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<p>Tailoring material properties often requires understanding the solidification process. Herein, we introduce the geometric descriptor Soliquidy, which numerically captures the Euclidean transport cost between the translationally disordered versus ordered states of a materials. As a testbed, we apply Soliquidy to the classification of glass-forming metal alloys. By extending and combining an experimental library of metallic thin films (glass/no-glass) with the <Emphasis FontCategory="NonProportional">aflow.org</Emphasis> computational database (geometrical and energetic information of mixtures) we found that the combination of Soliquity and formation enthalpies generates an effective classifier for glass formation. Such a classifier is then used to tackle a public dataset of metallic glasses showing that the glass-agnostic assumptions of Soliquity can be useful for understanding kinetically-controlled phase transitions.</p>

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Soliquidy: a descriptor for atomic geometrical confusion

  • 期刊论文

  • 出版模式：

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  • 发表日期：

    2025年2月19日

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  • Hagen Eckert,
  • Sebastian A. Kube,
  • Simon Divilov,
  • Asa Guest,
  • Adam C. Zettel,
  • David Hicks,
  • Sean D. Griesemer,
  • Nico Hotz,
  • Xiomara Campilongo,
  • Siya Zhu,
  • Axel van de Walle,
  • Jan Schroers,
  • Stefano Curtarolo

摘要

Tailoring material properties often requires understanding the solidification process. Herein, we introduce the geometric descriptor Soliquidy, which numerically captures the Euclidean transport cost between the translationally disordered versus ordered states of a materials. As a testbed, we apply Soliquidy to the classification of glass-forming metal alloys. By extending and combining an experimental library of metallic thin films (glass/no-glass) with the aflow.org computational database (geometrical and energetic information of mixtures) we found that the combination of Soliquity and formation enthalpies generates an effective classifier for glass formation. Such a classifier is then used to tackle a public dataset of metallic glasses showing that the glass-agnostic assumptions of Soliquity can be useful for understanding kinetically-controlled phase transitions.