Modelling has now become a routine part of materials science. It is appropriate therefore to assess some of the successes and failures of the method and to understand how and if modelling differs from ordinary quantitative science. The subject is now sufficiently mature to bear some constructive self-criticism and to temper exaggerated claims. The discussion here of modelling methods and outcomes is intended to be generic, although the examples used come from the author's experience of work on metals.
AndersonP. W.: ‘Local moments and localized states’, Nobel lecture, Bell Telephone Laboratories, Princeton University, Princeton, NJ, December1977.
2.
MurugananthM., BhadeshiaH. K. D. H., KeehanE., AndrénH. O. and KarlssonL.: in ‘Mathematical modelling of weld phenomena 6’, (ed. CerjakH. and BhadeshiaH. K. D. H.), 205-230; 2002, London, The Institute of Materials.
3.
KeehanE., And KarlssonL., MurugananthM. and BhadeshiaH. K. D. H.: in ‘Trends in welding research’, (ed. DavidS. A. and DebRoyT.), 695-700; 2002, Materials Park, OH, ASM.
4.
KeehanE., L. Karlsson and H.-0. Andrén: Sci Technol. Weld. Join., 2006, 11, 1–8.
5.
KeehanE., KarlssonL., AndrénH.-O. and BhadeshiaH. K. D. H.: Sci Technol. Weld Join., 2006, 11, 9–18.
6.
KeehanE., KarlssonL., H.-0. Andrén and H. K. D. H. Bhadeshia: Sci Technol. Weld Join., 2006, 11, 19–24.
7.
BhadeshiaH. K. D. H. and HoneycombeR. W. K.: ‘Steels: microstructure and properties’, 3rd edn; 2006, London, Butterworth-Heinemann.
8.
MillerM. K.: Int. Mater. Rev., 1987, 32, 221–240.
9.
SmithG. D. W.: in ‘Phase transformations ‘87’, (ed.LorimerG. W.), 365-373; 1988, London, Institute of Materials.
10.
HumphreysF. J.: Scr. Mater., 2004, 51, 771–776.
11.
BroughI., BateP. S. and HumphreysF. J.: Mater. Sci Technol, 2006, 22, 1279–1286.
LauridsenE. M., SchmidtS., SuterR. M. and PoulsenH. F.: J. Appl Crystallogr., 2001, 34, 744–750.
14.
PoulsenH. F., BowenJ. R. and GundlachC.: Scr. Mater., 2004, 51, 783–788.
15.
ChouT. S., BhadeshiaH. K. D. H., McColvinG. and ElliottI.: in ‘Structural applications of mechanical alloying’, (ed. J. J. de Barbadillo et al), 77-82; 1993, Materials Park, OH, ASM International.
16.
DebRoyT. and DavidS. A.: Rev. Mod Phys., 1995, 67, 85–112.
17.
CottrellA. H.: in ‘Electron theory in alloy design’, (ed.PettiforD. G. and CottrellA. H.), Chapter 1; 1992, London, Institute of Materials.
MeyerB. and GutteH.: Steel Res., 2001, 72, 361–385.
20.
KaufmanL., CloughertyE. V. and WeissR. J.: Acta Metall, 1963, 11, 323–335.
21.
KaufmanL. and NesorH.: Zietschrift fur Metallkunde, 1973, 64, 249–257.
22.
HillertM. and StaffanssonL. I.: Acta Chim. Scand, 1970, 24, 3616–3626.
23.
HillertM.: in ‘Hardenability concepts with applications to steels’, (ed.DoaneD. V. and KrikaldyJ. S.), 5-27; 1977, Warrendale, PA, The Metallurgical Society of AIME.
24.
KubachewskiO. and EvansE. L.: ‘Metallurgical thermochemistry’; 1958, Oxford, Pergamon Press.
25.
PeltonA. D., ThompsonW. T., BaleC. W. and ErikssonN. G.: in ‘Advances in phase transitions’, (ed.EmburyJ. D. and PurdyG. R.), 52-67; 1988, Oxford, Pergamon Press.
BhadeshiaH. K. D. H.: in ‘Introduction to materials modelling’, (ed.BarberZ.), 45–72; 2006, London, Maney.
28.
HackK. (ed.): ‘The SGTE casebook: thermodynamics at work’; 1996, London, The Institute of Materials.
29.
StrangA. and VodarekV.: Mater. Sci. Technol, 1996, 12, 552–556.
30.
DanielsenH. K. and HaldJ.: in ‘Advances in materials technology for fossil power plants’, (ed. ViswanathanD. G. R. and ColemanK.), 999–1012; 2005, Materials Park, OH, ASM International; Energ. Mater., 2006, 1, 49–57.
31.
BhadeshiaH. K. D. H.: Mater. Sci. Technol., 1989, 5, 131–137.
ChatterjeeS., MurugananthM. and BhadeshiaH. K. D. H.: Mater. Sci Technol., 2007, 23, (7), 819–827.
77.
SahaA. and OlsonG. B.: J. Comput. Aided Mater. Des., 2007, 14, 177–200.
78.
SahaA., JungJ. and OlsonG. B.: J. Comput. Aided Mater. Des., 2007, 14, 201–233.
79.
BhadeshiaH. K. D. H.: Mater. Sci. Technol, 2005, 21, 1293–1302.
80.
IrvineK. J. and PickeringF. B.: in ‘Physical properties of martensite and bainite, special report 93’, 110-125; 1965, London, Iron and Steel Institute.
81.
HawkinsM. J. and BarfordJ.: J. Iron Steel Inst., 1972, 210, 97–105.
82.
SinghS. B. and BhadeshiaH. K. D. H.: Mater. Sci Eng. A, 1998, A245, 72–79.
83.
FujitaT.: Adv. Mater. Process., 1992, 4, 42–47.
84.
MetcalfeE., BakkerW. T., BlumR., BygateR. P., GibbonsT. B., HaldJ., MasuyamaF., NaoiH., PriceS. and SawaragiY.: in ‘New materials and plant designs and their practical implications for future CCGT and conventional power stations’, (ed.MetcalfeE.), 189-199; 1997, London, Mechanical Engineering Publishers.
85.
CerjakH., HoferP. and SchaffernakB.: ISIJ Int., 1999, 39, 874–888.
86.
BhadeshiaH. K. D. H.: ISIJ Int., 2001, 41, 621–640.
87.
BlumH. J. R. and HaldJ.: in ‘Advanced steam plant’, 3-18; 1997, London, Institution of Mechanical Engineers.
88.
MasuyamaF., KomaiN., YokoyamaT., YamamotoS., MiyataK. and IgarashiM.: JSME Int. J., 1998, 41, 1098–1104.
89.
DucastelleF.: in ‘Electron theory in alloy design’, (ed.PettiforD. G. and CottrellA. H.), 122-157; 1992, London, Institute of Materials.
90.
ThomasW. M. and DolbyR. E.: Proc. 6th Int. Trends in Welding Research Conf., (ed.DavidS. A..), 203-211; 2003, Materials Park, OH, USA, ASM International.
91.
YinY. F. and FaulknerR. G.: Proc. 6th Int. Charles Parsons Turbine Conf., (ed.StrangA..), 457-471; 2003, London, Institute of Materials.
92.
YamasakiS. and BhadeshiaH. K. D. H.: Mater. Sei. Technol., 2003, 19, 723–731.
93.
RobsonJ. D. and BhadeshiaH. K. D. H.: Mater. Sei. Technot, 1997, 13, 631–639.
94.
RobsonJ. D. and BhadeshiaH. K. D. H.: Mater. Sei. Technot A, 1997, 28A, 640–644.