Unveiling fullerene formation and interconversion through molecular dynamics simulations with deep neural network potentials

Utilizing deep neural network potentials within molecular dynamics simulations, this research uncovers insights into fullerene formation and interconversion, particularly during the cooling stage of the annealing process. Our deep learning-enhanced approach effectively models the generation of fullerenes from C<sub>2</sub> units in carbon vapor, highlighting the critical role of carbon density in structuring outcomes in a primary iron-carbon system. This study provides differences in molecular dynamics simulations for fullerene generation and also demonstrates the potential of deep learning in investigating complex carbon structures, paving the way for further investigations into the fullerene family.

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Publication Details

Journal
Physical Chemistry Chemical Physics
Published
2025-01-01
DOI
https://doi.org/10.1039/d5cp00837a
Citations
4
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
2.07
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article

Unveiling fullerene formation and interconversion through molecular dynamics simulations with deep neural network potentials

Masahiro Ehara, Yanbo Han, Xiang Zhao, Mengyang Li
4 citations
Physical Chemistry Chemical Physics
Machine Learning in Materials Science
2.07
article

Unveiling fullerene formation and interconversion through molecular dynamics simulations with deep neural network potentials

Masahiro Ehara, Yanbo Han, Xiang Zhao, Mengyang Li
article en
4 citations

Abstract

Utilizing deep neural network potentials within molecular dynamics simulations, this research uncovers insights into fullerene formation and interconversion, particularly during the cooling stage of the annealing process. Our deep learning-enhanced approach effectively models the generation of fullerenes from C<sub>2</sub> units in carbon vapor, highlighting the critical role of carbon density in structuring outcomes in a primary iron-carbon system. This study provides differences in molecular dynamics simulations for fullerene generation and also demonstrates the potential of deep learning in investigating complex carbon structures, paving the way for further investigations into the fullerene family.

Physical Chemistry Chemical PhysicsVol. 27(18)
Xidian University (CN), Institute for Molecular Science (JP), Xi'an Jiaotong University (CN)
Openalex Percentile: Top 14%
Machine Learning in Materials Science
2.07
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