Computational approaches to model plasmonic materials for high-resolution bio-sensing technologies
Predicting the optical properties of functionalized atomic-sized clusters and organic molecules with density functional theory and multi-scale models
Developing scientific software for GPAW and ASE
I am currently based at the FIT Freiburg Center for Interactive Materials and Bioinspired Technologies, where I am working in collaboration with the group of PD Walter to develop polarizability models for the Atomic Simulation Environment. The polarizability models consider pairwise corrections for van der Waals interactions and perform faster in comparison to the equivalent many-electron simulations, whilst maintaining good accuracy for most molecular systems. Previously, I was a researcher at the A*STAR Institute of High Performance Computing (2019 -- 2021), where I used the GPAW implementation of density functional theory to study the optical properties of atomic-sized gold clusters and the adsorption of single molecules and ions on gold surfaces.
Developer of teaching materials for learning plasmonics
International representative for the A*STAR Scholars Network (2021)
Team leader for the 2020 APAC HPC-AI Competition
Award for the best contributed talk at the IONS 2019 conference
Web designer for the Vollmerlab website
E Zossimova and Y Akimov
Education and Training in Optics & Photonics Conference 2021, paper W2A.7 (Optica Publishing Group, 2021)
J Xavier, D Yu, C Jones, E Zossimova and F Vollmer
Nanophotonics 10, 1387–1435 (2021)
H R Barnard, E Zossimova, N H Mahlmeister, L M Lawton, I J Luxmoore and G R Nash
Appl. Phys. Lett. 108, 131110 (2016).