Growth and phase stability of epitaxial metastable InSb1−xBix films on GaAs. II. Phase stability
- 1 March 1980
- journal article
- research article
- Published by AIP Publishing in Journal of Applied Physics
- Vol. 51 (3) , 1560-1564
- https://doi.org/10.1063/1.327808
Abstract
Single‐crystal metastable InSb1−xBix films have been grown on GaAs substrates by multitarget sputtering. The films were metastable in two directions on the In‐Sb‐Bi ternary phase diagram—the solid solubility of tetragonal InBi in zinc blende structure InSb was increased by more than a factor of 4, and the width of the InSb‐InBi pseudobinary phase field was increased from ∼10−3% to ?0.5%. The transition from the single‐phase metastable state M1 to the equilibrium state occurred through the intermediate metastable state M2. The thermal stability of single‐phase films was found by high‐temperature growth and post‐annealing experiments to depend on film orientation in the following order: (110), (111), and (100). The metastable phase diagram was established for (110) oriented films in which it was found that the transition temperature from the M1 state to the M2 state ranged from 150 to 300 °C, depending on film composition, above the equilibrium eutectic temperature at ∼100 °C and to be only about 125 °C less than the liquidus temperature.This publication has 7 references indexed in Scilit:
- Growth and phase stability of epitaxial metastable InSb1−xBix films on GaAs. I. Crystal growthJournal of Applied Physics, 1980
- Compositionally modulated sputtered InSb/GaSb superlattices: Crystal growth and interlayer diffusionJournal of Applied Physics, 1979
- Growth of metastable InSb1−xBix thin films by multitarget sputteringApplied Physics Letters, 1978
- A comparison of some important surface properties of elemental and tetrahedrally coordinated compound semiconductorsC R C Critical Reviews in Solid State Sciences, 1975
- Polar surfaces of wurtzite and zincblende latticesSurface Science, 1970
- The stability of metallic phasesProgress in Materials Science, 1969
- (111) Surface tensions of III–V compounds and their relationship to spontaneous bending of thin crystalsSurface Science, 1964