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Applied Physics A

, 123:608 | Cite as

Molecular dynamics simulations of a femtosecond-laser-induced solid-to-solid transition in antimony

  • Bernd BauerhenneEmail author
  • Eeuwe S. Zijlstra
  • Martin E. Garcia
Article
Part of the following topical collections:
  1. New Frontiers in Laser Interaction

Abstract

We performed ab initio molecular dynamics (MD) simulations to describe the ultrafast dynamics of laser-excited antimony on a supercell consisting of 864 atoms. For low laser fluences (represented in our theory by moderate electronic temperatures), we obtain the well-known oscillations of the crystal planes in the [111] direction, corresponding to the large amplitude coherent A\(_{1\rm g}\) phonon. For large fluences (high electronic temperature) below the melting threshold, simulations suggest a possible transition from the initial, Peierls-distorted A7 structure into a structure without Peierls distortion. However, fluctuations due to finite size effects prevent a clean demonstration of such a nonthermal phase transition. Therefore, and based on the ab initio results, we derived an analytical potential depending on the electronic temperature and used it to perform large-scale MD simulations in supercells containing up to 10\(^6\) atoms. The potential can clearly reproduce the nonthermal phenomena and the excitation of the A\(_{1\rm g}\) coherent phonon observed in the ab initio results. Most importantly, due to the minimization of finite size effects, our large-scale simulations predict a clean nonthermal transition from the Peierls-distorted A7 structure into a structure without Peierls distortion.

Notes

Acknowledgements

B.B. acknowledges the support of the Otto-Braun-Fonds. The support of the computational facilities of the University of Darmstadt, Kassel and Frankfurt, is acknowledged. M.E.G acknowledges DFG though projects GA465/16-1 and GA465/18-1.

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Copyright information

© Springer-Verlag GmbH Germany 2017

Authors and Affiliations

  1. 1.Theoretical Physics and Center for Interdisciplinary Nanostructure Science and Technology (CINSAT)University of KasselKasselGermany

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