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Cited References
O.P. Naumkin, V.T. Terekhova and E.M. Savitskii,Izv. Akad. Nauk SSSR Met., No. 4, p 176–182 (1965); translated inRuss. Met., No. 4, p 128–136 (1965). Also see E.M. Savitskii, V.F. Terekhova, I.V. Burov and O.P. Naumkin, inRare Earth Research III, Proc. Fourth Conf. (1964), L. Eyring, Ed., Gordon and Breach, Science Publishers, Inc., NY, p 301–319 (1965).
P.I. Kripyakevich and I.I. Zalutskii, in E.M. Savitskii and V.F. Terekhova, Eds.,Voprosy Teorii i Primeniniya Redkozemelynkh Metallov., Akad. Nauk SSSR, Moscow, p 144–145 (1964); translated as U.S. Dept. Commerce JPRS-28849, p 188–190 (1964).
V.N. Rechkin, L.K. Lamikhov and T.L. Samsonova,Kristallografiya, 9, p 405–408 (1964); translated inSov. Phys.—Crystallogr., 9, p 325–327 (1964).
A.E. Dwight, U.S. At. Energy Comm., ANL-6330, p 156–158 (1960).
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Additional References
B.T. Matthias, T.H. Geballe and V.B. Compton, Superconductivity,Rev. Modern Phys., 35, p 1–22 (1963). (Al2Sc was found to have the Cu2Mg-type structure [C15] and was not superconducting above 1.02 K)
I.I. Zalutskii and P.I. Kripyakevich, RAl3 Compounds in Rare Earth—Aluminum Systems and Their Crystal Structures,Kristallografiya, 12(3), p 394–397 (1967) in Russian; translated asSov. Phys.—Crystallogr., 12(3), p 341–343 (1967). (Confirmed the AuCu3 structure for Al3Sc, witha=0.4105 nm)
S. Eymond and E. Parthé, Sc2Al with Ni2In Structure Type,J. Less-Common Met., 19, p 441–443 (1969). (Crystal data given in Crystal Structures table)
M.E. Drits, E.S. Kadaner, T.V. Dobatkina and N.I. Turkina, Scandium-Aluminum Interactions in the Aluminum-Rich Side of the Al−Sc System,Izv. Akad. Nauk SSSR Met., No. 4, p 113–217 (1973) in Russian; translated asRuss. Met., No. 4, p 152–154 (1973). (A eutectic-type reaction was observed at 655°C with a Sc solid-solubility of 0.22 wt.% at 640°C. Purity of Sc, 99.875 wt.%, is given as possible explanation of difference with Fig. 1, where purity of 99.5 wt.% Sc was used) See Fig. 2.
C.T. Horovitz, Editor,Scandium; Its Occurrence, Chemistry, Physics, Metallurgy, Biology and Technology, Academic Press, London (1975). (Includes a brief review of the Al−Sc phase diagram and crystal structure properties of its intermetallic compounds)
M. Očko, E. Babić, R. Krsmik, E. Girt and B. Leontić, Some Properties of AlSc Solid Solutions,J. Phys. F Met. Phys., 6(5), p 703–707 (1976). (Solid solutions up to 3.28 at.% Sc in Al were prepared by rapid quenching. The lattice parameters, residual resistivities and microhardness of Al−Sc (0 to 3.28 at.%) alloys are reported)
M. Očko, E. Babić and V. Zlatić, Changes of the Lattice Parameter in Al 3d Alloys Due to the Virtual Bound State,Solid State Commun., 18, p 705–708 (1976). (Enhanced solid solubility of up to 3.2 at.% Sc in Al was obtained by rapid quenching. Lattice parameters were reported) See Fig. 3.
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Work done at IIT Research Institute, Chicago, Illinois, under contract to the Office of Standard Reference Data, National Bureau of Standards. From [Elliot;; IITRI]; bibliography through 1966.
An erratum to this article is available at http://dx.doi.org/10.1007/BF02876151.
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Elliott, R.P., Shunk, F.A. The Al−Sc (Aluminum-Scandium) system. Bulletin of Alloy Phase Diagrams 2, 222–223 (1981). https://doi.org/10.1007/BF02881486
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DOI: https://doi.org/10.1007/BF02881486