Titanium and Titanium Alloys pp 2315-2321 | Cite as
A Novelty in the Field of Titanium Powder Metallurgy
Chapter
Abstract
When producing articles of titanium and titanium alloys by conventional technology, 70 to 80% of the input metal is lost as scrap between the ingot and the final product. The yield of usable product does not ordinarily exceed 20 to 25%.(1–2) Powder metal-lugy allows a four to five-fold increase in metal utilization and a one and one-half to two-fold decrease in labor consumption when machining articles, thus resulting in a savings of six to ten thousand roubles per ton of final product.(3)
Keywords
Titanium Powder Calcium Hydride Filter Element Titanium Sponge Powder Metallurgy Method
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References
- 1.Dobatkin, V. I., Anoshkin, N. F., Andreev, A. L. et al, Titanium alloys ingots, M., Metallurgia, 1966.Google Scholar
- 2.Galitsky, B. A., Abelev, M. M., Shwartz, G. L. et al, Titanium and its alloys in chemical machine-building, M., Mashinostroinie, 1968.Google Scholar
- 3.Voroviev, B. J., Olesov, U.G., Ustinov, B. S. serial et al, Making of structural parts of titanium powder by the metalloceramic method “Tsvetniye metalli,” 1970, N 7, 65–66.Google Scholar
- 4.Olesov, U. G., Ognev, R. K. and Zapadnia, V. I., Large-sized titanium filters, “Tsvetniye matalli,” 1968, N12, 84–85.Google Scholar
- 5.Dobatkin, V. I., Anoshkin, N. F., Andreev, A. L. et al, Titanium alloys ingots, M., Metallurgia, 1966.Google Scholar
- 6.Shitikov, V. S., Sherstiuk, A. A., Ognev, R. K. et al, Complex deoxidizers made of titanium production, “Liteynoe proizvodstvo,” 1971, N6, 35–36.Google Scholar
- 7.Ognev, R. K., Zisman, E. B., Maximenko, V. M. et al, Corrosion resisting composition to protect constructional structures and technological equipment. “Industrial construction and engin-eering erections,” 1975, N3, 19–21.Google Scholar
- 8.Ustinov, V. S., Olesov, R. G., Antipin, L. N., Drosdenko, V. A., M. Metallurgia, 1973.Google Scholar
- 9.Garmata, V. A., Gulianitsky, B. S., Kramnik, V. U. et al, Titanium metallurgy. M., Metallurgia, 1968.Google Scholar
- 10.Rubtsov, A. N., Olesov, U. G., Antonova, M. I., Hydrogenation of titanium materials. Kiev, Naukova dumka, 1970.Google Scholar
- 11.Glazunov, S. G., Solonina, 0. P., Chereshneva, N. F, Dispersed granulation of metals and alloys. Selected Works. “Nonferrous metals alloys.” M. Nauka, 1972, 32–41.Google Scholar
- 12.Ustinov, V. S., Olesov, U. G., Antipin, L. N. et al, Pilot-industrial testing of titanium powders production by electrolysis of melts with a soluble anode. “Tsvetnije metalli, 1969, N12, 40–43.Google Scholar
- 13.Zhivov, L. I., Pavlov, V. A., Kolesnik, F. I. et al. Compaction of tube of metalloceramic titanium. “Tsvetniye metalli, 1971, N1, 69–70.Google Scholar
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© Springer Science+Business Media New York 1982