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High Tempeature Ordered Compounds for Advanced AERO-Propulsion Applications

Published online by Cambridge University Press:  26 February 2011

D. L. Anton  and
D. M. Shah
D. L. Anton
Affiliation:
United Technologies Research Center, E. Hartford, CT
D. M. Shah
Affiliation:
Pratt & Whitney, E. Hartford, CT
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Abstract

Advanced aero-propulsion engine designs now being considered for implementation require structural materials with high temperature strength and creep properties above 1300°C, in excess of the range where nickel base superalloys are now being used. A number of ordered single phase compounds having melting points above 1500°C have been identified which both hold promise for engine applications and are representative of a number of different crystal structures such as B2, C15 (Laves), A15, C1 and DO19. Elevated temperature characterization has been conducted on these compounds which includes ductile/brittle transition temperature determination, minimum creep rate analysis, elastic modulus, tensile strength and cyclic oxidation testing. The results of these tests have led to insight in the processing methods required for these compounds and selection of compounds based on elemental constituents and crystal structure.

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 133: Symposium H – High-Temperature Ordered Intermetallic Alloys III , 1988 , 361
Copyright
Copyright © Materials Research Society 1989

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References

REFERENCES

1. Anton, D.L., Duhl, D.N. and Shah, D.M., “Development Potential of Advanced Intermetallic Materials”, Dept. of the Air Force, F33615−87−C-5214, Interim Technical Report, April 30, 1987.Google Scholar
2. Fleischer, R.L., Livingston, J.D., Rowe, R.G. and Field, R.D., “Development Potential for Advanced Intermetallic Materials”, Dept. of the Air Force, F33615−86-C-5505, Jan., 1987.Google Scholar
3. Pearson, W.B., Handbook of Lattice Spacings and Structures of Metals Pergamon Press, London, U.K., 1967.Google Scholar
4. Elliot, R.P., Constitution of Binary Alloys, First Supplement, McGraw-Hill Book Co., New York, NY, 1965.Google Scholar
5. Smithells Metals Reference Book, Sixth ed., Brandes, E.A. ed., Butterworths, London, U.K., 1983.Google Scholar
6. Anton, D.L., in High Temperature/High Performance Composites, Lemkey, F.D., Strife, J.R., Evans, A.G. and Fishman, S.G. eds., Materials Research Society, Pittsburgh, PA, p. 57, 1988.Google Scholar
7. Ball, A. and Smallman, R.E., Acta Met., 14, 1349, (1966).Google Scholar
8. Dorn, J.E., in Creep and Recovery, American Society for Metals, Metals Park, Ohio, 1957.Google Scholar
9. Dorn, J.E., in Creep and Fracture of Metals at High Temperatures, National Physical Laboratory, London, U.K., 1956.Google Scholar
10. Agafonov, V.N. et. al., Vstn. Mosk. Univ. Khim., 16, 121, (1975).Google Scholar
11. Cetel, A.D. and Duhl, D.N., in Superalloys 1988, Duhl, D., Maurer, G., et. al. eds., TMS Inc., Warrendale, PA, 1988.Google Scholar