Institute of Metals Division - The Phase Diagram for the Pseudobinary System ZnTe-In2Te3 (TN)

The American Institute of Mining, Metallurgical, and Petroleum Engineers
Daniel F. O’Kane Donald R. Mason
Organization:
The American Institute of Mining, Metallurgical, and Petroleum Engineers
Pages:
3
File Size:
195 KB
Publication Date:
Jan 1, 1965

Abstract

DIFFERENTIAL thermal analysis measurements have been used to determine the ZnTe-In2Te3 pseudo-binary phase diagram. Since ZnTe and In2Te3 are both semiconductors, any intermediate compounds formed in this system should also be semiconductors according to the rules delineated by Mooser and pearson.1 The compound ZnIn2Te4 was first reported by Hahn et a1.2 and it has subsequently been prepared and characterized electrically by several workers. A brief summary of this work has been presented by Mason and O'Kane3 who also report that the compound appeared to melt peritec-tically. The Zn-Te phase diagram has been investigated by Kulwicki4 who found that ZnTe has a melting point of 1290° + 2°C. The In-Te diagram published in Hansen' contains significant errors, and has been redetermined by Grochowski et al.6 However, both sources agree that the melting point of In2Te3 is 667°C, with the latter authors reporting the previously observed solid-solid transformation occurring at about 550°C. Hahn ef al.2 reported lattice-parameter values for the ZnTe-In2Te3 system. The 67 mole pct ZnTe-33 mole pct In2Te3 composition was the only
Citation

APA: Daniel F. O’Kane Donald R. Mason  (1965)  Institute of Metals Division - The Phase Diagram for the Pseudobinary System ZnTe-In2Te3 (TN)

MLA: Daniel F. O’Kane Donald R. Mason Institute of Metals Division - The Phase Diagram for the Pseudobinary System ZnTe-In2Te3 (TN). The American Institute of Mining, Metallurgical, and Petroleum Engineers, 1965.

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