
-Assessment Part
1
The Effect of Heading on Springing and Whipping Induced Fatigue Damage 299 Measured on Container Vessels
G. Storhaiig
Full Scale Container Ship Cross Section Loads - First Results
J. Koning and G. Kapsenberg
311
A Study for the Statistical Characteristic of Slamming Induced Vibration of 321 Large Container Ship
Y. Ogawa, O Kitamura and M . Toyoda
Impacts of Wave-Induced Vibrations on Ultimate Strength and Fatigue 331 Strength of Ships
K . l i j ima and M . Fujilcubo
Structural Response in Waves
-Assessment Part 2
On the Influence of Hull Girder Flexibility on the Wave Induced Bending 341 iVIoments
S. Seng, I.M.V. Andersen and JJ. Jensen
The Effect of Wave Induced Vibrations on Fatigue Loading and the Safety 355 Margin against Collapse on Two L N G Vessels
G. Storhaug, T.A. Pettersen, N . Oma and B . Blomberg
Simplified Fatigue Assessment Considering the Occurrence Probability of 367 Hydro-Elastic Response in Actual Sea State Conditions
K . Toyoda, T. Matsumoto, N . Yamamoto and K . Terai
Discussion on Hydroelastic Contribution to Fatigue Damage of Containerships 377
Q. Derbanne, E X . Sireta, F. Bigot and G. de Hauteclocque
Some Considerations on the Effect of Wave-Induced Vibrations upon 389 Hull-Girder Fatigue Strength of a Post-Panamax Container Ship
T. Fukasawa
Vortex Induced Vibration
Effects of Tripping Rods on the Flow Around a Cylinder and V I V 399 Amplification
L.A.R. Quadrante and Y. Nishi
Experimental Research on the V I V Response of Rotating Drill Pipe in Flow 407
T. Inoue and C K . Rheem
Recent Development of the Empirical Basis for Prediction of Vortex Induced 417 Vibrations
C M . Larsen, E. Passano and H . Lie
Closed Form Expressions for a Vibrating System with Two Degrees of Freedom 429 Undergoing Vortex-Induced Vibration
Y. Nishi and Y. Hirakawa
Floating Structure
The Linear Transient Response of a Hydroelastic Body and Its Approximation 439 Using the Singularity Expansion Method
M . H . Meylan
Hydroelastic Responses and Performance of O W C Type W E C s of a Large 445 Scale Floating Structure
T. Ikoma, K . Masuda, Y Watanabe and H . Maeda
Hydroelastic Behaviour of a Tube in Casing for Downhole Seismic 457 Measurement
Y Namba, M . Kyo, E. Araki, T. Kimura and I<:. Kitada
Experimental Investigation on the Galloping Response of Square Cylinders at 467 High Reynolds Numbers
B. M o l i n , F. Remy, T. Rippol, A . Cinello, E. le Hir, C. Berhault and C. Dassibat