Abstract
High Temperature Materials are defined as those materials, of which the operation temperature is permanently at or above 700 °C (after Dienst14). Typical fields of application are e.g. automotive engines, high temperature reactors, apparatus of chemical industry plants, and gas turbines for aircraft engines and power plants (stationary gas turbines), as well. In the present paper, the application of High Temperature Materials for blades of stationary gas turbines is used to demonstrate to which extent microanalytical investigations — mainly the combination of several methods — can influence the selection and qualification of materials themselves and the characterization of protective coating systems; a prospect for the near future is also given.
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References
P. Brezina, E. E.Dös,Th. Geiger, L. Habel, M. Lorenz, and W. Wintsch, Prakt. Metallographie 10/6,342 and 10 /7, 377 (1973).
D. Coutsouradis, H. Fischmeister, P. Felix, L. Habraken, Y. Lindblom, and M. O. Speidel, High Temperature Alloys for Gas Turbines. London: Applied Science Publishers 1978.
W. Hoffeiner, E. Kny, R. Stickler, and W. J. McCall, Z. Werkstofftechnik 10, 84 (1979).
V. Thien, F. Schmitz, W. Slotty, and W. Voss, Fresenius’ Z. Anal. Chem. 319, 646 (1984).
K. H. Kloos, K. Stein, and B. Kaiser, Metall 38/8 and 38 /12, 1161 (1984).
V. Thien, R. Wolters, and W. Voss, Scanning Electron Microscopy (1985), to be published.
R. Stickler, in: High Temperature Materials in Gas Turbines ( P. R. Sahm and M. O. Speidel, eds.). Amsterdam-London-New York: Elsevier 1974.
V. Thien, U. Schieferstein, and W. Voss, Mikrochim. Acta [Wien], Suppl. 7, 389 (1977).
V. Thien, F. Schmitz, W. Slotty, and W. Voss, Scanning Electron Microscopy, Chicago, 1984/IV, p. 169.
F. Schmitz, W. Slotty, and V. Thien, Metall 38 /3, 204 (1984).
V. Thien, W. Voss, and F. Schmitz, Z. Werkstofftechnik 13, 338 (1982).
V. Thien, W. Voss, and F. Schmitz, 10. Sitzung AK Rastermikroskopie des DVM, Proceedings 1981, p. 257.
H. G. Sockel and H. J. Grabke, in: Aufbau von Oxidschichten auf Hochtemperaturwerkstoffen und ihre technische Bedeutung (A. Rahmel,ed.). DGM 1983, p. 341.
W. Dienst, Hochtemperaturwerkstoffe, Werkstofftechnik, Verlagsgesellschaft Karlsruhe 1984.
B. Becker, Motortechn. Z. 40, 247 (1979).
P. Felix, BBC-Mitt. 64, 40 (1977).
H. Maghon, VGB-Kraftwerkstechnik 53, 651 (1973).
O. Schmoch, Brennstoff-Wärme-Kraft 29, 161 (1977).
O. Schmoch, Brennstoff-Wärme-Kraft 30, 184 (1978).
M. R. Jackson and J. R. Rairden, NBS-STP 492, Washington 1977, p. 423.
K. H. G. Schmitt-Thomas, in: Tagungshandbuch Korrosion und Korrosionsschutz ( A. Rahmel and D. Behrends, eds.). Frankfurt: Bischoff 1977, pp. 143–144.
F. Schmitz, Final Report COST 50 Program, Project D/1 (1976).
P. Adam, G. Johner, and V. Wilms, Metall 37 /4, 359 (1983).
F. N. Davis and C. E. Grinell, ASME-Paper 82-GT-244 (1982).
F. S. Pettit and G. W. Goward, Coatings for High Temperature Applications. London: Applied Science Publishers 1982.
T. E. Strangmann, Thin Solid Films 45, 499 (1977).
H. Huff and W. Schreiber, Werkstoffe u. Korr. 23 /5, 370 (1972).
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© 1985 Springer-Verlag
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Thien, V. (1985). Selection and Qualification Tests of High Temperature Materials by Special Microanalytical Methods. In: Grasserbauer, M., Wegscheider, W. (eds) Progress in Materials Analysis. Mikrochimica Acta Supplementum, vol 11. Springer, Vienna. https://doi.org/10.1007/978-3-7091-8840-8_17
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DOI: https://doi.org/10.1007/978-3-7091-8840-8_17
Publisher Name: Springer, Vienna
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