Mathieu Salanne
Professeur des Universités en chimie
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Positions (1)
Mathieu Salanne
Sorbonne Université
Postdoctoral opening in atomistic modeling , battery recycling , computational chemistry , and materials dissolution/lixiviation at Sorbonne Université . The position is within the PHENIX laboratory on the Pierre et Marie Curie Campus , in the Electrochemistry and Ionic Liquids team . The project aims to develop a computational approach to simulate the lixiviation process at the atomistic scale and to understand the microscopic mechanisms controlling dissolution of battery materials. The work is intended to support the optimization of next-generation recycling processes. The recruited postdoctoral researcher will join a modelling team and work in close contact with experimentalists. The post includes access to laboratory resources and university computing resources. Applicants should have a strong background in computational modeling and simulation, with interest in electrochemistry, ionic liquids, and battery materials. The post does not mention a deadline, stipend amount, or formal funding details. To apply, send a CV by email to [email protected] .
Articles (11)
Year:
2023
BaSnF4 is a prospective solid state electrolyte for fluoride ion batteries. However, the diffusion mechanism of the fluoride ions remains difficult to study, both in experiments and in simulations. In principle, ab initio molecular dynamics could allow to fill this gap, but this method remains very costly from the computational point of view. Using machine learning potentials is a promising method that can potentially address the accuracy issues of classical empirical potentials while maintaining high efficiency. In this work, we fitted a dipole polarizable ion model and trained machine learning potential for BaSnF4 and made comprehensive comparisons on the ease of training, accuracy and efficiency. We also compared the results with the case of a simpler ionic system (NaF). We show that contrarily to the latter, for BaSnF4 the machine learning potential offers much higher versatility. The current work lays foundations for the investigation of fluoride ion mobility in BaSnF4 and provides insight on the choice of methods for atomistic simulations.
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2023
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2023
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2023
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2023
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2023
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2022
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2022
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2022
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2022
Collaborators (5)
Benjamin Rotenberg
CNRS
Guillaume Jeanmairet
CNRS Délégation Paris B
Ozlem Sel
Sorbonne Université
Xiaodong Chen
Professor
Nanyang Technological University (NTU)
Céline Merlet
Université de Toulouse
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