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          shapes.
        2.The desingularization method shows no difficulty in treating the body-free surface intersection point.
        3.For the desingularization method, no special treatment for the coefficient of the influence matrix is
          necessary. The stability of the desingularization method is better than that of the conventional
          boundary integral equation method.
        4.The desingularization method is promising for further application to floating structures with arbitrary
          shape undergoing arbitrary motion.

        References
        [I] Beck, R.F.,  Y.Cao  and T-H.  Lee (1993), “Fully Nonlinear Water  Wave Computations Using the
           Desingularized  Method,”  Proceeding  dh,  International  Confrence  on  Numerical  Ship
           Hydrodynamics,  University of Iowa.
        [2]  Cao,  Y.,  W. W.Schultz  and  R.F.Beck  (1991 a),  “Three-dimensional,  Desingularized  Boundary
            Integral Methods for Potential Problems,” International Journal of Num. Meth. Fluids, Vol. 12, pp.
            785-803.
        [3] Cao,  Y., W.W.Schultz and  R.F.Beck  (1991b), “Two-dimensional Solitary Waves Generted By  a
           Moving  Disturbance,”  dh International  Workshop  on  Water  Wmes  and  Floating  Bodies,
           Woodshole, MA, USA.
        [4]  Cao,  Y.,  W.W.  Schultz  and  R.F.Beck  (1990),  “Three-dimensional  unsteady  computation  of
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           Hydrodynamics, Ann Arbor, MI, USA, pp.417-427.
        [SI Dommermuth,  D.G.  and  D.K.-P.Yue  (1988),  “Study  of  Nonlinear Axisymmetric Body-Wave
            Interactions,” Proceedings 16“  Symposium of Naval Hydrodynamics, Berkeley.
        [6] Fahisen,O.M.( 1977),”Numerical Solution of Transient Nonlinear Free Surface Motion Outside or
           Inside Moving Bodies,” Proceedings 2nd Conference On Numerical Ship Hydrodynamics,” U.C.
           Berkeley, pp.347-357, University Extension Publications.
        [7] Kupradze, V.  (1967), “On the Approximate Solution of Problems in Mathematical Physics,”  Russ.
            Math. Surveys, V01.22, pp.59-107.
        [8]  Longuet-Higgins M.S. and C.D.Cokelet (1976), “The Deformation of  Steep Surface  Waves on
              Water,” I. A Numerical Method of Computation Proceedings of Royal SocieryLondon,A350, pp.
              1-26.
        [9] Scorpio S.,  R.F.Beck  and  F.Korsmeyer  (1996),  “Nonlinear Water  Wave  Computations Using a
           Multipole  Accelerated,  Desingularized  Method“, Proceedings  24Ih Symposium  of
           Naval Hydrocfynamics, pp.34-43
        [lo] T.H.Lee & Cheng (1999), “Fully Nonlinear Wave Calculations for Arbitrary Floating Bodies,”
            Proceedings  of  the  23th  National  Conference  on  Theoretical  an  Applied  Mechanics,
            Hsinchu, Taiwan, China.
        [ 111 T.H.Lee  & Cheng  (2000), “Applications of  Desingularization Techniques in  Fully Nonlinear
           Wave  Calculation  for  Arbitray  2-D  Floating  Bodies,”  the  Yh National  Conference  on
           Computational Fluid Dynamics, Kenting, Taiwan, China Vol. 1, D-39.
        [ 121 Vinje, T.and  P.Breving  (1981), “Nonlinear Ship Motions,” Proceedings 3’d  Znt.  Conference on
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        [ 131 von ban, T.,( I930), “Calculation of Pressure Distribution on Airship Hulls,” NACA Technical
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        [14] WCWebster (1975), ‘‘ The Flow About Arbitrary, Three-Dimensional Smooth Bodies,” J. Num.
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