Resonance of mixing energy and energy of elastic deformations during spinodal decomposition and the composition modulation effect in ZnхCd1-ХTe solid solutions

P. Moskvin, Sergii Skurativskyi, W. Sadowski, B. Kościelska, P. Melnychuk, O. Prylypko
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引用次数: 1

Abstract

The Cahn-Hilliard equation is adapted to consider the spinodal decomposition of A2B6 semiconductor solid solutions. This approach is used to analyze the process of spinodal decomposition of ZnхCd1-хTe solid solution, which is accompanied by the appearance of the composition modulation effect during its low-temperature synthesis. Numerical simulations of the spinodal decomposition of the ZnхCd1-хTe solid solution are performed. It is shown that micro-variations of the material composition are related by the resonance phenomenon between the excess mixing energy and the energy of elastic strains arising in the inclusions of the new phase, which are coherently conjugated with the initial crystal lattice. It is revealed that such resonance phenomena are most intense when the conditions for the material synthesis are located in close proximity to the spinodal curves on the phase state diagram of the system.
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ZnхCd1-ХTe固溶体中旋量分解过程中混合能与弹性变形能的共振及成分调制效应
采用Cahn-Hilliard方程来考虑A2B6半导体固溶体的独立分解。利用该方法分析了ZnхCd1-хTe固溶体在低温合成过程中伴随成分调制效应的spinodal分解过程。对ZnхCd1-хTe固溶体的旋量分解进行了数值模拟。结果表明,材料成分的微观变化与新相夹杂物中产生的过量混合能和弹性应变能之间的共振现象有关,新相夹杂物与初始晶格相干共轭。结果表明,当材料合成条件靠近系统相态图上的旋量曲线时,这种共振现象最为强烈。
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