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    KCI등재 SCI SCIE SCOPUS

    Non-reciprocal Heterogeneous Nucleation in Solidification of Ag–Cu Alloys

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    https://www.riss.kr/link?id=A109250791

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    Taking Ag-27 at% Cu hypoeutectic and Ag-67 at% Cu hypereutectic alloys as examples, a theoretical criterion was establishedbased on the classical nucleation theory to predict the non-reciprocal nucleation. For a eutectic alloy composed of αand β solid phases, non-reciprocal nucleation will not occur if the critical nucleation work of one phase on the other phaseis approximately equal to that of the latter on the former. Otherwise, one phase can act as the more effective nucleationsubstrate for the other phase and non-reciprocal nucleation takes place. For Ag–Cu alloys, the wetting angle of β-Cu onα-Ag is larger than that of α-Ag on β-Cu, but the critical nucleation work for β-Cu to heterogeneously nucleate on α-Ag inhypoeutectic alloys is obviously smaller than that for α-Ag on β-Cu in hypereutectic Ag–Cu alloys. Thus, α-Ag phase is abetter nucleant for β-Cu phase than vice versa and the Ag–Cu alloys solidify with non-reciprocal nucleation, reflected byonly a halo of α-Ag around primary β-Cu phase in the hypereutectic Ag–Cu alloy.
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    Taking Ag-27 at% Cu hypoeutectic and Ag-67 at% Cu hypereutectic alloys as examples, a theoretical criterion was establishedbased on the classical nucleation theory to predict the non-reciprocal nucleation. For a eutectic alloy composed of αand β sol...

    Taking Ag-27 at% Cu hypoeutectic and Ag-67 at% Cu hypereutectic alloys as examples, a theoretical criterion was establishedbased on the classical nucleation theory to predict the non-reciprocal nucleation. For a eutectic alloy composed of αand β solid phases, non-reciprocal nucleation will not occur if the critical nucleation work of one phase on the other phaseis approximately equal to that of the latter on the former. Otherwise, one phase can act as the more effective nucleationsubstrate for the other phase and non-reciprocal nucleation takes place. For Ag–Cu alloys, the wetting angle of β-Cu onα-Ag is larger than that of α-Ag on β-Cu, but the critical nucleation work for β-Cu to heterogeneously nucleate on α-Ag inhypoeutectic alloys is obviously smaller than that for α-Ag on β-Cu in hypereutectic Ag–Cu alloys. Thus, α-Ag phase is abetter nucleant for β-Cu phase than vice versa and the Ag–Cu alloys solidify with non-reciprocal nucleation, reflected byonly a halo of α-Ag around primary β-Cu phase in the hypereutectic Ag–Cu alloy.

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    참고문헌 (Reference)

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    2 Y. H. Zhao, 216 : 110555-, 2022

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    9 M. Pourgharibshahi, 51 : 4572-4583, 2020

    10 J. H. Hollomon, 3 : 803-805, 1951

    1 C. Lemaignan, 50 : 720-728, 1980

    2 Y. H. Zhao, 216 : 110555-, 2022

    3 S. T. Bluni, 43 : 1775-1782, 1995

    4 M. F. Gigliotti, 1 : 891-897, 1970

    5 G. L. F. Powell, 2 : 849-852, 1971

    6 C. Lemaignan, 29 : 1379-1384, 1981

    7 R. T. Southin, 26 : 223-231, 1978

    8 B. Cantor, 27 : 33-46, 1979

    9 M. Pourgharibshahi, 51 : 4572-4583, 2020

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    27 Z. Chvoj, 24 : 360-371, 1999

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    29 Z. Y. Jian, 60 : 3590-3603, 2012

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    33 이동녕, 23 : 320-325, 2017

    34 M. Enomoto, 4 : 115-123, 1998

    35 J. B. Liu, 464 : 168-173, 2008

    36 B. P. Eftink, 712 : 313-324, 2018

    37 M. Hillert, "Phase Diagrams and Phase Transformations: Their Thermodynamic Basis" Cambridge University Press 142-143, 2007

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