A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle

We performed a self-consistent charge density functional tight-binding molecular dynamics (SCC DFTB-MD) simulation of an explicitly solvated anatase nanoparticle. From the 2 ps trajectory, we were able to calculate both dynamic and static properties, such as the energies of interaction and the forma...

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Main Authors: Dáire O’Carroll, Niall J. English
Format: Article
Language:English
Published: MDPI AG 2022-01-01
Series:Applied Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3417/12/2/780
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author Dáire O’Carroll
Niall J. English
author_facet Dáire O’Carroll
Niall J. English
author_sort Dáire O’Carroll
collection DOAJ
description We performed a self-consistent charge density functional tight-binding molecular dynamics (SCC DFTB-MD) simulation of an explicitly solvated anatase nanoparticle. From the 2 ps trajectory, we were able to calculate both dynamic and static properties, such as the energies of interaction and the formation of water layers at the surface, and compare them to the observed behaviour reported elsewhere. The high degree of agreement between our simulation and other sources, and the additional information gained from employing this methodology, highlights the oft-overlooked viability of DFTB-based methods for electronic structure calculations of large systems.
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spelling doaj.art-858c4b00d5a542c4adf0632c29e985402023-11-23T12:52:37ZengMDPI AGApplied Sciences2076-34172022-01-0112278010.3390/app12020780A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase NanoparticleDáire O’Carroll0Niall J. English1UCD School of Chemical and Bioprocess Engineering, University College Dublin, Belfield, D04 V1W8 Dublin, IrelandUCD School of Chemical and Bioprocess Engineering, University College Dublin, Belfield, D04 V1W8 Dublin, IrelandWe performed a self-consistent charge density functional tight-binding molecular dynamics (SCC DFTB-MD) simulation of an explicitly solvated anatase nanoparticle. From the 2 ps trajectory, we were able to calculate both dynamic and static properties, such as the energies of interaction and the formation of water layers at the surface, and compare them to the observed behaviour reported elsewhere. The high degree of agreement between our simulation and other sources, and the additional information gained from employing this methodology, highlights the oft-overlooked viability of DFTB-based methods for electronic structure calculations of large systems.https://www.mdpi.com/2076-3417/12/2/780molecular simulationdensity functional theorymetal oxide catalysis
spellingShingle Dáire O’Carroll
Niall J. English
A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle
Applied Sciences
molecular simulation
density functional theory
metal oxide catalysis
title A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle
title_full A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle
title_fullStr A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle
title_full_unstemmed A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle
title_short A DFTB-Based Molecular Dynamics Investigation of an Explicitly Solvated Anatase Nanoparticle
title_sort dftb based molecular dynamics investigation of an explicitly solvated anatase nanoparticle
topic molecular simulation
density functional theory
metal oxide catalysis
url https://www.mdpi.com/2076-3417/12/2/780
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