Advances in the three-dimensional hydroelasticity of ships

Proceedings of the Institution of Mechanical Engineers Part M: Journal of Engineering for the Maritime Environment

Volumn 223, Issue 3, 2009, Pages 331-348

  Wu, Y S ^a   Cui, W C ^a  

^a CHINA SHIP SCIENTIFIC RESEARCH CENTER   (China)

Author keywords

Experimental hydroelasticity; Hydroelasticity based design of ships; Linear theory; Non linear theory; Three dimensional hydroelasticity theories

Indexed keywords

BASIC PRINCIPLES; EXPERIMENTAL HYDROELASTICITY; EXPERIMENTAL TECHNIQUES; FLOATING STRUCTURES; FORWARD SPEED; FREQUENCY DOMAINS; LINEAR ANALYSIS; LINEAR THEORY; MARINE STRUCTURES; NON-LINEAR; NON-LINEAR THEORY; ROUGH SEAS; SAFETY ASSESSMENTS; THREE-DIMENSIONAL (3D); THREE-DIMENSIONAL HYDROELASTICITY THEORIES; TIME DOMAIN; DEVELOPMENT AND APPLICATIONS; THREEDIMENSIONAL (3-D); TWO DIMENSIONAL (2 D);

FLUID STRUCTURE INTERACTION; FREQUENCY DOMAIN ANALYSIS; HYDRODYNAMICS; HYDROELASTICITY; METHOD OF MOMENTS; NUMBER THEORY; NUMERICAL METHODS; OFFSHORE STRUCTURES; SHIP MOCKUPS; SHIP MODELS; STRUCTURAL DESIGN; SURFACE STRUCTURE; TIME DOMAIN ANALYSIS; ELASTICITY; SHIPS;

THREE DIMENSIONAL; TIME DOMAIN ANALYSIS;

EID: 70349337897     PISSN: 14750902     EISSN: None     Source Type: Journal    
DOI: 10.1243/14750902JEME159     Document Type: Article

References (85)

1. Heller, S. R. and Abramson, H. N. Hydroelasticity: a new naval science. J. Am. Soc. Naval Engrs, 1959, 71 (2), 205-209.
2. Bishop, R. E. D. and Price, W. G. On modal analysis of ship strength. Proc. Roy. Soc. Lond. Ser. A, 1974, 341, 121-134.
3. Bishop, R. E. D. and Price, W. G. Ship strength as a problem of structural dynamics. The Naval Architect, 1975, 2, 61-63.
4. Bishop, R. E. D. and Price, W. G. Hydroelasticity of ships, 1979 (Cambridge University Press).
5. Wu, Y. S. Hydroelasticity of floating bodies, Phd Thesis, Brunel University, 1984.
6. Price, W. G. and Wu, Y. S. Hydroelasticity of marine structures. Sixteenth International Congress of Theoretical and Applied Mechanics (IU-TAM), Lyngby, Denmark: Sectional Lecture, 1985, S-10.
7. Bishop, R. E. D., Price, W. G., and Wu, Y. S. A general linear hydroelasticity theory of floating structures moving in a seaway. Phil Trans R. Soc. Lond., Ser A, 1986, 316, 375-426.
8. Wu, Y. S. and Price, W. G. A general form of the interface boundary condition of fluid-structure interaction and its applications. Selected Papers of CSNAME, 1985, 1, 66-87.
9. Timman, R. and Newman, J. N. The coupled damping coefficients of symmetric ships. J. Ship Res., 1962, 5(4), 34-55.
10. Xia, J. Z. and Wu, Y. S. A general form of the interface boundary condition of the fluid-structure interactions. Ship Behavior Res., 1993, 2, 73-79, in Chinese.
11. Newman, J. N. Wave effects on deformable bodies. Appl. Ocean Res., 1994, 16, 47-59.
12. Riggs, H. R. Hydrostatic stiffness of flexible floating structure. Proceedings of the International Workshop on Very large floating structures, Hayama, Japan, 1996, pp. 229-234.
13. Huang, L. L. and Riggs, H. R. The hydrostatic stiffness of flexible floating structure for linear hydroelasticity. Marine Structs, 2000, 13, 91-106.
14. Malenica, S., Molin, B., Remy, F., and Senjanovic, I. Hydroelastic response of a barge to impulsive and non-impulsive wave loads. Proceedings of the Third International Conference on Hydroelasticity in marine technology, Oxford, UK, 2003, pp. 107-115.
15. Senjanovic, I., Malenica, S., and Tomasevic, S. Investigation of ship hydroelasticity. Ocean Engng, 2008, 35, 523-535.
16. Aksu, S., Bishop, R. E. D., Price, W. G., and Temarel, P. On the behavior of a product carrier in ballast travelling in a seaway. Trans RINA, 1991, 133, 45-59.
17. Senjanovic, I., Tomic, M., and Tomasevic, S. An explicit formulation for restoring stiffness and its performance in ship hydroelasticity. Ocean Engng, 2008, 35, 1322-1338.
18. Riggs, H. R. Discussion of 'Investigation of ship hydroelasticity' by Senjanovic, Malenica, and To-masevic (Ocean Engng, 2008, 35, 523-535). Ocean Engng, 2008, 35, 1285-1286.
19. Senjanovic, I. Reply to Professor Riggs's discussion on paper 'Investigation of ship hydroelasticity' by Senjanovic, Malenica and Tomasevic. Ocean Engng, 2008, 35, 1287-1288.
20. Du, S. X., Hudson, D. A., Price, W. G., and Temarel, P. An alternative expression of the restoring coefficient matrix associated with a moving flexible structure. Proceedings of CSSRC Jubilee Technical Session, 2001.
21. Wu, Y. S. Numerical and experimental hydroelas-ticity of marine structures-A review. Proceedings of International Conference on Hydrodynamics, Wuxi, China, 1994, pp. 30-41.
22. Wu, Y. S. and Price, W. G. Advances in hydro-elasticity of ships. In Aero-hydroelasticity developments and applications (Ed. E. J. Cui). Seismological Press, 1993, pp. 21-37.
23. Chen, X. J., Wu, Y. S., Cui, W. C., and Jensen, J. J. Review of hydroelasticity theories for global response of marine structures. Ocean Engng, 2006, 33 (3-4), 439-457.
24. Lundgren, J., Price, W. G., and Wu, Y. S. A hydroelastic investigation into the behavior of a floating 'dry' dock in waves. Spring Meeting of Royal Institute of Naval Architects, London, 1988.
25. Fu, Y. N., Price, W. G., and Temarel, P. The 'dry and wet' towage of a jack-up in regular and irregular waves. Trans RINA, 1987, 129, 149-159.
26. Ergin, A., Price, W. G., Randall, R., and Temaral, P. Dynamic characteristics of a submerged, flexible cylinder vibrating in infinite water depths. J. Ship Res., 1992, 36, 154-167.
27. Wang, Z. J., Li, R. P., and Shu, Z. A study on hydro-elastic response of box-type very large floating structures. China Ocean Engng, 2001, 15(3), 345-354.
28. Phan, T. S. and Temarel, P. Hydroelastic responses of pontoon and semi-submersible types of very large floating structure in regular head waves. Proceedings of the International Conference on Offshore mechanics and arctic engineering - OMAE, Sponsored by: ASME American Society of Mechanical Engineers, 2002, 2, pp. 753-763.
29. Li, R. P., Shu, Z., and Wang, Z. J. A study on the hydroelastic behavior of box-typed very large floating structure in waves. Proceedings of the Third Conference on New ship and marine technology, Kobe, Japan, 2002, pp. 41-48.
30. Fu, S. X., Fan, J., Chen, X. J., and Cui, W. C. Analysis method for the mooring system for a flexible floating body. Proceedings of Deep Water Mooring System: Concepts, Design, Analysis, and Materials, Offshore Technology Research Center (OTRC) and Coasts, Oceans, Ports and Rivers Institute (COPRI) of ASCE, Houston, Texas, USA, 2003, pp. 142-151.
31. Price, W. G. and Wu, Y. S. Structural responses of a SWATH of multi-hulled vessel travelling in waves. Proceedings of the International Conference on SWATH ships and advanced multi-hulled vessels, Royal Institution of Naval Architects, London, 1985.
32. Keane, A. J., Temarel, P., Wu, X. J., and Wu, Y. S. Hydroelasticity of non-beamlike ships in waves. The dynamics of ships, 1991 (The Royal Society of London).
33. Wu, Y. S., Wang, D. Y., Riggs, H. R., and Ertekin, R. C. Composite singularity distribution method with application to hydroelasticity. Marine Structs, 1993, 6 (2-3), 143-163.
34. Wang, D. Y., Riggs, H. R., and Ertekin, R. C. Three-dimensional hydroelastic response of a very large floating structure. Int. J. Offshore Polar Engng, 1991, 1(4), 307-316.
35. Du, S. X. and Ertekin, R. C. Dynamic response analysis of a flexibly joined multi-module very large floating structure. Proceedings of Conference of Institute of Electrical and Electronics Engineers (IEEE) Ocean (OCEANS'91), Honolulu, Hawaii, USA, 1991.
36. Ertekin, R. C., Riggs, H. R., Che, X. L., and Du, S. X. Efficient methods for hydroelastic analysis of very large floating structures. J. Ship Res., 1993, 37 (1), 58-76.
37. Riggs, H. R., Suzuki, H., Ertekin, R. C., Kim, J. W., and Iijima, K. Comparison of hydroelastic computer codes based on the VLFS benchmark. Ocean Engng, 2008, 35, 587-597.
38. Cummins, W. E. The impulse response function and ship motions. Schiffstecknik, 1962, 9, 101-109.
39. Remy, F., Molin, B., and Ledoux, A. Experimental and numerical study of the wave responses of a flexible barge. Proceedings of the Fourth International Conference on Hydroelasticity in marine technology, 2006, pp. 255-264 (National Defense Industry Press, Wuxi, China).
40. Ledoux, A., Mary, C., and Couty, N. Modeling of springing and whipping of FPSOs in a time domain seakeeping tool. Proceedings of Fourteenth ISOPE Conference, Toulon, 2004 Vol. 1, pp. 666-671.
41. Chen, X. J., Moan, T., Fu, S. X., and Cui, W. C. Hydroelastic analysis of flexible floating structures in regular waves. Proceedings of International Conference on Mechanical engineering and mechanics, 2005 Vols 1 and 2, pp. 973-977.
42. Miao, S. H., Temarel, P., and Hampshire, J. K. Dynamic loads on a trimaran travelling in irregular seaways, including slamming. Proceedings of the Third International Conference on Hydroelasticity in marine technology, Oxford, UK, 2003, pp. 185-194.
43. Wang, S. Q., Ertekin, R. C., and Riggs, H. R. Computationally efficient techniques in the hydro-elasticity analysis of very large floating structures. Computers Structs, 1997, 62(4), 603-610.
44. Price, W. G. and Wu, Y. S. The influence of nonlinear fluid forces in the time domain responses of flexible SWATH ships excited by a seaway. Proceedings of Eighth OMAE, 1989, Vol.2, pp. 125-135.
45. Aksu, S. Steady state and transient responses of flexible ship structures travelling in irregular seaway, PhD thesis, University of Southampton, 1993.
46. Du, S. X. A complete frequency domain analysis method of linear three-dimensional hydroelastic responses of floating structure travelling in waves, PhD. thesis, China Ship Scientific Research Center, Wuxi, China, 1996, in Chinese.
47. Du, S. X. and Wu, Y. S. The effect of forward speed on the hydroelastic behaviors of ship structures. Proceedings of PRADS'98. Hague, The Netherlands, 1998, pp. 597-603.
48. Du, S. X., Wu, Y. S., and Price, W. G. Forward speed effect on the structure responses of a ship travelling in waves. Hydroelasticity in marine technology (Eds Kashiwagi, Koterayama, and Oh-kusu), 1998, pp. 401-410 (Yomei Printing Cooperative Society).
49. Du, S. X. and Wu, Y. S. A fast evaluation method for Bessho form translating-pulsating source Green's function. Shipbuilding of China, 1998, 39(2), 40-48. In Chinese.
50. Du, S. X. and Wu, Y. S. A double surface integration method for solving steady flow around a moving ship. Shipbuilding of China, 1998, 39(2), 32-39. In Chinese.
51. Tian, C. and Wu, Y. S. The non-linear hydroelastic responses of a ship travelling in waves. Hydro-elasticity in marine technology (Eds Y. S. Wu and W. C. Cui), 2006, pp. 14-24 (National Defense Industry Press).
52. Tian, C. and Wu, Y. S. Three-dimensional nonlinear hydroelasticity analysis of ships with forward speed. J. Ship Mechanics, 2007, 11(1), 68-78, in Chinese.
53. Wu, Y. S. and Tian, C. A non-linear hydroelasticity theory of ships and its application. In IUTAM Bookseries (Ed. E. Kreuzer). Vol.8, 2007, pp. 307-320 (Springer Verlag, New York).
54. Tian, C., Wu, Y. S., and Chen, Y. Q. Numerical predictions on the hydroelastic responses of a large bulk carrier in waves. Proceedings of the Fifth International Conference on Hydroelasticity in marine technology, 2009 University of Southampton, UK.
55. Dawson, C. W. A practical computer method for solving ship-wave problem. Symposium of the Second International Conference on Numerical ship hydrodynamics, 1977.
56. Baar, J. J. M. and Price, W. G. Evaluation of the wavelike disturbance in the Kelvin wave source potential. J. Ship Res., 1988, 32(1), 44-53.
57. Wang, D. Y. Three dimensions hydroelastic analysis of ships in time domain, PhD thesis, China Ship Scientific Research Center, Wuxi, China, 1996, in Chinese.
58. Wang, D. Y. and Wu, Y. S. Three dimensional hydroelastic analysis in time domain with application to an elastic ship model. J. Hydrodynamics, 1998, 10(4), 54-61.
59. Huang, D. B. Numerical calculation of Green's function and its derivatives. J. Shipbuilding China, 1992, 119, 16-25.
60. Liu, X. D. and Sakai, S. Time domain analysis on the dynamic response of a flexible floating structure to waves. J. Engng Mechanics, 2002, 128(1), 48-56.
61. Wu, Y. S., Maeda, H., and Kinoshita, T. The second order hydrodynamic actions on a flexible body. J. Inst. Ind. Sci., 1997, 49(4), 8-19.
62. Chen, R. Z., Du, S. X., Wu, Y. S., Lin, J. R., Hu, J. J., and Yue, Y. L. Experiment on extreme wave loads of a flexible ship model. Proceedings of 8th International Symposium on Practical design of ships and other floating structures, Vol.II, 2001, pp. 871-878 (Elsevier Science).
63. Tian, C. Theoretical and applied study on the nonlinear hydroelasticity of ships with forward speed, PhD Thesis, Shanghai Jiao Tong University, 2007, in Chinese.
64. Wu, Y. S. and Tian, C. The second-order hydrodynamic actions on flexible SWATH ships in random waves. Proceedings of Eighth International Conference on Hydrodynamics, Nantes, France, 2008.
65. Wu, Y. S., Ni, Q. J., Xie, W., Zhou, S. Y., Tian, C., Zhang, Y., and Wu, Q. Hydrodynamic performance and structural design of a SWATH Ship. Proceedings of International Conference on Practical design of ships and other floating structures, Houston, USA, 2007, pp. 911-918.
66. Iijima, K. I., Yao, T., and Moan, T. Structural responses of a ship in severe seas considering global hydroelastic vibrations. Marine Structs, 2008, 21 , 420-445.
67. Drummen, I., Wu, M. K., and Moan, T. Experimental and numerical study of containership responses in severe head seas. Marine Structs, 2008 doi:10.1016/j.marstruc.2008.08.003.
68. Wu, Y. S., Chen, R. Z., and Lin, J. R. Experimental technique of hydroelastic ship model. Proceedings of the 3rd International Conference on Hydroelasticity, Oxford, 2003, pp. 131-142.
69. Fukasawa, T., Yamamoto, Y., Fujino, M., and Motora, S. Motion and longitudinal strength of a ship in head sea and the effects of non-linearity (4th report) - experiment. J. Soc. Naval Architects Jap., 1981, 150.
70. Watanabe, I., et al., Measurement of wave impact pressure on patrol ship 'Shikine' using elastic similar model. Proceedings of Annual Presentation Meeting of SRI, 1984, p. 44.
71. Watanabe, I., Ueno, M., and Sawada, H. Effect of bow flare shape to the wave loads of a container ship. J. Soc. Naval Architects Jap., 1989, 166, 259-266.
72. Li, Q. H., Du, S. X., Qiu, Q., Lin, J. R., and Wu, Y. S. Hydroelastic theories and experiment of an elastic ship model. J. Hydrodynamics. Ser. A, 1995, 10(6), 628-636.
73. Storhaug, G. and Moan, T. Springing/whipping response of a large ocean-going vessel - investigated by an experimental method. Proceedings of the Fourth International Conference on Hydroelasticity in marine technology, Wuxi, China, 2006, pp. 89-102.
74. Moe, E., Holtsmark, G., and Storhaug, G. Full scale measurements of the wave induced hull girder vibrations of an ore carrier trading in the North Atlantic. Design and Operation of Bulk Carriers, 2005, pp. 57-85 (Royal Institution of Naval Architects, London).
75. Storhaug, G., Vidic-Perunovic, J., Rudinger, F., Holtsmark, G., Helmers, J. B., and Gu, X. K. Springing/whipping response of a large ocean going vessel - a comparison between numerical simulation and full scale measurements. Proceedings of the Third International Conference on Hydroelasticity in marine technology, Oxford, UK, 2003, pp. 117-129.
76. Aalberts, P. J. and Nieuwenhuijs, M. W. Full scale wave and whipping induced hull girder loads. Proceedings of the Fourth International Conference on Hydroelasticity in marine technology, Wuxi, China, 2006, pp. 65-78.
77. Thomas, G., Davis, M., Holloway, D., and Roberts, T. The vibratory damping of large high-speed catamarans. Marine Structs, 2008, 21, 1-22.
78. DNV Report, 2004, No. 2003-0209/Revision 3, 12 August.
79. Lin, W. M., Meinhold, M. J., Salvesen, N., and Yue, D. K. P. Large amplitude motions and wave loads for ship design. Proceedings of the Twentieth Symposium on Naval hydrodynamics, Santa Bar-bala, USA, 1994.
80. OCI, HYDRAN: A computer program for the HYDroelastic Response ANalysis of ocean structures. Vol.1.52, OffCoast. Inc., Kailua, HI, 2005.
81. Senjanovic, I., Malenica, S., and Tomasevic, S. Hydroelasticity of large container ships. Marine Structures, 2008b, 22(2), 287-314.
82. Harding, R. D., Hirdaris, S. E., Miao, S. H., Pittilo, M., and Temarel, P. Use of hydroelasticity analysis in Design. Proceedings of the Fourth International Conference on Hydroelasticity in marine technology, Wuxi, China, 2006, pp. 1-12.
83. Kashiwagi, M., Koterayama, W., and Ohkusu, M. (Eds) Proceedings of the Second International Conference on Hydroelasticity in marine technology, Fukuoka, Japan, 1998.
84. Eatock Taylor, R. (Ed.) Proceedings of the Third International Conference on Hydroelasticity in marine technology, Oxford, UK, 2003.
85. Wu, Y. S. and Cui, W. C. (Eds) Hydroelasticity in marine technology. Proceedings of the Fourth International Conference on Hydroelasticity in Marine Technology, 2006 (National Defense Industry Press, Wuxi, China).