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KM Weems (2007)
Numerical simulation and validation of ship-ship interaction in waves
(2005)
Numerical simulation of hydrodynamic interactions between two ships in underway replenishment at sea
S. Du, D. Hudson, W. Price, P. Temarel (2005)
Prediction of three-dimensional seakeeping characteristics of fast hull forms: influence of the line integral terms
Y. Inoue, M. Kamruzzaman (2008)
Analysis of hydrodynamic characteristics for arbitrary multihull ships advancing in wavesJournal of Marine Science and Technology, 13
Y. Jian-xing, Cnooc Base (2009)
Behaviour of ships in replenishment of highline system in wavesJournal of Ship Mechanics
Lin Li (2001)
Numerical seakeeping predictions of shallow water effect on two ship interactions in waves.
R. Brard (1972)
The Representation of a Given Ship Form by Singularity Distributions When the Boundary Condition on the Free Surface is LinearizedJournal of Ship Research, 16
HS Chan CC Fang (2002)
Numerical study of hydrodynamic pressure on a high speed displacement ship in oblique wavesBulletin of the College of Engineering, N.T.U., 86
Renato Skejic, O. Faltinsen (2008)
A unified seakeeping and maneuvering analysis of ships in regular wavesJournal of Marine Science and Technology, 13
K. Mctaggart, D. Cumming, C. Hsiung, Lin Li (2003)
Seakeeping of two ships in close proximityOcean Engineering, 30
M. Fang, C. Kim (1986)
Hydrodynamically Coupled Motions of Two Ships Advancing in Oblique WavesJournal of Ship Research, 30
X. Xiang, O. Faltinsen (2011)
Time Domain Simulation of Two Interacting Ships Advancing Parallel in Waves
B Jiang N Xie (1999)
Behavior of ships in replenishment in wavesJournal of Hydrodynamics, 4
Gung-Rong Chen, M. Fang (2001)
Hydrodynamic interactions between two ships advancing in wavesOcean Engineering, 28
(2002)
Numerical study of hydrodynamic pressure on a high speed displacement ship in oblique waves. Bulletin of the College of Engineering, N.T.U
(2012)
Gap resonances analyzed by a new domain - decomposition method combining potential and viscous fl ow draft
(2008)
Potential Flow Theory of Ship Motions in Waves
Cai Xin-gong (2003)
Coupled Motions of Two Ships in Waves on 3D MethodJournal of Ship Mechanics
H. Chan (1995)
ON THE CALCULATIONS OF SHIP MOTIONS AND WAVE LOADS OF HIGH- SPEED CATAMARANSInternational shipbuilding progress, 42
M. Ronæss (2002)
Wave induced motions of two ships advancing on parallel course
A. Brument, G. Delhommeau, C. Maury, L. Gaillard, M. Guilbaud (2003)
Comparison between numerical computations and experiments for seakeeping on ship's models with forward speed
(1946)
The hydrodynamic theory of ship oscillations in rolling and pitching
Yong Xu, W. Dong (2011)
Study on characteristics of 3-D translating-pulsating source green function of deep-water havelock form and its fast integration methodChina Ocean Engineering, 25
J. Telste, F. Noblesse (1986)
NUMERICAL EVALUATION OF THE GREEN FUNCTION OF WATER-WAVE RADIATION AND DIFFRACTIONJournal of Ship Research, 30
(2007)
Hydrodynamic analysis of high speed transom stern hull forms in waves by 3D Green function method
GP Miao (1986)
Theories of Ship’s Motions in Waves
Abstract A frequency domain analysis method based on the three-dimensional translating-pulsating (3DTP) source Green function is developed to investigate wave loads and free motions of two ships advancing on parallel course in waves. Two experiments are carried out respectively to measure the wave loads and the freemotions for a pair of side-byside arranged ship models advancing with an identical speed in head regular waves. For comparison, each model is also tested alone. Predictions obtained by the present solution are found in favorable agreement with the model tests and are more accurate than the traditional method based on the three dimensional pulsating (3DP) source Green function. Numerical resonances and peak shift can be found in the 3DP predictions, which result from the wave energy trapped in the gap between two ships and the extremely inhomogeneous wave load distribution on each hull. However, they can be eliminated by 3DTP, in which the speed affects the free surface and most of the wave energy can be escaped from the gap. Both the experiment and the present prediction show that hydrodynamic interaction effects on wave loads and free motions are significant. The present solver may serve as a validated tool to predict wave loads and motions of two vessels under replenishment at sea, and may help to evaluate the hydrodynamic interaction effects on the ships safety in replenishment operation.
"Acta Mechanica Sinica" – Springer Journals
Published: Aug 1, 2013
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