Baghfalaki M, Das S K, Das S N (2012). Analytical model to determine response amplitude operator of a floating body for coupled roll and yaw motions and frequency based analysis. International Journal of Applied Mechanics, 4(4), 1-20.
Baghfalaki M, Das S K (2013). Mathematical modelling of transfer function for roll motion of a floating body with an analogy to free damped vibration. International Journal of Theoretical and Applied Mechanics, 1(1), 1-13.
Clauss G, Lehmann E, Ostergaard C (1992). Offshore structures, Vol. 1—Conceptual design and hydrodynamics. Springer- Verlag, London.
Cummins WE (1962). The impulse response function and ship motions. Schiffstechnik, 9, 101-109.
Das S N, Das S K (2005). Mathematical model for coupled roll and yaw motions of a floating body in regular waves under resonant and non-resonant conditions. Applied Mathematical Modelling, 29(1), 19-34.
Das S K, Das S N (2006). Modelling and analysis of coupled nonlinear oscillations of floating body in two degrees of freedom. Acta Mechanica, 181(1-2), 31-42.
Das S K, Das S N, Sahoo P K (2008). Investigation of coupled sway, roll and yaw motions of a floating body: Numerical modelling for non-linear roll restoring. Ships and Offshore Structures, 3(1), 49-56.
Das S N, Shiraishi S, Das S K (2010). Mathematical modeling of sway, roll and yaw motions: Order wise analysis to determine coupled characteristics and numerical simulation for restoring moment’s sensitivity analysis. Acta Mechanica, 213(3-4), 305-322.
Faltinsen OM, Newman JN, Vinje T (1995). Nonlinear wave loads on a slender vertical cylinder. J. Fluid Mechanics, 289, 179-198.
Frank W, Salvesen N (1970). The frank close-fit ship-motion computer program. NSRDC, Washington, DC, USA, Report No. 3289.
Froude W (1861). On the rolling ships. Institution of Naval Architects Transactions, 2, 180-229.
Holappa KW, Falzarano JM (1998). Application of extended state space to nonlinear ship rollin. Ocean Engineering, 26(3), 227-240.
Journée JMJ, Adegeest LJM (2003). Theoretical Manual of Strip Theory Program- SEAWAY for Windows, Amarcom, Dalfsen, Netherlands, Report NO. 1370.
Korvin-Kroukovsky B V (1955). Investigation of ship motions in regular waves. Trans. Society of Naval Architects and Marine Engineer, 63, 386-435.
Korvin-Kroukovsky BV, Lewis EV (1955). Ship motions in regular and irregular seas. International Shipbuilding Progress, 2, 81-95.
Newman JN (1977). Marine hydrodynamics. The MIT Press, Cambridge, USA.
Salvesen N, Tuck EO, Faltinsen OM (1970). Ship motions and sea loads. Trans. Society of Naval Architects and Marine Engineering, 78, 250-287.
St. Denis M, Pierson WJ (1953). On the motion of ships in confused seas. Trans. Society of Naval Architects and Marine Engineering, 61, 280-354.
Stoer J, Bulirsch R (1993). Introduction to numerical analysis. Springer-Verlag, New York.
Tasai F (1967). On the swaying, yawing and rolling of ships in oblique waves. International Shipbuilding Progress, 14, 216-228.
Tick LJ (1959). Differential equations with frequency-dependent coefficients. Journal of Ship Research, 2, 45-46.
Ursell F (1955). Irregular frequencies and the motion of floating bodies. J. Fluid Mechanics, 105, 143-156.
Vugts JH (1968) The hydrodynamic coefficients for swaying, heaving and rolling cylinders in a free surface. Laboratorium voor Scheepsbouwkunde, Technische Hogeschool Delft, Delft, Netherlands, Report No. 194.
Wang ZH (2000). Hydroelastic analysis of high-speed ship. PhD Thesis, Department of Naval Architecture and Offshore Engineering, Technical University of Denmark, Lyngby.
Weinblum GP, St. Denis M (1950). On the motions of ships at sea. Trans. Society of Naval Architects and Marine Engineering, 58, 184-231.