214 Prakt. Met. Sonderband 38 (2006) 
[3] B. Schaffernak: Charakterisierung von 9-12% Cr Stéhlen Mittels Thermodynamischer Er 
Modellrechnungen, PhD thesis, Graz University of Technology, 2000 G 
[4] L. Korcakova, J. Hald, M. A. J. Somers: Quantification of Laves phase particle size in € 
9CrW steels, Materials Characterisation, 47, 2001, pp. 111-117. Fs 
[5] F. Hofer, P. Warbichler: Improved imaging of secondary phases in solids by energy- ; 
filtering TEM, Ultramicroscopy, 63 (1), 1996, pp. 21-25. * 
[6] M. Hättestrand, H.-O. Andren: Influence of strain on precipitation reactions during : 
creep of an advanced 9% chromium steel, Acta Mater., 49, 2001, pp. 2123-2128. 
[7] A. Gustafson, M. Héattestrand: Coarsening of precipitates in an advanced creep 
resistant 9% chromium steel-quantitative microscopy and simulations, Materials Ku 
Science and Technology, 333 (1-2), 2002, pp. 279-286. 
[8] G. Dimmler, P. Weinert, E. Kozeschnik, H. Cerjak: Quantification of the Laves phase Alu 
in advanced 9-12% Cr steels using a standard SEM, Materials Characterisation, 51, Anr 
2003, pp. 341-352. Rol 
[9] J. Rajek, E. Kozeschnik, H. Cerjak: Simulation of precipitation in a complex 9-12% Cr wil 
steel for modern steam power plants, Proc. Mat. Sci. Tech. 2003, USA 2003 risie 
[10] J. Rajek, E. Kozeschnik and H. Cerjak: Computer simulation of precipitation in a 
complex 9-12% Cr-steel during fabrication heat treatment, Proc. “EPRI 4th Int. Conf. 
Adv. in Mat. Tech. for Fossil Power Plants”, Hilton Head Island, USA, 2004 1 
[11] R. Hanus: COST Report VOEST Alpine GieRerei Linz GmbH, COST 522, 2000 " 
[12] B. Sonderegger: Charakterisierung der Substruktur in modernen Die 
Kraftwerkswerkstoffen mittels der EBSD Methode, PhD thesis, Graz University of digh 
Technology, 2005 bilir 
[13] S. W. Plimon: Simulation einer großtechnischen Wärmebehandlung und begleitende Rot 
mikrostrukturelle Untersuchung an einem modernen 9-12% Cr Stahl, Diploma thesis, Ein 
Graz University of Technology, 2004 d 
[14] B. Schaffer, W. Grogger, G. Kothleitner: Automated spatial drift correction for EFTEM Sr 
image series, Ultramiscroscopy 101, 2004, pp. 123-128 her 
[15] B. Sonderegger: Modifications of Stereological correction methods for precipitate Gef 
parameters using transmission microscopy, Ultramicrosopy, in print her 
[16] F. Hofer et al., J. Microscopy, 204 (2), 2001, pp.166. in h 
[17] K. Kimura et al.: Precipitation of Z-phase and degradation behaviour of mod. 9Cr- wer 
1Mo steel, Proc. Mat. for advanced power engineering, Liege, 2002, pp. 1171-1180. Ber 
[18] A. Strang, V. Vodarek: Microstructural stability of high chromium ferritic power plant Aus 
steels, Proc. Microstructural development and Stability in high Chromium ferritic Aus 
power plant steels, Cambridge, 1995, pp. 31-51. Da 
[19] |. Papst, P. Warbichler, F. Hofer, B. Schaffernak, E. Letofsky: Identifizierung der bilis 
modifizierten Z-Phase mittels konvergenter Elektronenbeugung, mer 
Metallographietagung Dortmund, Germany, 6.-10. September 1999 run 
[20] V. Vodarek, A. Strang: Z Phase characteristics in martensitic 12CrMoVNb steels, keit 
Materials for advanced power engineering, Liege, 2002, pp. 1223-1231. ziur 
[21] K. H. Mayer: Vergleichende Bewertung des Einflusses der Mikrostruktur auf die Sch 
Kriechfestigkeit der borlegierten COST-Stähle mit erhöhtem Cr- und Co-Gehalt, rigle 
Internal COST Report, 14.9.2004 Bei 
[22] H. Danielsen, J. Hald: Z-phase in 9-12% Cr steels”, ISSN 0282-3772, Värmeforsk klus 
Service AB, Stockholm, 2004 Gli 
[23] J. Rajek: Computer simulation of precipitation kinetics in solid metals and application der 
to the complex power plant steel CB8, PhD thesis, Graz University of Technology, je 
2005 
vers 
nit