Topology-Driven Search for Molecular Links in Nanoclusters: Structure Prediction for Au<sub>16</sub>(SR)<sub>14</sub>

Molecular topology provides a fundamental understanding of the molecular structures and dictates the chemical properties. Here, knot theory, a branch of mathematics, is leveraged to systematically search for molecular links with machine learning interatomic potential and give a structure prediction for Au<sub>16</sub>(SR)<sub>14</sub> (SR denotes a thiolate ligand). This knot theory-based search method is also applicable to a variety of low-valency nanoclusters, including the widely studied Au<sub>15</sub>(SR)<sub>13</sub>. The thoroughly searched energy landscape of the small sized nanoclusters also suggests potential isoelectronic conversions during the typical nanocluster reduction growth. This study not only provides a possible scaffold for future Au nanocluster structure prediction but also promotes the understanding of the implications of twists and turns for a nanocluster in a topological space.

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Publication Details

Journal
The Journal of Physical Chemistry Letters
Published
2025-07-26
DOI
https://doi.org/10.1021/acs.jpclett.5c01668
Primary Topic
Nanocluster Synthesis and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Topology-Driven Search for Molecular Links in Nanoclusters: Structure Prediction for Au16(SR)14

Jianping Xie, Jingkuan Lyu, Jing Qian, Zhucheng Yang
The Journal of Physical Chemistry Letters
Nanocluster Synthesis and Applications
article

Topology-Driven Search for Molecular Links in Nanoclusters: Structure Prediction for Au16(SR)14

Jianping Xie, Jingkuan Lyu, Jing Qian, Zhucheng Yang
article en

Abstract

Molecular topology provides a fundamental understanding of the molecular structures and dictates the chemical properties. Here, knot theory, a branch of mathematics, is leveraged to systematically search for molecular links with machine learning interatomic potential and give a structure prediction for Au<sub>16</sub>(SR)<sub>14</sub> (SR denotes a thiolate ligand). This knot theory-based search method is also applicable to a variety of low-valency nanoclusters, including the widely studied Au<sub>15</sub>(SR)<sub>13</sub>. The thoroughly searched energy landscape of the small sized nanoclusters also suggests potential isoelectronic conversions during the typical nanocluster reduction growth. This study not only provides a possible scaffold for future Au nanocluster structure prediction but also promotes the understanding of the implications of twists and turns for a nanocluster in a topological space.

The Journal of Physical Chemistry LettersVol. 16(31)
Tianjin University (CN), National University of Singapore (SG), Université Bourgogne Franche-Comté (FR)
Ministry of Education - Singapore, National Natural Science Foundation of China
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Openalex Percentile: Top 87%
Nanocluster Synthesis and Applications
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