Z
Zhao-Yang Hou
Researcher at Chang'an University
Publications - 49
Citations - 871
Zhao-Yang Hou is an academic researcher from Chang'an University. The author has contributed to research in topics: Crystallization & Amorphous solid. The author has an hindex of 16, co-authored 48 publications receiving 713 citations. Previous affiliations of Zhao-Yang Hou include University of New South Wales & Hunan University.
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Molecular dynamics simulation for cooling rate dependence of solidification microstructures of silver
TL;DR: In this paper, a molecular dynamics simulation study has been performed to investigate the solid microstructures of Ag at room temperature resulted from rapid solidification with six cooling rates by using Quantum Sutton-Chen (QSC) many body potential.
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Cooling rate dependence of solidification for liquid aluminium: a large-scale molecular dynamics simulation study
TL;DR: The effect of the cooling rate on the solidification process of liquid aluminium is studied using a large-scale molecular dynamics method, and it is found that there are various types of short-range order structures in the liquid, among which the icosahedral (ICO)-like structures are dominant.
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Influence of icosahedral order on the second peak splitting of pair distribution function for Mg70Zn30 metallic glass
Yongchao Liang,Rang-su Liu,Yunfei Mo,Hairong Liu,Zean Tian,Qun-yi Zhou,Hai-Tao Zhang,Hai-Tao Zhang,Li-li Zhou,Zhao-Yang Hou,Ping Peng +10 more
TL;DR: In this paper, the second peak splitting in pair distribution function (PDF) g (r ) curve of Mg 70 Zn 30 metallic glass is mainly caused by the intercross-shared (IS) cluster linked of two icosahedra.
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Molecular dynamics study on microstructural evolution during crystallization of rapidly supercooled zirconium melts
Yunfei Mo,Zean Tian,Rang-su Liu,Zhao-Yang Hou,Li-li Zhou,Ping Peng,Hai-Tao Zhang,Hai-Tao Zhang,Yongchao Liang +8 more
TL;DR: In this paper, molecular dynamics simulations have been performed to explore the crystallization mechanism under rapid cooling for Zirconium that has body-centred cubic (bcc) and hexagonal close-packed (hcp) phases separated at 1136 K.
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Formation and evolution of metastable bcc phase during solidification of liquid Ag: a molecular dynamics simulation study.
TL;DR: This study validates the Ostwald's step rule and provides evidence for the prediction that the metastable bcc phase forms first from liquid, and reveals that the final solid at 273 K can be a mixture of hexagonal close-packed and face-centered cubic microstructures with various proportions of the two, and the slower the cooling rate is, the higher proportion the fcc structure occupies.