PDF - JuSER - Forschungszentrum Jülich

Literaturverzeichnis
[2.3.9] W. Hermann, J. Lacaze, D. Oquab: Effect of the Different Heat Treatment on
Microstructure and Segregation of a Nickel Based Alloy; Advanced engineering
materials; 2003; pp. 32-37.
[2.3.10] J. Rösler, M. Götting, D. Del Genovese, B. Böttger, R. Kopp, M. Wolske, F.
Schubert, H. J. Penkalla, T. Seliga, A. Thoma, A. Scholz, C. Berger: Wrought
Ni-Base Superalloys for Steam Turbine Applications beyond 700°C; Advanced
engineering materials vol. 7; 2003, pp. 469-483.
[2.3.11] J. Wosik, H. J. Penkalla, K. Szot, B. Duebiel, F. Schubert, A. Czyrska-
Filemonowicz: The Influence of Various Microscopic Techniques on the
Quantification of Stereological Structure Parameters in Waspaloy Alloy; Prakt.
Metallogr. vol. 39; 2002; pp. 140-154.
[2.4.1] S. Zhao, X. Xie, G. D. Smith, S. J. Patel: Microstructural stability and mechanical
properties of a new nickel-based superalloy; Materials Science and Engineering A,
Vol. 355; 2003; pp. 96-105.
[2.4.2] N. N. Stepanova, V. A. Sazonova, D. P. Rodionov: Influence of solidification
conditions on γ'-phase thermal stability in single crystals of Ni-based
superalloys; Scripta Materialia Vol. 40; 1999; pp. 581-585.
[2.4.3] Y. F. Han, S. H. Li, M. C. Chaturvedi: Microstructural stability of the
directionally solidified γ'-base Superalloy IC6; Materials Science and Engineering A
Vol. 160; 1993; pp. 271-279.
[2.4.4] O. Matsumoto, T. Honjo, Y. Yasumoto, T. Morijama, T. Tsuchiyama: Grain
Boundary Precipitates and Mechanical Properties of Alloy 706; Superalloys 718,
625, 706 and various Derivatives, Edited by E. A. Loria; 1994; pp. 389-399.
[2.4.5] F. Schubert: Möglichkeiten zur Vorhersage unerwünschter Phasen in Technischen
hochwarmfesten Nickellegierungen durch die Mittlere Elektronenleerstellenzahl;
Archiv für Eisenhüttenwesen 42; 1971; pp. 501-507.
[2.4.6] L. R. Liu, T. Jin, N. R. Zhao, Z. H. Wang, X. F. Sun, H. R. Guan, Z. Q. Hu:
Microstructural Evolution of a Single Crystal Nickel-Base-Superalloys During
Thermal Exposure; Materials letters vol. 53; 2003; pp. 4540-4546.
[2.4.7] J. Z. Zhu, T. Wang, A. J. Ardell S. H. Zhou, Z. K. Liu, L. Q. Chen: Threedimensional
phase-field simulation of coarsening kinetics of γ’ particles in binary
Ni-Al alloys; Acta materialia vol. 52; 2004; pp. 2837-2845.
[2.4.8] I. M. Lifshitz, V. V. Slyozov: The Kinetics of Precipitation from Supersaturated
Solid Solutions; J. Phys. Chem. Solids vol. 19; 1961; pp. 35-50.
[2.4.9] C. Wagner: Theorie der Alterung von Niederschlägen durch Umlösen, Z.
Elektrochemie 65; 1961; pp. 581-591.
[2.4.10] R. D. Vergrenovich, Y. V. Gudyma, S. V. Yarema: Ostwald Ripening under
Dislocation Diffusion; Scripta materialia vol. 46; 2002; pp. 363-367.
[2.4.11] http://www.physik.uni-augsburg.de/ (Ostwaldreifung, Lifshitz-Slyozov-Wagner
(LSW)-Theorie).
[2.4.12] T. Michaelis, T. Link: Quantitative Analyse zur Vergröberungskinetik der
Nickellegierung IN 939; 23. Vortragsveranstaltung in Düsseldorf;
Langzeitverhalten warmfester Stähle und Hochtemperaturwerkstoffe; 2000;
pp. 69-75.
[2.4.13] Y. H. Han, P. Deb, M. C. Chaturvedi: Coarsening behaviour of γ’’ and γ’ particles
in Inconel alloy 718; Metal Science vol. 16; 1982; pp. 555-561.
[2.4.14] C. P. Sullivan, M. J. Donachie: Iron-Base and Iron-Containing Superalloys; Source
Book on Materials for Elevated-Temperature Application; American society of
metals- Engineering bookshelf; 1979; pp. 239-250.
98