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A B-Spline Method Used to Calculate Added Resistance in Waves

Making an exact computation of added resistance in sea waves is of high interest due to the economic effects relating to ship design and operation. In this paper, a B-spline based method is developed for computation of added resistance. Based on the potential flow assumption, the velocity potential...

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Published in:Journal of marine science and application 2017-03, Vol.16 (1), p.20-26
Main Authors: Zangeneh, Razieh, Ghiasi, Mahmood
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description Making an exact computation of added resistance in sea waves is of high interest due to the economic effects relating to ship design and operation. In this paper, a B-spline based method is developed for computation of added resistance. Based on the potential flow assumption, the velocity potential is computed using Green's formula. The Kochin function is applied to compute added resistance using Maruo's far-field method, the body surface is described by a B-spline curve and potentials and normal derivation of potentials are also described by B-spline basis functions and B-spline derivations. A collocation approach is applied for numerical computation, and integral equations are then evaluated by applying Gauss–Legendre quadrature. Computations are performed for a spheroid and different hull forms; results are validated by a comparison with experimental results. All results obtained with the present method show good agreement with experimental results.
doi_str_mv 10.1007/s11804-017-1396-8
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1993-5048
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subjects B spline functions
Basis functions
B样条基函数
B样条曲线
Collocation methods
Computation
Economic impact
Electrical Machines and Networks
Engineering
Far fields
Geotechnical Engineering & Applied Earth Sciences
Integral equations
Machinery and Machine Elements
Naval engineering
Numerical analysis
Offshore Engineering
Potential flow
Power Electronics
Quadratures
Ship design
Ships
Velocity potential
Wave resistance
Waves
数值计算
格林公式
波浪
船舶设计
附加电阻
附加阻力
title A B-Spline Method Used to Calculate Added Resistance in Waves
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