Results 151 to 160 of about 18,073 (192)

Some Statistics on Intermetallic Compounds

Inorganic Chemistry, 2014
It is still largely unknown why intermetallic phases show such a large variety of crystal structures, with unit cell sizes varying between 1 and more than 20 000 atoms. The goal of our study was, therefore, to get a general overview of the symmetries, unit cell sizes, stoichiometries, most frequent structure types, and their stability fields based on ...
Julia, Dshemuchadse, Walter, Steurer
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The intermetallic compound Ni3Zr

Journal of the Less Common Metals, 1979
Abstract The intermetallic compound Ni3Zr has been isolated; it is stable at room temperature but decays by a peritectoid reaction at 940 °C according to: 4Ni3Zr → Ni7Zr2 + Ni5Zr2. Ni3Zr is a hexagonal close-packed compound of the Ni3Sn type (D019), space group P6 3 mmc .
C Becle   +3 more
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Photoeffects in Intermetallic Compounds

Proceedings of the IRE, 1955
The intermetallic semiconductors are classified with respect to their crystal structure and to the place of the component elements in the periodic system. A survey is given of the properties of compounds with the zincblende and fluorite lattice. Photoeffects of individual members of these two groups are discussed. Such phenomena include photoconduction,
H. R. Frederikse, R. Blunt
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TERNARY INTERMETALLIC COMPOUNDS

Russian Chemical Reviews, 1960
CONTENTS I. Introduction 364 II. General features of ternary intermetallic compounds 365 III. Ternary Kurnakov phases 366 IV. Ternary intermetallic compounds of normal valency 367 V. Electronic ternary intermetallic compounds 367 VI. Ternary Laves phases 369 VII. Ternary nickel arsenide phases 369 VIII. Ternary interstitial phases 370 IX.
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