Challenges in computer applications for ship and floating structure design and analysis

CAD Computer Aided Design

Volumn 44, Issue 3, 2012, Pages 166-185

  Sharma, R ^a   Kim, Tae Wan ^b   Storch, Richard Lee ^c   Hopman, Hans ^d   Erikstad, Stein Ove ^e  

^a INDIAN INSTITUTE OF TECHNOLOGY MADRAS   (India)

^b Seoul National University   (South Korea)

^c UNIVERSITY OF WASHINGTON   (United States)

^d DELFT UNIVERSITY OF TECHNOLOGY   (Netherlands)

^e NORWEGIAN UNIVERSITY OF SCIENCE AND TECHNOLOGY   (Norway)

Author keywords

Boundary element method; Computational fluid dynamics; Computer applications; Computer aided ship and floating structure design; Finite element analysis; Hydrodynamics; Production; Structures

Indexed keywords

COMPUTER-AIDED SHIP AND FLOATING STRUCTURE DESIGN; DESIGN AND ANALYSIS; EMERGING TRENDS; FLOATING STRUCTURES; RESEARCH AREAS; STRUCTURE DESIGN;

BOUNDARY ELEMENT METHOD; COMPUTATIONAL FLUID DYNAMICS; DESIGN; FINITE ELEMENT METHOD; HYDRODYNAMICS; INDUSTRIAL APPLICATIONS; INDUSTRIAL RESEARCH; PRODUCTION; SHIPS; STRUCTURE (COMPOSITION);

COMPUTER APPLICATIONS;

EID: 84855642661     PISSN: 00104485     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.cad.2011.10.001     Document Type: Article

References (154)

1. Gordon S. Complexity of engineering structures. Electric Boat Division. General Dynamics. USA; 2009.
2. V. Bertram, and H. Schneekluth Ship design for efficiency and economy 2nd ed. 1998 Butterworth-Heinemann
3. CMPT Floating structures: a guide for the design and analysis 1998 Oilfield Publications Incorporated USA
4. D.G.M. Watson Practical ship design 1st ed. 2002 Elsevier
5. D.J. Eyre Ship construction 6th ed. 2007 Butterworth-Heinemann
6. A.F. Molland The maritime engineering reference book: a guide to ship design, construction and operation 2008 Butterworth-Heinemann
7. Y. Okumoto, Y. Takeda, M. Mano, and T. Okada Design of ship hull structures: a practical guide for engineers 1st ed. 2009 Springer
8. PNA 2010. Principles of Naval Architecture Series. SNAME, USA.
9. D. Peri, M. Rossetti, and E.F. Campana Design optimization of ship hulls via CFD techniques Journal of Ship Research 45 2 2001 140 149 (Pubitemid 33700158)
10. R. Sharma, and Tae-wan Kim Development of a logic-based product life-cycle management (LBPLM) system for shipbuilding industryconceptual development Journal of Ship Production and Design 26 4 2010 231 251
11. A. Prencipe Modular design and complex product systems: facts, promises, and questions Economic and social research council 1998 CoPS Publication No. 47 UK website address: www.cops.ac.uk/pdf/cpn47.pdf
12. J.J. Lok Schelde sees bright future for sigma modular ship Defense Technology International 15 2008
13. DSNS 2011. Damen schelde naval shipbuilding. website address: http://www.damennaval.com.
14. DS 2011. Delftship professional extensions. website address: http://www.delftship.net.
15. S.C. Misra, O.P. Sha, and R.P. Gokarn Modularized ship designs for competitive construction in India Transactions SNAME 110 2002 279 299
16. V. Bertram, and J.J. Nieuwenhuis Modular and standard: enticing goals not always achieved The Naval Architect 2006 32 37
17. Bertram V, Caponnetto M, El Moctar OM. 2003. RANSE simulations for unsteady marine two-phase flows. In: RINA conference.
18. Bertram V, El Moctar OM, Junalik B, Nusser S. 2004. Fire and ventilation simulations for ship compartments. In: HIPER, p. 517.
19. A. Pinto, D. Peri, and E.F. Campana Global optimization algorithms in naval hydrodynamics Ship Technology Research 51 3 2004 123 133
20. V. Bertram, and P. Couser CFD possibilities and practice The Naval Architect 2007 137 147
21. V. Bertram Simulation-based design for maritime structures 2010 Germanischer Lloyd Hamburg, Germany
22. Bertram V. 2008. Appropriate tools for flow analyses for fast ships. HIPER, Naples, Italy, p.19.
23. E.F. Campana, G. Liuzzi, S. Lucidi, D. Peri, V. Piccialli, and A Pinto New global optimization methods for ship design problems Optimization in Enginering 10 2009 533 555
24. H. Nowacki, and M.I.G. Bloor Computational geometry for ships 1995 World Scientific
25. L. Piegl, and W. Tiller The NURBS book 2nd ed. 1997 Springer-Verlag
26. G. Farin NURBS: From Projective Geometry to Practical Use 2nd ed. 1999 AK Peters, Ltd. USA
27. G.E. Farin Curves and surfaces for computer aided geometric design: a practical guide 5th ed. 2001 Morgan Kaufmann Publishers USA
28. D.F. Rogers An Introduction to NURBS With Historical Perspective 2001 Morgan Kaufmann Publishers USA
29. N.M. Patrikalakis, and T. Maekawa Shape interrogation for computer aided design and manufacturing 2002 Springer
30. D. Terzopoulos, and H. Qin Dynamic NURBS with geometric constraints for interactive sculpting ACM Transactions on Graphics 13 2 1994 103 136
31. H. Qin, and D. Terzopoulos D-NURBS: a physics-based geometric design framework IEEE Transactions on Visualization and Computer Graphics 2 1 1996 85 96 (Pubitemid 126781394)
32. E.F. Wolter, and T.S. Tuohy Curvature computations for degenerate surface patches Computer Aided Geometric Design 9 1992 241 270
33. Cho W, Maekawa T, Patrikalakis NM, Peraire J. 1997. Topologically reliable approximation of trimmed polynomial surface patches. Design Laboratory Memorandum 97-4. Design Laboratory, Department of Ocean Engineering, MIT, USA, p. 116.
34. I. Babuska, and A. Aziz On the angle condition in the finite element method SIAM Journal of Numerical Analysis 13 1976 214 227
35. G. Strang, and G.J. Fix An Analysis of the finite element method 1973 Prentice-Hall Inc. New Jersey, USA
36. G. Farin Triangular BernsteinBézier patches Computer Aided Geometric Design 3 1986 83 127
37. T.W. Sederberg, J. Zheng, A. Bakenov, and A. Nasri T-splines and T-NURCCS ACM Transactions on Graphics 22 3 2003 477 484 website address: www.tsplines.com
38. J.A. Cottrell, T.J.R. Hughes, and Y. Bazilevs Isogeometric analysis: toward integration of CAD and FEA 2009 John Wiley and Sons USA
39. L.A. Piegl Ten challenges in computer-aided design Computer-Aided Design 37 2005 461 470
40. J.N. Newman Marine hydrodynamics 1977 The MIT Press USA
41. H.E. Saunders Hydrodynamics in ship design 1985 The Society of Naval Architects and Marine Engineers USA
42. M.H. Patel Dynamics of offshore structures 1989 Butterworth-Heinemann
43. F. Ursell Ship hydrodynamics, water waves and asym 1994 World Scientific Publishing Company Singapore
44. J.P. Breslin, and P. Andersen Hydrodynamics of ship propellers 1996 Cambridge University Press UK
45. F. El-Hawary The ocean engineering handbook 1st ed. 2000 CRC Press USA
46. S.K. Chakrabarti Hydrodynamics of offshore structures 2003 WIT Press USA
47. R.E.D. Bishop, and W.G. Price Hydroelasticity of ships 2005 Cambridge University Press UK
48. O.M. Faltinsen Hydrodynamics of high-speed marine vehicles 2010 Cambridge University Press UK
49. A.I. Korotkin Added masses of ship structures 1st ed. 2010 Springer
50. R. Timman, A.J. Hermans, and G.C. Hsiao Water waves and ship hydrodynamics: an introduction 1st ed. 2010 Springer
51. V. Bertram Practical ship hydrodynamics 2nd ed. 2011 Butterworth- Heinemann
52. T.I. Fossen Handbook of marine craft hydrodynamics and motion control 1st ed. 2011 Wiley USA
53. G. Beer, I. Smith, and C. Duenser The boundary element method with programming: for engineers and scientists 2008 Springer
54. L.C. Wrobel, and M.H. Aliabadi The boundary element method 2002 Wiley USA
55. B. van Leer Towards the ultimate conservative difference schemea second order sequel to Godunov's method Journal of Computational Physics 32 1979 101 136
56. W. Shyy, H.S. Udaykumar, M.M. Rao, and R.W. Smith Computational fluid dynamics with moving boundaries 1st ed. 1995 Taylor & Francis
57. V.D. Liseikin A computational differential geometry approach to grid generation 2nd ed. 2007 Springer
58. R.E. Moore Interval analysis 1966 Prentice-Hall USA
59. M.J Cloud, R.E. Moore, and R.B. Kearfott Introduction to interval analysis 2009 Society for Industrial and Applied Mathematics USA
60. W.E. Schiesser Computational mathematics in engineering and applied science: ODEs, DAEs, and PDEs 1993 CRC Press USA
61. J.S. Cohen Computer algebra and symbolic computation: mathematical methods 2003 A K Peters/CRC Press USA
62. D.G. Duffy Transform methods for solving partial differential equations 2nd ed. 2004 Chapman and Hall/CRC Press USA
63. Larsson L, Regnströn B, Broberg L, Li DQ, Janson CE. 1998. Failures, fantasies and feats in the theoretical/numerical prediction of ship performance. In: 22nd symposium on naval hydrodynamics.
64. Dawson CW. 1977. A practical computer method for solving ship-wave problems. In: Proceedings of the 2nd international conference on numerical ship hydrodynamics, p. 308.
65. J.J. Monaghan An introduction to SPH Computer Physics Communications 48 1988 88 96
66. G.R. Liu, and M.B. Liu Smoothed particle hydrodynamics: a meshfree particle method 2003 World Scientific Press
67. H. Goldstein Classical mechanics 2nd ed. 1980 Addison-Wesley USA
68. F.C. Moon Applied dynamics with applications to multibody and mechatronic systems 1998 Wiley USA
69. A.F. Bower Applied mechanics of solids 2009 CRC Press USA
70. V. Rokhlin Rapid solution of integral equations of classical potential theory Journal of Computational Physics 60 1983 187 207
71. J. Barnes, and P. Hut A hierarchical O (N log N) force-calculation algorithm Nature 324 1986 446 449
72. L. Greengard The rapid evaluation of potential fields in particle systems 1988 MIT Press USA
73. Korsmeyer T, Phillips J, White J. 1996. A precorrected-FFT algorithm for accelerating surface wave problems. In: Proceedings of the 11th IWWWFB.
74. J.R. Phillips, and J.K. White A precorrected-FFT method for electrostatic analysis of complicated 3-D structures IEEE Transactions on Computer-Aided Design of Integrated Circuits and Systems 16 10 1997
75. Korsmeyer T, Klemas T, White J, Phillips J. 1999. Fast hydrodynamic analysis of large offshore structures. In: Proceedings of the 9th ISOPE conference, p. 2734.
76. S.H. Rhee, and G. Stuckert Computational fluid dynamics: a powerful marine design tool Mechanical EngineeringThe Magazine of ASME, Sept. 2005 2005 website address: http://memagazine.asme.org/web/ComputationalFluidDynamics.cfm
77. G. van Oortmerssen Proceedings of the international symposium on CFD and CAD in ship design 1990 Elsevier Science Limited The Netherlands
78. S. Harries Fundamentals of advanced hydrodynamic design The Naval Architect 2006
79. J. Parry, R.B. Bornoff, P. Stehouwer, L.T. Driessen, and E. Stinstra Simulation-based design optimization methodologies applied to CFD IEEE Transactions on Components and Packaging Technologies 27 2 2004 391 397
80. J.F. Wilson Dynamics of offshore structures 2nd ed. 2002 Wiley USA
81. Y. Bai Marine structural design 1st ed. 2003 Elsevier Science
82. J.K. Paik, and A.K. Thayamballi Ultimate limit state design of steel-plated structures 1st ed. 2003 Wiley USA
83. O.F. Hughes Ship structural design: a rationally-based, computer-aided, optimization approach 2005 The Society of Naval Architects and Marine Engineers USA
84. M. Shama Torsion and shear stresses in ships 1st ed. 2010 Springer
85. O.F. Hughes, and Jeom Kee Paik Ship structural analysis and design 2010 The Society of Naval Architects and Marine Engineers USA
86. P.D. Lax, and A.N. Milgram Parabolic equations Contributions to the theory of partial differential equations Annals of mathematics studies vol. 33 1954 Princeton University Press USA 167 190
87. G.R. Liu A generalized gradient smoothing technique and the smoothed bilinear form for Galerkin formulation of a wide class of computational methods International Journal of Computational Methods 5 2 2008 199 236
88. G.R. Liu On G-space theory International Journal of Computational Methods 6 2 2009 257 289
89. G.R. Liu Mesh free methods 2nd ed. 2009 CRC Press USA
90. G.R. Liu Smoothed finite element methods 2010 CRC Press USA
91. G.R. Liu, and G.X. Xu A gradient smoothing method (GSM) for fluid dynamics problems International Journal for Numerical Methods in Fluids 58 2008 1101 1133
92. J. Zhang, G.R. Liu, K.Y. Lam, H. Li, and G. Xu A gradient smoothing method (GSM) based on strong form governing equation for adaptive analysis of solid mechanics problems Finite Elements in Analysis and Design 44 2008 889 909
93. O. Cessenat, and B. Despres Application of an ultra weak variational formulation of elliptic PDEs to the two dimensional Helmholtz problem SIAM Journal of Numerical Analysis 35 1 1998 255 299 (Pubitemid 128464130)
94. T. Huttunen, P. Monk, F. Collino, and J.P. Kaipio The ultra-weak variational formulation for elastic wave problems SIAM Journal of Scientific Computing 25 5 2004 1717 1742
95. P. Monk, and D. Wang A least squares method for the Helmholtz equation Computer Methods in Applied Mechanics and Engineering 175 1999 121 136
96. T. Huttunen, P. Monk, and J.P. Kaipio Computational aspects of the ultra weak variational Formulation Journal of Computational Physics 182 2002 27 46
97. J.M. Melenk, and I. Babuka The partition of unity finite element method: basic theory and applications Computer Methods in Applied Mechanics and Engineering 139 1996 289 314 (Pubitemid 126382701)
98. I. Babuka, U. Banerjee, and J.E. Osborn Generalized finite element methods: main ideas, results, and perspective International Journal of Computational Methods 1 1 2004 67 103
99. N. Mos, J. Dolbow, and T. Belytschko A finite element method for crack growth without remeshing International Journal for Numerical Methods in Engineering 46 1 1999 131 150 (Pubitemid 30508928)
100. I. Babuka, and B.Q. Guo The h, p and h - p version of the finite element method: basis theory and applications Advances in Engineering Software 15 34 1992
101. A.T. Patera A spectral element method for fluid dynamics laminar flow in a channel expansion Journal of Computational Physics 54 1984 468 488
102. Y. Katznelson An introduction to harmonic analysis 3rd ed. 2004 Cambridge University Press
103. J. Hesthaven, S. Gottlieb, and D. Gottlieb Spectral methods for time-dependent problems 2007 Cambridge University Press UK
104. B. Cockburn, G.E. Karniadakis, and C.-W. Shu Discontinuous Galerkin methods. Theory, Computation and Applications Lecture Notes in computational science and engineering vol. 11 2000 Springer-Verlag Germany
105. C.C. Smith, and M. Gilbert Application of discontinuity layout optimization to plane plasticity problems Proceedings of Royal Society A 463 2086 2007 2461 2484
106. M Farshad Design and analysis of shell structures, vol. 16 1992 Springer
107. A.N. Palazotto, and S.T. Dennis Nonlinear analysis of shell structures 1992 AIAA Education Press
108. D. Chapelle Some new results and current challenges in the finite element analysis of shells ACTA Numerica 10 2001 215 250 (Pubitemid 33305811)
109. Echter R, Bischoff M. 2008. An investigation of the isogeometric approach from the viewpoint of finite element technology, In: Abel JF, Cooke JR, editors. Proceedings of the 6th international conference on computation of shell and spatial structures (IASS-IACM 2008). p. 14.
110. D. Chapelle, and K.-J. Bathe The finite element analysis of shells fundamentals 2nd ed. 2010 Springer
111. G.Z. Voyiadjis, and P. Woelke Elasto-plastic and damage analysis of plates and shells 2010 Springer
112. R. Taggart Ship design and construction 1980 SNAME USA
113. R.L. Storch, C.P. Hammon, H.M. Bunch, and R.C. Moore Ship production 2nd ed. 2007 SNAME USA
114. Robert E. Randall Elements of ocean engineering 2nd ed. 2010 SNAME USA
115. CS 2007, A container ship, The Visual Dictionary, USA, website address: www.infovisual.info/05/057en.html, p. 12.
116. AAS 2003. M.V. Manukai, Aker American Shipping, USA, website address: www.akership.com/index.cfm?Id=5-20-21-0. p. 12.
117. OSS 2004, M/S Lexa Maersk container ship, Odense Steel Shipyard, Denmark, website address: www.menkent.dk/piclexa.html, www.menkent.dk/lexapics/ lexastern1.jpg, p. 12.
118. SSOB 2007, Stern shape of boat, Great Lakes and Seaway Shipping, USA, website address: www.boatnerd.com/news/archive/9-01.htm, p. 12.
119. Hsiao YC, Shimizu H, Firth L, Maher W, Masubuchi K. 1997, Finite element modeling of laser forming, In: Proceedings of ICALEO-97, p. 3140.
120. A.N.K. Kyrsanidi, T.H.B. Kermanidis, and S.P.G. Pantelakis Numerical and experimental investigation of the laser forming process Journal of Materials Processing Technology 87 1999 281 290
121. J.G. Shin, J.H. Lee, and S.K. Park Numerical thermoplastic analysis of line heating processes for saddle-type shells with the application of an artificial neural network Journal of Ship Production 15 1 1999 10 20
122. Yu G, Masubuchi K, Maekawa T, Patrikalakis NM. Finite element model for metal forming by laser line heating. In: Proceedings of the 10th international conference on computer applications in ship building ICCAS-99. vol. 2 1999: p. 40918.
123. L. Zhang, E.W. Reutzel, and P. Michaleris Finite element modeling discretization requirements for the laser forming process International Journal of Mechanical Sciences 46 4 2004 623 637
124. Anderson R. 1999, Experiments and simulation of line heating of plates, Ph.D thesis, MIT, USA.
125. C.D. Jang, S. Seo, and D.E. Ko Study on the prediction of deformations of plates due to line heating using simplified thermal elasto-plastic analysis Journal of Ship Production 13 1 1997 22 27 (Pubitemid 127614244)
126. S.I. Seo, Y.H. Yang, and C.D. Jang Development of new finite-element method to analyze deformation of plate due to line heating Journal of Ship Production 17 1 2001 1 7 (Pubitemid 33700674)
127. Dydo JR, Sovilla L, Carey K. 2001, An analysis tool for forming complex shapes in ship plate structures by line heating, In: Proceedings of the 2001 Ship Production Symposium and Exposition, SNAME, USA, p. 1229.
128. F. Vollertsen An analytical model for laser bending Lasers in Engineering 2 1994 261 276
129. Vollertsen F, Rodle M. Model for the temperature gradient mechanism of laser bending. In: Proceedings of laser assisted net shape engineering conference LANE 94, vol. 1; 1994 p. 37178.
130. P.J. Cheng, and S.C. Lin An analytical model to estimate angle formed by laser Journal of Materials Processing Technology 108 2001 314 319 (Pubitemid 32071681)
131. P.J. Cheng, and S.C. Lin Using neural networks to predict bending angle of sheet metal formed by laser International Journal of Machine Tools and Manufacture 40 8 2000 1185 1197
132. Clausen HB. 2000, Plate forming by line heating, Ph.D. thesis, Technical University of Denmark, Lyngby, Denmark.
133. J.S. Letcher Jr. Lofting and fabrication of compound-curved plates Journal of Ship Research 37 2 1993 166 175
134. L.C. Evans Partial differential equations 1998 AMS Publication USA
135. Flattener Flattener compound-curved plate expansion for windows 2011 AeroHydro, Inc USA website address: http://www.aerohydro.com/products/marine/ msplex.htm
136. G. Yu, N.M. Patrikalakis, and T. Maekawa Optimal development of doubly curved surfaces Computer Aided Geometric Design 17 2000 545 577
137. C. Liu, Y.L. Yao, and V. Srinivasan Optimal process planning for laser forming of doubly curved shapes ASME Journal of Manufacturing Science and Engineering 126 2004 1 9
138. E.W. Reutzel, L. Zhang, and P. Michaleris A differential geometry approach to analysis of thermal forming International Journal of Mechanical Sciences 48 2006 1046 1062 (Pubitemid 44142522)
139. P.H. Todd, and R.J.Y. McLeod Numerical estimation of the curvature of surfaces Computer-Aided Design 18 1 1986 33 37
140. G.J. Wang, T.W. Sederberg, and T. Saito Partial derivatives of rational Bezier surfaces Computer Aided Geometric Design 14 1997 377 381 (Pubitemid 127382390)
141. J. Zheng, and T.W. Sederberg Gaussian and mean curvatures of rational Bezier patches Computer Aided Geometric Design 20 2003 297 301
142. P.N. Azariadis, and N.S. Sapidis Planar development of free-form surfaces: quality evaluation and visual inspection Computing 72 12 2004 13 27
143. L.E. Malvern Introduction to the mechanics of a continuous medium 1969 Prentice Hall, Englewood Cliffs NJ, USA
144. W.M. Lai, D. Rubin, and E. Krempl Introduction to continuum mechanics 3rd ed. 1995 Butterworth-Heinemann UK
145. W.H. Frey, and D. Bindschadler Computer-aided design of a class of developable surfaces Research and development publication 1993 General Motors Company Limited USA 95 111
146. D.J. Struik Lectures on classical differential geometry 1950 Addison-Wesley Cambridge, MA, USA p. 13745
147. O. Nørskov-Lauritsen Practical application of single curved hull definition background, application, software, and experience P. Banda, C. Kuo, Proceedings of computer applications in the automation of shipyard operations and design v, volvol. 11 1985 Elsevier Science North Holland, NY 485 491
148. D.E. Calkins, V.E. Theodoracatos, G.D. Aguilar, and D.M. Brayant Small craft hull form surface definition in a high-level computer graphics design environment SNAME Transactions 97 1989 85 113
149. T. Lamb Shell development computer aided loftingis there a problem or not? Journal of Ship Production 11 1 1995 34 46
150. R. Sharma, and O.P. Sha Development of an ERP model for modularly designed ships for medium scale shipyardsI: manufacturing management Journal of Marine Engineering and Technology [Part A: Proceedings of the IMarEST] A10 2007 17 43 (Pubitemid 350149306)
151. Alfeld LE, Wilkins JR, Pilliod CS. 1997. The Virtual Shipyard: A Simulation Model of the Shipbuilding Process. Ship Production Symposium, SNAME, USA.
152. A.I. Ginnis, K.V. Kostas, C.G. Politis, and P.D. Kaklis VELOS: a VR platform for ship-evacuation analysis Computer-Aided Design 42 11 2010 1045 1058
153. Q. Zhao 10 scientific problems in virtual reality Communications of the ACM 54 2 2011
154. A.M. Kracht Design of bulbous bows Transactions SNAME 86 1978 197 217