Object-oriented programming in FEM and BEM: A bibliography (1990-2003)

Advances in Engineering Software

Volumn 35, Issue 6, 2004, Pages 325-336

  Mackerle, Jaroslav ^a  

^a LINKÖPING INSTITUTE OF TECHNOLOGY   (Sweden)

Author keywords

Bibliography; Boundary element method; Finite element method; Object oriented programming

Indexed keywords

BIBLIOGRAPHIES; BOUNDARY ELEMENT METHOD; CIVIL ENGINEERING; COMPUTER SIMULATION; FINITE ELEMENT METHOD; PARALLEL PROCESSING SYSTEMS; PROBLEM SOLVING;

GEOMECHANICS; MATERIAL SIMULATIONS; MESH MODELING; TOOLKITS;

OBJECT ORIENTED PROGRAMMING;

EID: 3042744736     PISSN: 09659978     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.advengsoft.2004.04.006     Document Type: Article

References (414)

1. Rumbaugh J, et al. Object-oriented modeling and design. Englewood Cliffs, NJ: Prentice-Hall; 1991.
2. Booch G. Object-oriented analysis and design with applications. Redwood City: Benjamin/Cummings; 1994.
3. Gamma E, et al. Design patterns: elements of reusable object-oriented software. New York: Addison-Wesley; 1994.
4. Mackie RI. Object oriented methods and finite element analysis. Edinburgh: Saxe-Coburg Publ; 2000.
5. Villa A, Rodriguez-Ferran A, Huerta S. Nonlinear finite element techniques using an object-oriented code. Barcelona: CIMNE; 1995.
6. Mackerle J. 2D and 3D finite element meshing and remeshing, a bibliography (1990-2001). Eng Comput 1990;18(7/8):1108-97.
7. Adeli H, Yu G. An object-oriented data management model for numerical analysis in computer aided engineering. Microcomput Civil Eng 1993;8(3): 199-209.
8. Adeli H, Yu G. An integrated computing environment for solution of complex engineering problems using the object-oriented programming paradigm and a blackboard architecture. Comput Struct 1995;54(2): 255-65.
9. Archer GC. Object-oriented finite element analysis. PhD Thesis. Univ of California, Berkeley; 1996.
10. Archer GC, et al. New software architecture for finite element analysis. Congress on Comput Civil Eng, New York 1996; 683-9.
11. Archer GC, et al. A new object-oriented finite element analysis program architecture. Comput Struct 1999; 70(1):63-75.
12. Arruda RS, et al. Object oriented structural analysis in a graphical environment. In: Topping BH, editor. Second Int Conf Comput Struct Tech. Edinburgh: Civil-Comp; 1994. p. 129-38.
13. Aster M, et al. Iterative object-oriented modelling for structural engineering. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 872.
14. Baugh JW, Rehak DR. Data abstraction in engineering software development. J Comput Civil Eng 1992; 6(3): 282-301.
15. Beall MW, Shephard MS. An object-oriented framework for reliable numerical simulations. Eng Comput 1999; 15(1):61-72.
16. Besson J, Foerch R. Large scale object-oriented finite element code design. Comput Meth Appl Mech Eng 1997; 142(1/2):165-87.
17. Besson J, et al. Application of object-oriented programming techniques to the finite element method. Part II. Application to material behaviors. Rev Eur Elem Finis 1998; 7(5): 567-88.
18. Bettig BP, Han RPS. An object-oriented framework for interactive numerical analysis in a graphical user interface environment. Int J Numer Meth Eng 1996;39(17):2945-71.
19. Bittencourt ML, Feijoo RA. Object-oriented non-nested multigrid methods. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 896.
20. Bomme P. Intelligent objects for object-oriented engineering environment. PhD Thesis. Swiss Federal Inst of Tech; 1998.
21. Cardona A, et al. Design of a new finite element programming environment. Eng Comput 1994;11 (4): 365-81.
22. Chen WF. Future challenge for simulation in structural engineering. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 944.
23. Chudoba R, et al. Explicit finite element computation: an object-oriented approach. In: Pahl, Werner, editors. Comp Civil Build Eng. Rotterdam: Balkema; 1995. p. 139-45.
24. Cui J, Han L. Object-oriented FE software development. First Int Conf Eng Comput Comput Simul, Changsha; 1995. p. 18-23.
25. De Vincenzo P, et al. Performance of static and dynamic solvers on a subdomain object oriented finite element architecture. In: Topping BHV, editor. Adv Comput Mech High Perform Comput. Edinburgh: Civil-Comp; 1998. p. 169-79.
26. Deeks A. An adaptive h-hierarchical finite element system. In: Topping BHV, editor. Adv FE Proc Tech. Edinburgh: Civil-Comp; 1998.
27. Deeks AJ. Adaptive finite element analysis using object oriented techniques. Proc 14th Aust Conf Struct Mater, Tasmania; 1995.
28. Deeks AJ. An object oriented finite element system for two-dimensional problems. Proc Third Asian-Pacific Conf Comput Mech, Korea; 1996.
29. Devloo PRB. Object oriented programming applied to the development of scientific software. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 945.
30. Devloo PRB, Filho JSRA. On the development of finite element program based on the object oriented programming philosophy. In: Hirsch C, et al., editors. Numer Meth Eng’92. Amsterdam: Elsevier; 1992. p. 39-42.
31. Devloo PRB, Longhin GC. Object oriented design philosophy for scientific computing. Math Modell Numer Anal 2002;36(5):793-807.
32. Dolenc M. Developing extendable component-oriented finite element software. Third Int Conf Eng Comput Tech, Prague, Edinburgh: Civil-Comp; 2002. p. 23-4.
33. Donescu P, Laursen TA. A generalized object-oriented approach to solving ordinary and partial differential equations using finite elements. Finite Elem Anal Des 1996;22(1):93-107.
34. Dubois-Pelerin Y. Object-oriented finite element programming concepts and implementation. PhD Thesis. Swiss Federal Inst of Tech, Lausanne; 1992.
35. Dubois-Pelerin Y, Pegon P. Improving modularity in object-oriented finite element programming. Commun Numer Meth Eng 1997;13(3):193-8.
36. Dubois-Pelerin Y, Pegon P. Linear constraints in object-oriented finite element programming. Comput Meth Appl Mech Eng 1998;154(1/2):31-9.
37. Dubois-Pelerin Y, et al. On the development of finite element program based on the object oriented programming philosophy. In: Ladeveze P, editor. New Adv Comput Struct Mech. Amsterdam: Elsevier; 1992. p. 457-67.
38. Eyheramendy D. FEM theory: an environment for symbolic derivations and automatic programming of finite elements—developer’s guide. Int Rep 98/ 5, LSC, Lausanne: Swiss Fed Inst Tech; 1998.
39. Eyheramendy D. Interet des approches symboliques dans le calcul numerique en mecanique. 4ieme Colloq national en calcul des struct, Paris: Teknea; 1999. p. 323-8.
40. Eyheramendy D. An object-oriented hybrid symbolic/numerical approach for the development of finite element codes. Finite Elem Anal Des 2000; 36(3/4):315-34.
41. Eyheramendy D, Zimmermann T. Object-oriented finite element programming: beyond fast prototyping. In: Topping BH, editor. Second Int Conf Comput Struct Tech. Edinburgh: Civil-Comp; 1994. p. 121-8.
42. Eyheramendy D, Zimmermann T. Programmation orientee object appliquee a la methode des elements finis: derivations symboliques, programmation automatique. Rev Eur Elem Finis 1995;4:327-60.
43. Eyheramendy D, Zimmermann T. Object-oriented finite elements II. A symbolic environment for automatic programming. Comput Meth Appl Mech Eng 1996;132(3/4):277-304.
44. Eyheramendy D, Zimmermann T. Object-oriented finite element programming: an interactive environment for symbolic derivations, application to an initial boundary value problem. Adv Eng Software 1996;27(1/2):3-10.
45. Eyheramendy D, Zimmermann T. Derivations symboliques pour code elements finis-Application a un probleme d’elasticite. 3ieme Colloq national en calcul des struct, Giens; 1997. p. 553-8.
46. Eyheramendy D, Zimmermann T. Object-oriented finite elements. III. Theory and application of automatic programming. Comput Meth Appl Mech Eng 1998;154(1/2):41-68.
47. Eyheramendy D, Zimmermann T. Object-oriented symbolic derivation and automatic programming of finite elements in mechanics. Eng Comput 1999;15(1):12-36.
48. Fenves GL. Object-oriented programming for engineering software development. Eng Comput 1990;6(1):1-15.
49. Foerch R. Un environment oriente object pour la modelisation numerique des materiaux en calcul de structures. PhD Thesis. Ecole des Mines de Paris, France; 1996.
50. Forde BWR, et al. Object-oriented finite element analysis. Comput Struct 1990;34(3):355-74.
51. Gabbert U, Wehner P. The product data model as a pool for CAD-FEA data. Eng Comput 1998; 14(2): 115-22.
52. Gajewski RR, Kowalczyk T. Prototype object-oriented FEM program: class hierarchy and graphic user interface. Comput Assist Mech Eng Sci 1996; 3(1):65-74.
53. Gajewski RR, Lompies P. Object-oriented implementation of bandwidth, profile and wavefront reduction algorithms. In: Topping BHV, editor. Adv Comput Struct Tech. Edinburgh: Civil-Comp; 1996.
54. Gajewski RR, Lompies P. Object-oriented approach to the reduction of matrix bandwidth, profile and wavefront. Adv Eng Software 1999;30(9/11): 783-8.
55. Gregoriades A, et al. An object oriented approach to the design of finite element software. Second Int Conf Concurrent Eng Electr Des, Bournemouth; 1994. p. 466-8.
56. Hededal O. Object-oriented structuring of finite elements. PhD Thesis. Aalborg University, Denmark; 1994.
57. Henrotte F, et al. Ageneral element structure for finite element programmes. Numer Mod Ind Appl, Leuvan, Belgium. New York: Plenum Press; 1995. p. 229-32.
58. Henrotte F, et al. An object-oriented decomposition of the FE procedure. IEEE Trans Magnet 1996;32(3):1441-5.
59. Huang S, et al. An object-oriented architecture for a finite element method knowledge-based system. Int J Numer Meth Eng 1996;39(20):3497-517.
60. Huang SY, et al. On the development of large-scale FEM structure analysis system oriented to objects—concept and analysis. Proc JSASS/JSME Struct Conf 1992; p. 242-5.
61. Ju J, Hosain MU. Substructuring using the object-oriented approach. In: Topping BHV, editor. Second Int Conf Comput Struct Tech. Edinburgh: Civil Comp; 1994. p. 115-20.
62. Ju J, Hosain MU. Applications of OOP based substructuring technique. Second Cong Comput Civil Eng, Atlanta, ASCE; 1995.
63. Kettil P. Computational engineering development and implementation of computational methods for structural analysis and design. Doctoral Thesis. Chalmers University Tech, Gothenburg; 2001.
64. Kikuchi M, Sato Y. Prototype of expert system for generation of singlepurposed FEM code. Trans Jpn Soc Mech Eng A 1993;59(558):483-8.
65. Kong XA. A data design approach for object-oriented FEM programs. Comput Struct 1996;61(3):503-13.
66. Kong XA, Chen DP. An object-oriented design of FEM programs. Comput Struct 1995;57(1):157-66.
67. Lambe L, Luczak R. Object-oriented mathematical programming and symbolic/numeric interface. Math Comput Simul 1994;36(4/6):493-503.
68. Lang RJ. Object-oriented approach to PC finite-element solutions. Comput Civil Eng, ASCE 1994;2:1236-43.
69. Lee HH, Arora JS. Object-oriented programming for engineering applications. Eng Comput 1991;7(4):225-35.
70. Liu JL, et al. Object-oriented programming of adaptive finite element and finite volume methods. Appl Numer Math 1996;21(4):439-67.
71. Lu J, et al. Applying object-oriented design to finite element programming. ACM/SIGAPP Symp Appl Comput, Indianapolis, ACM; 1993. p. 424-9.
72. Mackie RI. Object oriented programming of the finite element method. Int J Numer Meth Eng 1992; 35(2):425-36.
73. Mackie RI. Using object to handle complexity in finite element software. Eng Comput 1997;13(2):99-111.
74. Mackie RI. An object-oriented approach to fully interactive finite element software. Adv Eng Software 1998;29(2):139-49.
75. Mackie RI. Objects and finite elements: an holistic approach to computational speed issues. In: Topping BHV, editor. Adv Eng Comput Tech. Edinburgh: Civil-Comp; 1998. p. 239-47.
76. Mackie RI. Object-oriented finite element programming-the importance of data modelling. Adv Eng Software 1999;30(9/11):775-82.
77. Mackie RI. An object-oriented approach to calculation control in finite element programs. Comput Struct 2000;77(5):461-74.
78. Mackie RI. Using objects to handle calculation control in finite element analysis. Dev Eng Comput Tech, Edinburgh: Civil-Comp; 2000. p. 123-30.
79. Mackie RI. Implementation of sub-structuring within an object-oriented framework. Adv Eng Software 2001;32(10):749-58.
80. Mackie RI. Object oriented programming for structural mechanics: a review. Eighth Int Conf Civil Struct Eng Comput, Eisenstadt; 2001. p. 137-59.
81. Mackie RI. Using objects to handle calculation control in finite element modelling. Comput Struct 2002;80(27):2001-9.
82. Mackie RI, Gajewski RR. Object oriented programming and finite element analysis: achieving control over the calculation process. Object-Oriented Technol, ECOOP’98; 1998. p. 456-7.
83. Miller GR. An object-oriented approach to structural analysis and design. Comput Struct 1991;40(1):75-82.
84. Mimura Y, et al. Innovative finite element analysis with object-oriented programming language. Third World Cong Comput Mech, Chiba, Japan; 1994. p. M4-5.
85. Nagasawa S, et al. Development of finite element analysis support system based on the hybrid knowledge model. ASME Int Comput Eng Conf, New York: ASME; 1992. p. 53-9.
86. Nagasawa S, et al. Support system for finite element analysis. Adv Eng Software 1996;27(3):179-89.
87. Nakai S, et al. A knowledge-based structural analysis based on an object-oriented approach. Micro Comput Civil Eng 1992;7:15-28.
88. Ohtsubo H. Integration of finite element analysis with object oriented modeling. Third World Cong Comput Mech, Chiba, Japan; 1994. p. M4-1.
89. Orsborn K. Applyingnext generation object-orientedDBMSto finite element analysis. Lecture Notes Comput Sci 819. Berlin: Springer; 1994. p. 215.
90. Orsborn K. Onextensible and object-relational database technology for finite element analysis applications. PhD Thesis. Linkoping University, Sweden; 1996.
91. Patzak B. Object oriented finite element modeling. Acta Polytech Czech Tech Univ, Prague 1999;39(2):99-112.
92. Patzak B, Bittnar Z. Design of object oriented finite element code. Adv Eng Software 2001;32(10):759-67.
93. Pauli GH, et al. A methodology for adaptive finite element analysis: towards an integrated computational environment. Comput Mech 1999;23(5/6):361-88.
94. Pletzer A. Python and finite elements. Dr Dobb’s J 2002;27(3):36-40.
95. Prabhakar V, Sheppard SD. Knowledge-based approach to model idealization in FEM. 10th Conf AI Appl, San Antonio, New York: IEEE; 1994. p. 488-90.
96. Raphael B, Krishnamoorthy C. Automating finite element development using object oriented techniques. Eng Comput 1993;10(3):267-78.
97. Remy P, et al. An object oriented approach to finite element programming (phase I): a system independent windowing environment for developing interactive programs. Adv Eng Software 1992;14(1): 41-6.
98. Rodrigues JS, et al. Object oriented programming in scientific computations: the beginning of a new era. Eng Comput 1991;8(1):81-7.
99. Ross TJ, et al. Object-oriented programming for scientific codes. I— Thoughts and concepts. J Comput Civil Eng 1992;6(4):480-96.
100. Ross TJ, et al. Object-oriented programming for scientific codes. II. Examples in C++. J Comput Civil Eng 1992;6(4):497-514.
101. Ruan X, et al. A novel approach to extract knowledge from simulation results. Int J Adv Manufact Tech 2002;20(5):390-6.
102. Rucki MD, Miller GR. An algorithmic framework for flexible finite elementbased structural modeling. Comput Meth Appl Mech Eng 1996;136(3/4): 363-84.
103. Rucki MD, Miller GR. An adaptable finite element modelling kernel. Comput Struct 1998;69(3):399-409.
104. Silva EJ, Mesquita RC. Data management in finite element analysis programs using object-oriented techniques. IEEE Trans Magnet 1996;32(3): 1445-9.
105. Sims JM.An object-oriented development system for finite element analysis. PhD Thesis. Arizona State Univ; 1994.
106. Tworzydlo WW, Oden JT. Towards an automated environment in computational mechanics. Comput Meth Appl Mech Eng 1993;104(1): 87-143.
107. Tworzydlo WW, Oden JT. Knowledge-based methods and smart algorithms in computational mechanics. Eng Fract Mech 1995;50(5/6):759-800.
108. Ulbin M, et al. Object oriented programming of engineering numerical applications. In: Topping BHV, editor. Adv Comput Struct Tech, Edinburgh: Civil-Comp; 1996. p. 137-42.
109. Vermeulen A. Object oriented finite element software. Dr Dobb’s J 1993; 18(6):86-91.
110. Verner DA, et al. Development of generic field classes for finite element and finite difference problems. Sci Program 1993;2(4):227-34.
111. Vlasov AN, et al. Object-oriented programming of FEM for continuum mechanics problems. Part 1. Ideology of the object-oriented approach and its application to the FEM. Compos Mech Des 1996;2(2):77-88.
112. Wilson TC, et al. Modeling primitives: an object oriented formulation of boundary value problems in a solid geometric modeling context. Second Symp Solid Model Appl, Montreal, USA: ACM; 1993. p. 441-8.
113. Yang X, Zhou W. The design and development of an integrated system for object-oriented finite element computing. Fifth Int Conf Algor Architect Parallel Proc. Beijing, New York: IEEE; 2002. p. 201-4.
114. Yoshimura S, et al. Automated structural design based on knowledge engineering and fuzzy control. Eng Comput 1995;12(7):593-608.
115. Yu G, Adeli H. Object oriented finite element analysis using EER model. J Struct Eng, ASCE 1993;119(9):2763-83.
116. Yu GG. Object-oriented models for numerical and finite element analysis. PhD Thesis. The Ohio State Univ; 1994.
117. Yu L, Kumar AV. An object-oriented modular framework for implementing the finite element method. Comput Struct 2001;79(9):919-28.
118. Zaher MN, et al. Object oriented finite element analysis (II). The finite element procedure. In: Topping BHV, editor. Dev Comput Tech Struct Eng. Edinburgh: Civil-Comp; 1995. p. 187-95.
119. Zimmermann T. Object-oriented finite element programming from governing principles to automatic coding. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 947.
120. Zimmermann T, Bomme P. Toward intelligent object-oriented scientific applications. In: Topping BHV, Bittnar Z, editors. Eng Comput Tech. Edinburgh: Saxe-Coburg; 2002. p. 271-311.
121. Zimmermann T, Dubois-Pelerin Y. The object-oriented approach to finite elements: concepts and implementations. In: Hirsch C, et al., editors. Numer Meth, Eng’92. Amsterdam: Elsevier; 1992. p. 865-70.
122. Zimmermann T, Eyheramendy D. Object-oriented finite elements: automatic programming. Third World Cong Comput Mech, Chiba, Japan; 1994. p. M4-7.
123. Zimmermann T, Eyheramendy D. Object-oriented finite elements. I. Principles of symbolic derivations and automatic programming. Comput Meth Appl Mech Eng 1996;132(3/4):259-76.
124. Zimmermann T, et al. Object-oriented finite element programming. I. Governing principles. Comput Meth Appl Mech Eng 1992;98(2): 291-303.
125. Zimmermann T, et al. Object-oriented finite element programming: languages, symbolic derivations, reasoning capabilities. NAFEMS 97, Stuttgart; 1997. p. 652-3.
126. Zimmermann T, et al. Aspects of an object-oriented finite element environment. Comput Struct 1998;68(1/3):1-16.
127. Zimmermann T, et al. Object-oriented rule-based reasoning within finite element applications. Fifth US Natl Cong Comput Mech, Boulder; 1999. p. 236-7.
128. Athanasiadis AN, Deconinck H. Object-oriented three-dimensional hybrid grid generation. Int J Numer Meth Eng 2003;58(2):301-18.
129. Barker DE. An object-oriented hierarchical paradigm for integrated parametric design and automated two-dimensional quadrilateral mesh generation. PhD Thesis. The Univ of Utah; 1993.
130. Bastian M, Li BQ. An efficient automatic mesh generator for quadrilateral elements implemented using C++. Finite Elem Anal Des 2003;39(9): 905-30.
131. Gajewski RR, Kowalczyk T. Object-oriented graphic environment for structural analysis. WSCG96, Plzen, Czech Republic; 1996. p. 91-2.
132. Gonzalez-Yuste JM, et al. An object oriented method for tetrahedral mesh refinement. Third Int Conf Eng Comput Tech, Prague. Edinburgh: Civil-Comp; 2002. p. 27-8.
133. Holm EJ, Langtangen HP. Unified mesh refinement method with applications to porous media flow. Int J Numer Meth Fluids 1998;28(4): 679-702.
134. Ju J, Hosain MU. Finite element graphic objects in C Plus Plus. J Comput Civil Eng 1996;10(3):258-60.
135. Karamete BK, et al. Unstructured grid generation and a simple triangulation algorithm for arbitrary 2-D geometries using object oriented programming. Int J Numer Meth Eng 1997;40(2):251-68.
136. Kawamura Y, et al. Finite element mesh generation of shell structures with quadrilateral elements around stress concentration. Third World Cong Comput Mech; Chiba, Japan, 1994. p. G2-2.
137. Koch R, Szu KI. Applying non-manifold geometric modeling methods in integrated design and FE analysis environment. Energy-Source Tech Conf, PD 59. New York: ASME; 1994. p. 85-9.
138. Majewski J, et al. An object-oriented implementation for hybrid grid generation. Proc VKI Lecture Ser on CFD, Karman Inst; 2000.
139. Mobley AV, et al. An object oriented approach to geometry defeaturing for finite element meshing. Seventh Int Meshing Roundtable, Dearborn: Sandia Natl Lab; 1998.
140. O’Bara RM, et al. Analysis model visualization and graphical analysis attribute specification system. Finite Elem Anal Des 1995;19(4):325-48.
141. Panthaki M, et al. An object-oriented virtual geometry interface. Sixth Int Meshing Roundtable, Dearborn: Sandia Natl Lab; 1997.
142. Remacle JF, Shephard MS. An algorithm oriented mesh database. Int J Numer Meth Eng 2003;58(2):349-74.
143. Shephard MS, Beall MW. A geometry-based framework for developing numerical analysis codes. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 946.
144. Soulier B, Regnier G. Automatic remesh using object oriented representation of history file. EXPERSYS-91, Paris; 1991. p. 367-72.
145. Wang GH, et al. Node-base dynamic adaptive grid with quadrilateral and hexahedral elements. Adv Eng Software 1999;30(1):31-41.
146. Yagawa G, et al. Automatic two-and three-dimensional mesh generation based on fuzzy knowledge processing technique. 1990 ASME Int Comput Eng Conf Exhib, Boston; 1990. p. 107-14.
147. Yang X, et al. Object-oriented finite element analysis: a distributed approach to mesh generation. Fifth Int Conf Algor Architect Parallel Proc, Beijing; 2002. p. 92-9.
148. Agarwal J, et al. Structural dynamic analysis on a connection machine. Comput Struct 1997;63(6):1229-42.
149. Bose A, Carey GF. A class of data structures and object-oriented implementation for finite element methods on distributed memory systems. Comput Meth Appl Mech Eng 1999;171(1/2):109-21.
150. Carey G, et al. A prototype scalable, object-oriented finite element solver on multi computers. J Parallel Distrib Comput 1994;20(3):357-79.
151. Chen HM. Distributed object-oriented nonlinear finite element analysis. PhD Thesis. Purdue Univ; 2002.
152. Chen HM, Archer GC. Distributed object-oriented finite element analysis using data structures. Adv Tech Struct Eng, ASCE 2000;8/1.
153. Chen HM, Archer GC. A distributed object-oriented finite element analysis program architecture. Comput-Aided Civil Infrastruct Eng 2001;16(5): 326-36.
154. Cheng K, et al. An integrated concurrent engineering approach to the design and manufacture of complex components. Int J Adv Manufact Tech 2002; 20(5):319-25.
155. Da Silva EC, et al. An object oriented environment for the development of parallel finite element applications. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 925.
156. Devine K, et al. Design of dynamic load-balancing tools for parallel applications. Int Conf Supercomput, Santa Fe. ACM; 2000. p. 110-8.
157. Devloo PRB, et al. Object oriented programming applied to massively parallel computing: a C++ interface to the connection machine. In: Hirsch C, et al., editors. Numer Meth Eng’92. Amsterdam: Elsevier; 1992. p. 43-7.
158. Feyel F. Some new technics regarding the parallelization of ZEBULON, an object oriented finite element code for structural mechanics. Math Modell Numer Anal 2002;36(5):923-35.
159. Gerlach J, et al. Framework for parallel adaptive finite element methods and its template based implementation in CC++. Lecture Notes Comput Sci 1997;1343:105.
160. Gerlach J, Sato M. Generic programming for parallel mesh problems. Comput Object-Orient Parallel Environ. Berlin: Springer; 1999. p. 108-19.
161. Hsieh SH, et al. Object-oriented parallel programming tools for structural engineering applications. Comput Syst Eng 1995;6(6):533-48.
162. Jiang YS. Object oriented control of parallel computations. In: Topping BHV, editor. Adv Eng Comput Tech. Edinburgh: Civil-Comp; 1998. p. 73-7.
163. Krysl P, Belytschko T. Object-oriented parallelization of explicit structural dynamics with PVM. Comput Struct 1998;66(2/3):259-73.
164. Kumar S, Adeli H. Distributed finite element analysis on network of workstations—implementation and applications. J Struct Eng, ASCE 1995; 121(10):1456-62.
165. Lingen EJ. Design of an object oriented finite element package for parallel computers. PhD Thesis. Delft Univ of Tech; 2000.
166. McKenna FT. Object-oriented finite element programming: frameworks for analysis, algorithms and parallel computing. PhD Thesis. Univ of California, Berkeley; 1997.
167. Modak S. Object-oriented concurrent solution algorithms for nonlinear structural dynamics. PhD Thesis. Purdue Univ, W Lafayette; 1997.
168. Modak S, Soteli ED. An object-oriented programming framework for the parallel dynamic analysis of structures. Comput Struct 2002;80(1):77-84.
169. Moretti CO, et al. A computational environment for structural analysis combining graphical interfaces, object-oriented programming and parallel processing. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 870.
170. Mukunda GR, et al. Distributed finite element computations using objectoriented techniques. Eng Comput 1998;14(1):59-72.
171. Nesheiwat J, Szymanski BK. Scalable performance analysis for parallel scientific computations. Eng Simul 2001;18(2):179-98.
172. Niekamp R, Stein E. An object-oriented approach for parallel two-and threedimensional adaptive finite element computations. Comput Struct 2002; 80(3/4):317-28.
173. Olas T, et al. FEMcomputations on clusters using different models of parallel programming. Fourth Int Conf Parallel Proc Appl Math. Berlin: Springer; 2002. p. 170-82.
174. Paquier P, Gelin JC. Object oriented programming applied to the domain decomposition methods with load balancing for the numerical simulation forging processes. Dev Eng Comput Tech. Edinburgh: Civil-Comp; 2000. p. 173-81.
175. Pidaparti RMV, Hudli AV. Object-oriented finite element analysis in a distributed environment. Third World Cong Comput Mech, Chiba, Japan; 1994. p. M4-6.
176. Raghunath M, et al. Distributed framework for parallel finite element analysis in a CORBA environment. Third Int Conf Eng Comput Tech, Prague. Edinburgh: Civil-Comp; 2002. p. 111-2.
177. Sonzogni VE, et al. A parallel finite element program on a Beowulf cluster. Adv Eng Software 2002;33(7/10):427-43.
178. Tatsumi M, Yamamoto A. Object-oriented three-dimensional fine-mesh transport calculation on parallel/distributed environments for advanced reactor core analyses. Nucl Sci Eng 2002;141(3):190-217.
179. Weissman JB, et al. Parallel object-oriented computation applied to a finite element problem. Sci Program 1993;2(4):133-44.
180. Wyrzykowski R, et al. Object-oriented approach to finite element modeling on clusters. Appl Parallel Comput, PARA 2000. Berlin: Springer; 2001. p. 250-7.
181. Yang X, et al. Object-oriented finite element analysis: a distributed approach to mesh generation. Fifth Int Conf Algor Architect Parallel Proc, Beijing; 2002. p. 92-9.
182. Aazizou K, et al. Une approche C++ du calcul par elements finis. Colloq national en calcul des struct, Giens; 1993. p. 709-22.
183. Abdalla JA, Yoon CJ. Object-oriented finite element and graphics datatranslation facility. J Comput Civil Eng 1992;6:302-22.
184. Akin JE, Singh M. Object-oriented Fortran 90 p-adaptive finite element method. Adv Eng Software 2002;33(7/10):461-8.
185. Ballance RA, et al. Framework-based environment for object-oriented scientific codes. Sci Program 1993;2(4):111-21.
186. Ballay JF, et al. A tool using an object oriented language for field computation in a CAD prospect. IEEE Trans Magnet 1992;28(2): 1774-7.
187. Beck R, et al. KASKADE 3.0: an object-oriented adaptive finite element code. Technical report. Konrad-Zuse-Zentrum Infotech, Berlin; 1995.
188. Berkooz G. An introduction to CFE tools. Adv Eng Software 2000;31(8/9): 723-6.
189. Bertolazzi E, Manzini G. Algorithm 817 P2MESH: generic object-oriented interface between 2-D unstructured meshes and FEM/FVM-based PDE solvers. ACM Trans Math Software 2002;28(1):101-31.
190. Bittencourt ML. Using C++ templates to implement finite element classes. Eng Comput 2000;17(7):775-88.
191. Breitfeld T, Kroeplin B. Expert system for the verification of finite element calculations. Fourth Int Symp Assess Software Tools, Toronto; 1996. p. 18-23.
192. Carey G, et al. Scalable, object-oriented finite element solver for partial differential equations on microcomputers. Sixth ACM Int Conf Supercomput, Washington, DC; 1992. p. 387.
193. Castillo P, et al. FEMSTER: an object oriented class library of discrete differential forms. IEEE Antennas Prop Soc Int Symp, Columbus; 2003. p. 972-5.
194. Costa MC, et al. An object-oriented optimization library for finite element method software. IEEE Trans Magnet 2000;36(4):1057-60.
195. Courte JE, Dobbs VS. A development interface for an expert system shell. Eighth Annu Natl Conf Ada Technol, Atlanta; 1990. p. 623-32.
196. De Carvalho Silva, et al. An interactive object-oriented tool for structural optimization. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 948.
197. Devloo PRB. Object oriented tools for scientific computing. Eng Comput 2000;16(1):63-72.
198. Dubois-Pelerin Y, Zimmermann T. Object-oriented finite element programming. III. An efficient implementation in C++. Comput Meth Appl Mech Eng 1993;108(1/2):165-83.
199. Dubois-Pelerin Y, et al. Object-oriented finite element programming. II. A prototype program in Smalltalk. Comput Meth Appl Mech Eng 1992;98(3): 361-97.
200. Feng ZQ, Cros JM. FER/SubDomain: an integrated environment for finite element analysis using object oriented approach. Math Modell Numer Anal 2002;36(5):773-81.
201. Fernando C. An efficient computer aided engineering tool using hybrid numerical techniques. 35th Southeast Symp Syst Theory, Morgantown. New York: IEEE; 2003. p. 330-4.
202. Foerch R, et al. Formulation des relations de comportement dans les calculs par elements finis: approche C++. Second Colloq national en calcul des struc, Giens; 1995.
203. Gala S, et al. An object-oriented expert system tool: inference engine design, benchmarking and tuning. 10th Int Workshop, Expert Syst Appl, Avignon; 1990. p. 845-56.
204. Gerlach J, et al. Janus: a C++ template library for parallel dynamic mesh applications. Second Int Symp ISCOPE 98. Berlin: Springer; 1998. p. 215-22.
205. Ginsberg M, et al. Panel session: future directions and challenges for Java implementations of numeric-intensive industrial applications. Adv Eng Software 2000;31(8/9):743-51.
206. Golovidov O, et al. A flexible, object-based implementation of approximation models in an MDO framework. Des Optim 1999;1(4):388-404.
207. Ierusalimschy R, et al. Lua-an extensible extension language. Software-Pract Exp 1996;26(6):635-52.
208. Jiao X, et al. SIFFEA: scalable integrated framework for finite element analysis. Comput Object-orient Parallel Environ. Berlin: Springer; 1999. p. 84-95.
209. Ju J, Hosain MU. Application of OOP in developing finite element analysis programs using C Plus PLU. Comput Civil Eng, ASCE 1994;2:1916-9.
210. Kassegne SK, Quarshie S. Object-oriented interactive optimization tool for analysis and design of plates and shells. Fifth US Natl Cong Comput Mech, Boulder; 1999. p. 237-8.
211. Kikuchi M, Wada Y. FEM class library using object-oriented language C Plus Plus. Trans Jpn Soc Mech Eng, Ser A 1994;60(579):2652-7.
212. Kishi N. Expert system tool for an automotive design. Int J Vehicle Des 1990; 11(3):272-80.
213. Koenig A. Arithmetic sequence iterators. J Object Orient Program 1996; 9(6):38-9.
214. Koo D. Object-oriented parser-based finite element analysis tool interface. Proc SPIE 1999;3833:121-32.
215. Langer SA. OOF: object-oriented finite element software for materials microstructure. Fifth US Natl Cong Comput Mech, Boulder; 1999. p. 334.
216. Leal MYM, Bermudez LA. MEF system: an object-oriented finite element package. 1995 SBMO/IEEE MTT-S Conf, Rio de Janeiro; 1995. p. 501-6.
217. Leung KS, Wong MH. An expert-system shell using structured knowledge: an object-oriented approach. Computer 1990;23(3):38-47.
218. Lu J, et al. FE þ oriented application framework for finite element programming. Second Annu Object-Orient Numer Conf, Sunriver (OR); 1994. p. 438-47.
219. Lu J, et al. A matrix class library in C++ for structural engineering computing. Comput Struct 1995;55(1):95-111.
220. Lucas D. Methode des elements finis et programmation orientee object: utilisation du language ADA. PhD Thesis. Ecole Centrale de Paris, France; 1994.
221. Lucas D, et al. Object-oriented finite element programming using the Ada language. In: Hirsch C, et al., editors. Numer Meth Eng’92. Amsterdam: Elsevier; 1992. p. 591-8.
222. Luke EA. Loci: a deductive framework for graph-based algorithms. Comput Object-orient Parallel Environ. Berlin: Springer; 1999. p. 142-53.
223. Ma YQ. Object-oriented finite element analysis and programming in VC++. Appl Math Mech 2002;23(12):1437-43.
224. Miller GR, et al. Localized tensor-based solvers for interactive finite element applications using C++ and Java. Comput Struct 2003;81(7): 423-37.
225. Modak S, et al. Parallel matrix class library in C Plus Plus for computational mechanics applications. Microcomput Civil Eng 1997; 12(2):83-99.
226. Moni S, White DW. FrameView: object-oriented visualization system for frame analysis. J Comput Civil Eng 1996;10(4):276-85.
227. Na JC, et al. The design of an object-oriented modular expert system shell. 1990 Symp Appl Comput. New York: IEEE; 1990. p. 109-18.
228. Ohtsubo H, et al. Development of the object-oriented finite element modeling system-MODIFY. Eng Comput 1993;9(4):187-97.
229. Pagliosa PA, De Paiva JB. OSW: a toolkit for object oriented structural modeling. Dev Eng Comput Tech, Edinburgh: Civil-Comp; 2000. p. 151-66.
230. Pantale O. An object-oriented programming of an explicit dynamics code: application to impact simulation. Adv Eng Software 2002;33(5): 297-306.
231. Peng J. An internet-enabled software framework for the collaborative development of a structural analysis program. PhD Thesis. Stanford Univ; 2003.
232. Prabhakar V, Sheppard SD. Deside-X: a knowledge-based system for engineering idealization. Des Eng Div, ASME 1992;42:175-8.
233. Rajagopala MG, et al. MUIApp: an object-oriented graphical user interface application framework. Eng Comput 1997;14(2/3):256-80.
234. Reimann K, et al. SCOPE, a framework of objects to develop structural analysis programs in C++. Dev Eng Comput Tech, Edinburgh: Civil-Comp; 2000. p. 117-22.
235. Reimann K, et al. A holistic design procedure for membrane structures using the SCOOP framework. Sixth Int Conf Comput Struct Tech, Prague; 2002. p. 221-2.
236. Scholz SP. Elements of an object-oriented FEM, program in C. Comput Struct 1992;43(3):517-29.
237. Singh M, Akin JE. Object-oriented Fortran 90 p-adaptive finite element method. Dev Eng Comput Tech. Edinburgh: Civil-Comp; 2000. p. 141-9.
238. Sousa JrE, Paiva JBD. A class in C++ to store large array for finite element preprocessing. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 909.
239. Tanahashi T, Nakai T. Discrete del operator for object-oriented FEM. Trans Jpn Soc Mech Eng, Ser B 1996;62(595):1036-44.
240. Tanimoto T, et al. An intelligent user interface language integrating object-oriented rule-base and X toolkit. Trans Info Process Soc Jpn 1990;31(9):1410-3.
241. Tiller MM, Dantzig JA. FEMLIB: an object-oriented framework for optimization and simulation. 15th Ann Int Comput Eng, Boston. New York: ASME; 1995. p. 237-44.
242. Vermeulen A, Chapman M. OON-SKI: an introduction. Sci Program 1993; 2(4):109-10.
243. Wang L, et al. Efficiency issues of the object oriented finite element libraries. XIII Polish Conf Comput Meth Mech 1997;4:1371-8.
244. Yergeau DW, et al. ALAMODE: a layered model development environment. Simul Semicond Dev Proc, Erlangen 1995; p. 66-9.
245. Yuri M, et al. MEF system: an object-oriented finite element package. SBMO/IEEE MTT-S Int Microwave Optoel Conf, Rio de Janeiro 1995; p. 501-6.
246. Zeglinski GW, et al. Object oriented matrix classes for use in a finite element code using C++. Int J Numer Meth Eng 1994;37(22):3921-37.
247. Zheng Y, et al. A visualization facility built on object-oriented graphics for finite elements. EDUGRAPHICS’93, Alvor, Portugal; 1993. p. 283-90.
248. Zheng Y, et al. FEView: an interactive visualization tool for finite elements. Finite Elem Anal Des 1995;19(4):261-94.
249. Kodiyalam S, et al. Object-oriented, optimization-based design of satellite structures. J Spacecraft Rockets 1994;31(2):312-8.
250. Malone B, Woyak SA. An object-oriented analysis and optimization control environment for the conceptual design of aircraft. AIAA Paper 95-3862; 1995.
251. Sistla R, et al. A distributed, heterogeneous computing environment for multidisciplinary design and analysis of aerospace vehicles. Adv Eng Software 2000;31(8/9):707-16. PhD Thesis. Georgia Inst of Tech; 2001.
252. Alemdar BN. Distributed plasticity analysis of steel building structural systems. PhD Thesis. Georgia Inst of Tech; 2001.
253. An-Nashif HN, Powell GH. An object-oriented algorithm for automated modeling of frame structures: stiffness modeling. Eng Comput 1991;7(2): 121-8.
254. Biederman JD, Grierson DE. Computer-based design of civil engineering structures using object-oriented programming. Appl AI Eng, Waterloo, Canada 1992; p. 3-19.
255. Biedermann JD, Grierson DE. A generic model for building design. Eng Comput 1995;11(3):173-84.
256. Chowdhury AA. An object-oriented finite element formulation for construction simulation. PhD Thesis. Lehigh Univ; 1994.
257. Diaz J, et al. Time-dependent three-dimensional finite element ground model for geotechnical engineering problems. Comput Civil Build Eng, ASCE 2000;1458-65.
258. Hudli AV, Pidaparti RMV. Analysis of truss structures using distributed object-oriented methods. Comput Mech 1996;18(4):314-20.
259. Meissner U, et al. Object-oriented modelling of three-dimensional hydrogeotechnical systems. Int Conf Comput Meth Water Resour, Cancun, Mexico 1996; p. 708-14.
260. Menezes FA, et al. Tridimensional analysis of buildings using an oriented object environment. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 949.
261. Miki M, Murotsu Y. Object-oriented approach to modeling and analysis of truss structures. 34th SDM Conf, AIAA-93-1406-CP; 1993. p. 922-30.
262. Miki M, Murotsu Y. Object-oriented approach to modeling and analysis of truss structures. AIAA J 1995;33(2):348-54.
263. Miller GR, et al. Framework for interactive computational analysis in geomechanics. Comput Geotech 1995;17(1):17-37.
264. Papp F, et al. Unified object-oriented definition of thin-walled steel beamcolumn cross sections. Comput Struct 2001;79(8):839-52.
265. Zimmermann T, et al. Recent advances in geotechnical engineering software. Cong Adv Comput Meth Geotech Geoenviron Eng, Moscow 2000.
266. Mai W, Henneberger G. Object-oriented design of finite element calculations with respect to coupled problems. IEEE Trans Magnet 2000; 36(4):1677-81.
267. Rihaczek C, Kroplin B. Object oriented design of finite element software for transient, nonlinear coupling problems. Fifth Int Conf Comput Civil Build Eng, Anaheim; 1993. p. 545-52.
268. Van den Boogaard A, et al. Object oriented design of thermo-mechanical FEM code. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 950.
269. Agarwal J, et al. Structural dynamic analysis using the interacting objects process model. Adv Eng Software 1997;28(5):293-301.
270. Anantharaman M. Flexible multibody dynamics—an object oriented approach. Nonlinear Dyn 1996;9(1/2):205-21.
271. Calhoun D, Lewandowski A. Object oriented framework for dynamical systems modeling: implementation in C Plus Plus. IEEE 27th Annu Simul Symp, La Jolla, CA; 1994. p. 70-7.
272. Miller GR, Rucki MD. A program architecture for interactive nonlinear dynamic analysis of structures. Comput Civil Build Eng, Anaheim, ASCE; 1993. p. 529-36.
273. Pauletti RMO, Pimenta PM. Nonlinear dynamic analysis of sliding cable systems. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 291.
274. Pidaparti RMV, Hudli AV. Dynamic analysis of structures using objectoriented techniques. Comput Struct 1993;49(1):149-56.
275. Sauer P, et al. A transputer based forward and inverse dynamics solution for flexible planar manipulators. ISIE’95, Athens, New York: IEEE; 1995. p. 260-5.
276. Wallrapp O. Standardization of flexible body modeling in multibody system codes, Part I—definition of standard input data. Mech Struct Mach 1994; 22(3):283-304.
277. Wallrapp O. Flexible bodies in multibody system codes. Vehicle Syst Dyn 1998;30(3/4):237-56.
278. Wasfy TM, Leamy M. An object-oriented graphical interface for dynamic finite element modeling of belt-drives.ASMEDes Eng Tech Conf, Montreal, ASME; 2002. p. 225-33.
279. Bauer T, et al. Improved object oriented solution of the coupled 3D electromagnetic and structural dynamic problem using brick-shaped elements with regard to furnace. ISEM’99, Pavia, IOS Press; 2000.
280. Dallet JP. Presentation of a magnetic degaussing systems software study for ship. Int Conf Marine Electromagnet, London 1997; p. 1-6.
281. De Gersem H, Hameyer K. Object-oriented implementation of an interactive and automatic field-processing surface. IEEE Trans Magnet 2000;36(4):1653-8.
282. Deshpande AM, Subbarayan G. Decomposition techniques for the efficient analysis of area-array packages. InterPACK’99, Maui, HI; 1999. p. 33-42.
283. Elleaume P, et al. Computing 3D magnetic fields from insertion devices. Particle Accelerator Conf, Vancouver. New York: IEEE; 1997. p. 3509-11.
284. Gomez E, et al. FEM applied to electromagnetism: effective object-oriented software design. INTERMAG, Amsterdam. New York: IEEE; 2002. p. AU09.
285. Kangas J, et al. Maxwell equations and finite element software systems: object-oriented coding needs well defined objects. IEEE Trans Magnet 2000;36(4):1645-8.
286. Kojima K, et al. Object-oriented CAE system for structural design of LSI packages. InterPACK’99, Maui, HI; 1999. p. 1027-32.
287. Krzeminski SK, et al. Numerical analysis of peristaltic MHD flows. IEEE Trans Magnet 2000;36(4):1319-24.
288. Maseeh F, et al. CAD architecture for microelectromechanical systems. IEEE Micro Electro Mech Syst, Napa Valley, CA 1990; p. 44-9.
289. Maseeh F, et al. Application of mechanical technology CAD to microelectronic device design and manufacturing. Ninth Int Electron Manufact Tech Symp, Washington, DC. New York: IEEE; 1990. p. 350-5.
290. Moraru D, Andersen T. Integrated modeling of submillimeter radio telescope. Proc SPIE 2002;4757:169-73.
291. Mrcarica Z, et al. Hierarchical modelling of microsystems in an objectoriented hardware description language. 21st Int Conf Microelectron, MIEL’97. New York: IEEE; 1997. p. 475-8.
292. Nelson EM. Advances in 3D electromagnetic finite element modeling. IEEE Particle Accelerator Conf, Vancouver 1997; p. 1837-40.
293. Rocci PJ. Intelligent multichip module analyser: a modeling approach for designing reliability into multichip modules. Adv Electron Packaging, ASME 1995;10-1:313-6.
294. Rocha LFN, Mesquita RC. An object-oriented data structure for a 3-D electromagnetic field computation program preprocessor. IEEE Trans Magnet 1996;32(3):1449-53.
295. Sheehy M, Grosse IR. An object-oriented blackboard based approach for automated finite element modeling and analysis of multichip modules. Eng Comput 1997;13(4):197-210.
296. Silva EJ, et al. An object-oriented finite element program for electromagnetic field computation. IEEE Trans Magnet 1994;30(5):3618-21.
297. Steffensen L, et al. Modular environment for the design of micromachined silicon devices. Int Conf Solid-State Sens Actuators, Chicago 1997; p. 1023-6.
298. Steffensen L, et al. BICEPS: a modular environment for the design of micromachined silicon devices. Sens Actuators A 2000;79(1):76-81.
299. Ueda HO, et al. An object-oriented design of electromagnetic wave simulator for multi schemes. IEICE Trans Electron 2001;84(7):967-72.
300. Fang Y, et al. Influence of surface residual stress state on crack path evolution in polycrystalline alumina. J Am Ceram Soc 2002;85(7):1783-7.
301. Hancq DA, et al. Development of an object-oriented fatigue tool. Eng Comput 2000;16(2):131-44.
302. Lingen FJ. A parallel finite element package for non-linear problems: application to damage mechanics. In: Topping BHV, editor. Adv Comput Mech High Perform Comput. Edinburgh: Civil-Comp; 1998. p. 181-6.
303. Saigal A, et al. Effect of interface properties on microcracking of iron titanate. Scripta Mater 1998;38(9):1449-53.
304. Ulbin M, et al. Object oriented programming of contact problems using the finite element method. In: Owen DRJ, editor. Fourth Int Conf Comput Plast. Pineridge Press; 1995. p. 809-16.
305. Bailey NP. Materials simulations at the atom-continuum interface: dislocation mobility and notched fracture initiation. PhD Thesis. Cornell Univ; 2003.
306. Chawla N, et al. Microstructure-based simulation of thermomechanical behavior of composite materials by object-oriented finite element analysis. Mater Character 2002;49(5):395-407.
307. Foerch R, et al. Polymorphic constitutive equations in finite element codes. Comput Meth Appl Mech Eng 1997;141(3/4):355-72.
308. Ghafouri-Azar R. A computational model for predicting the microstructure of thermal spray coatings. PhD Thesis. Univ of Toronto, Canada; 2003.
309. Hale RD, Schueler K. Object-oriented design and analysis tools for fiber placed and fiber steered structures. Int SAMPE Symp Exhib 2002;47 2: 1827-41.
310. Holm EJ, Langtangen HP. A unified finite element model for the injection molding process. Comput Meth Appl Mech Eng 1999;178(3/4): 413-29.
311. Hsueh CH, et al. Effects of interface roughness on residual stresses in thermal barrier coatings. J Am Ceram Soc 1999;82(4):1073-5.
312. Hsueh CH, et al. Surface-roughness induced residual stresses in thermal barrier coatings: computer simulations. Mater Sci Forum 1999;308-311: 442-9.
313. Jeremic B, et al. Object-oriented approach to hyperelasticity. Eng Comput 1999;15(1):2-11.
314. Johansson H, et al. A system for information management in simulation of manufacturing processes. Third Int Conf Eng Comput Tech, Prague. Edinburgh: Civil-Comp; 2002. p. 131-2.
315. Masters I, et al. Finite element analysis of solidification using objectoriented and parallel techniques. Int J Numer Meth Eng 1997;40(15): 2891-909.
316. Robertson T, et al. Knowledge-based engineering method to integrate metal forming process design and simulation. ASME Database Symp, Minneapolis 1994; p. 41-50.
317. Saigal A, et al. Modeling of residual stresses and mechanical behavior of glass-infiltrated spinel ceramic composites. Conf Comput Model Mater Miner Metals Proc, San Diego 2001; p. 643-51.
318. Sampath R, Zabaras N. An object oriented implementation of a front tracking finite element method for directional solidification processes. Int J Numer Meth Eng 1999;44(9):1227-65.
319. Schueler K, Hale R. Object-oriented implementation of an integrated design and analysis tool for fiber placed structures. 43rd Struct Struct Dyn Mater Conf, AIAA; 2002. p. 173-83.
320. Sczygiol N. Object-oriented analysis of the numerical modelling of castings solidification. Comput Assist Mech Eng Sci 2001;8(1):79-98.
321. Shi X, et al. Novel approach to extract knowledge from simulation results. Int J Adv Manufact Technol 2002;20(5):390-6.
322. Tauzowski P, Kleiber M. Parameter sensitivity formulation for viscoelastic structures. Comput Assist Mech Eng Sci 1999;6(2):189-203.
323. Tauzowski P, Kleiber M. Sensitivity analysis for viscoelastic bodies in object-oriented finite element environment. Comput Assist Mech Eng Sci 2003;10(2):223-38.
324. Vedula VR, et al. Residual-stress predictions in polycrystalline alumina. J Am Ceram Soc 2001;84(12):2947-54.
325. Walterthum L, Gelin JC. Design of an object oriented software for the computer aided simulation of complex forming processes. In: Shen SF, Dawson P, editors. NUMIFORM 95. Rotterdam: Balkema; 1995. p. 507-12.
326. Wulkow M, et al. PARSIVAL—a tool for the simulation of crystallization processes. Chem Technol 1999;51(5):249-52.
327. Wulkow M, et al. Modeling and simulation of crystallization processes using PARSIVAL. Chem Eng Sci 2001;56(7):2575.
328. Yanovsky YG, Obraztsov IF. Computational modeling of structure and mechanical properties of polymer composites. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 597.
329. Zabaras N, Srikanth A. Using objects to model finite deformation plasticity. Eng Comput 1999;15(1):37-60.
330. Zabaras N, Srikanth A. An object-oriented programming approach to the Lagrangian FEM analysis of large inelastic deformations and metal-forming processes. Int J Numer Meth Eng 1999;45(4):399-445.
331. Grandhee AA, Moczadlo RA. Turbo machinery design through symbolic processing. In: Kim JH, Yang WJ, editors. Dyn Rotat Mach. New York: Hemisphere; 1990. p. 393-408.
332. Kumar MS, Prabhu BS. Object oriented programming and expert systems in rotating machinery.ASMEAsia Cong Exhib 1997. Singapore: ASME;1997. p. AA-125.
333. Obry P, et al. Advanced steam generator design 3D code. Winter Annu Meet, ASME 1990;NE 5:15-21.
334. Remondini L, et al. Generic data structures dedicated to integrated structural design. Finite Elem Anal Des 1996;22(4):281-303.
335. Remondini L, et al. High-level operations dedicated to the integration of mechanical analysis within a design process. Eng Comput 1998;14(1): 81-92.
336. Balopoulos V, Abel JF. Use of shallow class hierarchies to facilitate objectoriented nonlinear structural simulations. Finite Elem Anal Des 2002; 38(11):1047-74.
337. Commend S, Zimmerman T. Object-oriented nonlinear finite element programming: a primer. Dev Eng Comput Tech, Edinburgh: Civil-Comp; 2000. p. 167-72.
338. Commend S, Zimmermann T. Object-oriented nonlinear finite element programming: a primer. Adv Eng Software 2001;32(8):611-28.
339. Dubois-Pelerin Y, Pegon P. Object-oriented programming in nonlinear finite element analysis. Comput Struct 1998;67(4):225-41.
340. Eyheramendy D, Zimmermann T. Object-oriented finite elements. IV. Symbolic derivations and automatic programming of nonlinear formulations. Comput Meth Appl Mech Eng 2001;190(22):2729-51.
341. Konke C, et al. Nonlinear simulation of reinforced concrete embedded in a flexible object-oriented finite element software system. Fifth Int Conf Comput Struct Tech. Edinburgh: Civil-Comp; 2000. p. 23-7.
342. Lages EN, et al. Nonlinear finite element analysis using an object-oriented philosophy-application to beam elements and to the Cosserat continuum. Eng Comput 1999;15(1):73-89.
343. Mackie RI. Object-oriented methods and non-linear finite element analysis: advantages and difficulties. Third Int Conf Eng Comput Tech, Prague. Edinburgh: Civil-Comp; 2002. p. 21-2.
344. Maeda S, et al. Object-oriented non-linear finite element analysis. Third World Cong Comput Mech, Chiba, Japan; 1994. p. M4-3.
345. Maeda S, et al. Nonlinear finite element analysis using object-oriented approach. In: Atluri S, et al., editors. Comput Mech’95. Berlin: Springer; 1995. p. 33-8.
346. Menetrey P, Zimmermann T. Object-oriented non-linear finite element analysis: application to J2 plasticity. Comput Struct 1993;49(5):767-77.
347. Parente E, et al. Shape sensitivity for elastic and elastoplastic response of axisymmetric models. In: Owen DRJ, editor. Fifth Int Conf Comput Plast. CIMNE; 1997. p. 830-5.
348. Parente E, Vaz LE. On evaluation of shape sensitivities of non-linear critical loads. Int J Numer Meth Eng 2003;56(6):809-46.
349. Rezaiee-Pajand M, Nazem MR. Elasto-plastic analysis of three-dimensional structures. Eng Comput 2003;20(3/4):274-95.
350. Rodriguez-Ferran, Huerta A. ALE quasistatic analysis in an object-oriented code. In: Owen DRJ, editor. Fourth Int Conf Comput Plast. Pineridge Press; 1995. p. 2349-60.
351. Bhaskaran R, Berkooz G. Optimization of fluid-structure interaction using the sensitivity equation. ASME Int Mech Eng Cong Expo 1997;AD 53-1: 49-56.
352. Krishnamoorthy CS, et al. Object-oriented framework for genetic algorithms with application to space truss optimization. J Comput Civil Eng 2002;16(1):66-75.
353. Le Riche R, et al. An object-oriented simulation-optimization interface. Comput Struct 2003;81(17):1689-701.
354. Miki M. Object-oriented optimization of discrete structures. AIAA J 1995; 33(10):1940-5.
355. Popella H, Henneberger G. Object-oriented genetic algorithms for twodimensional design optimization of the magnetic circuit of a mobile magnetic resonance device. Int J Appl Electromag Mech 2001;15(1/4): 219-23.
356. Schafer M, Hartmann D. Internet enabled structural optimization-new dimensions to CAE. Comput Civil Build Eng, Stanford, CA, ASCE 2000; 1339-46.
357. Silva CAC, Bittencourt ML. An object-oriented structural optimization program. Struct Multidisc Optim 2000;20(2):154-66.
358. Tabatabai SMR. Object-oriented finite element-based design and progressive steel weight minimization. Finite Elem Anal Des 2002;39(1):55-76.
359. Tiller MM, Dantzig JA. Implementation of design sensitivity analysis and numerical optimization in engineering analysis. Appl Math Model 1996; 20(11):792-9.
360. Todoroki A, et al. Application of generic algorithms to stiffness optimization of laminated composite plates with stress concentrated open holes. Trans Jpn Soc Mech Eng, Ser A 1994;60(573):1266-71.
361. Todoroki A, et al. Stiffness optimization of composite laminated structures by object-oriented finite element analysis method. Trans Jpn Soc Mech Eng, Ser A 1994;60(571):860-6.
362. Todoroki A, et al. Application of genetic algorithms to stiffness optimization of laminated composite plates with stress-concentrated open holes. JSME Int J, Ser A 1995;38(4):458-64.
363. Todoroki A, et al. Object-oriented approach to optimize composite laminated plate stiffness with discrete ply angles. J Compos Mater 1996; 30(9):1020-41.
364. Wang S, Kang J. Shape optimization of BLDC motor using 3-D finite element method. IEEE Trans Magnet 2000;36(4):1119-23.
365. Wang S, Kang J. Topology optimization of nonlinear magnetostatics. IEEE Trans Magnet 2002;38(2):1029-32.
366. Wang S, et al. Continuum shape design sensitivity analysis of magnetostatic field using finite element method. IEEE Trans Magnet 1999;35(3): 1159-62.
367. Wang S, et al. Topology optimization of electromagnetic systems with eddy current using FEM. Electromag Fields Electr Eng, Cracow, Poland 2002; p. 148-52.
368. Desitter A, et al. Development of one, two and three dimensional finite element groundwater models within a generalized object-oriented framework. Hydrol Process 2000;14(13):2245-59.
369. Feruson JC, Iliffe JE. Object-oriented finite element analysis and its application in basin modelling software. Proc Petrol Comput Conf 1993; 107-14.
370. Fingberg J, et al. Head-mechanical simulations with SimBio. NEC Res Dev 2002;43(4):246-50.
371. Hoffman J. Computational modeling of complex flows. PhD Thesis. Chalmers Tek Hogskola, Gothenburg, Sweden; 2002; p. 277-81.
372. Kulkarni S, et al. Design of an object-oriented finite element framework for multi-physics problems. Fifth US Natl Cong Comput Mech, Boulder; 1999. p. 235.
373. Lammer L, et al. Object-oriented integration of construction and simulation models. Comput Struct 2001;79(22):2143-9.
374. Mari J, Chemaly A. Structural design, analysis, optimization, and cost modeling using the adaptive modeling language. 43rd Struct Struct Dyn Mater Conf, AIAA; 2002. p. 755-62.
375. Mochizuki Y, et al. Automated system for structural design using design window search approach: its application to fusion first wall design. Adv Eng Software 1997;28(2):103-13.
376. Mull SR, et al. PC windows finite element modeling of landfill gas flow. Natl Waste Process Conf, Atlantic City 1996;277-81.
377. Noor AK, Wasfy TM. Simulation of physical experiments in immersive virtual environments. Eng Comput 2001;18(3/4):515-38.
378. Ohsumi TK. Efficient methods for solving biomechanical equations. PhD Thesis. Rensselaer Polytech Inst; 2003.
379. Okstad KM, Kvamsdal T. Object-oriented programming in field recovery and error estimation. Eng Comput 1999;15(1):90-104.
380. Olsson A. An object-oriented implementation of structural path-following. Comput Meth Appl Mech Eng 1998;161(1/2):19-47.
381. Ouzar D. Finite element object oriented approach for fluid transient analysis. Fourth Int Conf Hydraul Eng Software, Valencia, Spain; 1992. p. 539-48.
382. Pepper DW, Marion JA. Object oriented relational database for assessing radioactive material transport. Fourth Annu Int Conf High Level Radiat Waste. Las Vegas: ASCE; 1993. p. 1187-93.
383. Peskin AP, Hardin GR. Object oriented approach to general purpose fluid dynamics software. Comput Chem Eng 1996;20(8):1043-58.
384. Poeschl W. B-spline finite elements and their efficiency in solving relativistic mean field equations. Comput Phys Commun 1998;112(1): 42-66.
385. Sahu R, et al. An object-oriented framework for multidisciplinary, multi-physics, computational mechanics. Eng Comput 1999;15(1): 105-25.
386. Sampath R, Zabaras N. Adjoint methods for the inverse design of complex natural convection systems. Fifth US Natl Cong Comput Mech, Boulder; 1999. p. 17.
387. Sampath R, Zabaras N. An object-oriented framework for the implementation of adjoint techniques in the design and control of complex continuum systems. Int J Numer Meth Eng 2000;48(2):239-66.
388. Sun SH, Marrero TR. Object-oriented programming approach for heat and mass transfer related finite element analyses. Comput Chem Eng 1998; 22(10):1381-5.
389. Szalai J, Papp F. Object-oriented definition of compressed battened member for an automatic CAD procedure. Fifth Int Conf Comput Struct Tech. Edinburgh: Civil-Comp; 2000. p. 13-8.
390. Wasfy TM, Noor AK. Object-oriented virtual environment for visualization of flexible multibody systems. Adv Eng Software 2001;32(4): 295-315.
391. Chiu TW. Object oriented programming and applications of boundary element method in ground vehicle aerodynamics. Comput Assist Mech Eng Sci 2000;7(2):185-93.
392. Driesens T, et al. Generalised approach of boundary element and finite element methods using object orientation. BEM XVIII, Braga. Southampton: CMP; 1996. p. 173-83.
393. Favela J, Connor JJ. Boundary element analysis. An object-oriented approach. Second Int Conf Comput Meth Water Res. Southampton: CMP; 1991. p. 103-17.
394. Frauenfelder P, Lage C. Concepts-an object-oriented software package for partial differential equations. Math Model Numer Anal 2002;36(5):937-51.
395. Friedrich J. The advantages of object-oriented modelling for BEM coding demonstrated for 2D Laplace, Poisson, and diffusion problems using dual reciprocity method. In: Aliabadi MH, editor. Boundary Elem Tech X. Southampton: CMP; 1995. p. 229-36.
396. Friedrich J. Object-oriented computer simulations of physical systems using dual reciprocity boundary element methodology. Turkish J Electr Eng Comput Sci 1998;6(1):11-21.
397. Friedrich J. Object-oriented design and implementation of CFDLab: a computer-assisted learning tool for fluid dynamics using dual reciprocity BE methodology. Comput Geosci 1999;25(7):785-800.
398. Haussler-Combe U. Coupling boundary-elements and finite-elements-a structured approach. Comput Meth Appl Mech Eng 1996;134(1/2):117-34.
399. Jones IA, et al. Efficient object-oriented implementation of boundary element software. In: Topping BHV, editor. Eighth Int Conf Civil Struct Eng Comput. Stirling: Civil-Comp Press; 2001. p. 35-7.
400. Lage C. Object-oriented design aspects for BEM. In: Hackbusch W, editor. BEs, 12th GAMM-Sem, Kiel. 1996.
401. Lage C. The application of object-oriented methods to boundary elements. Comput Meth Appl Mech Eng 1998;157(3/4):205-13.
402. Lee KH, Tan KW. Object-oriented modelling, analysis and concurrency in the boundary element method. In: Brebbia CA, Rencis J, editors. Boundary elements XV. Southampton: CMP; 1993. p. 595-609.
403. Lee KH, Tan KW. An object-oriented modelling environment for the boundary element method. In: Tanaka M, et al., editors. Boundary elements 12. Southampton: CMP; 1990. p. 449-61.
404. Liu JL, et al. Outline of adaptive computation: theory, implementation and applications. J Chin Soc Mech Eng C 1998;19(2):149-57.
405. Nelissen G, et al. Object oriented development of finite and boundary element methods. First Int Conf Eng Comput Comput Simul, Changsha; 1995. p. 425-32.
406. Noronha M, et al. On a robust implementation of conventional and hybrid boundary element methods using object-oriented programming. Fourth World Cong Comput Mech, Buenos Aires; 1998. p. 114.
407. Pagliosa PA, Paiva JB. Object oriented boundary element programming: a first approach. Third Int Conf Eng Comput Tech, Prague. Edinburgh: Civil-Comp; 2002. p. 25-6.
408. Salgado NK, Aliabadi MH. An integrated system for damage tolerance design of aircraft panels. In: Ertekin RC, et al., editors. Bound Elem Tech XI. Southampton: CMP; 1996. p. 151-60.
409. Salgado NK, Aliabadi MH. An object oriented system for damage tolerance design of stiffened panels. Eng Anal Bound Elem 1999;23(1):21-34.
410. Salgado NK, et al. Rule inferencing and object-orientation for boundary elements mesh design. AI Eng 1997;11(2):183-90.
411. Stringfellow ND, et al. A structure for scalar and vector boundary element codes using Fortran 90. Adv Eng Software 1999;30(5):313-25.
412. Trevelyan J, Wang P. Interactive re-analysis in mechanical design evolution. Part I. Background and implementation. Comput Struct 2001; 79(9):929-38.
413. Wang W, et al. Object-oriented programming in boundary element methods using C++. Adv Eng Software 1999;30(2):127-32.
414. Yuuki R, et al. Development of expert system for BEM analysis, 1-BEM modelling by using object-oriented representation of knowledge. Trans Japan Soc Mech Eng, Ser A 1991;57(533):195-201.