University Assistant Professor

Dr Seán Kavanagh is an Assistant Professor in Simulation of Energy Materials and a council member for the Lennard Jones Centre for materials modelling.

He heads the Simulation of Advanced Materials (SAM) lab, a research team that uses state-of-the-art computational methods to design and develop next-generation materials; primarily targeting energy applications. We are happy to hear from prospective PhD candidates, see SAM-lab.net for more details!

The SAM lab works at the intersection of materials science, chemistry, physics and artificial intelligence (AI); developing and deploying techniques from quantum chemistry (e.g., DFT), solid-state physics and machine learning (ML, primarily machine-learned interatomic potentials (MLIPs)) to understand the atomic-level properties of materials. Using insights from these calculations, run on high-performance computers, one can predict, design and optimise the performance of materials in real-world technologies. Further details on research interests can be found at SAM-lab.net.

The SAM lab has a particularly strong interest in materials for energy conversion (such as solar cells, photocatalysts and thermoelectrics) and energy storage (e.g. batteries), as well as the development of computational packages to support its research, primarily based in Python. These computational tools are open-source and are used by thousands of other researchers worldwide.

The SAM lab is actively recruiting! You can reach out to Seán via email (sk2045@cam.ac.uk), and it is helpful to include a brief description of your background, a CV and any relevant experience, to help determine potential research projects.

 

Publications

Orbital-selective Band Hybridisation at the Charge Density Wave Transition in Monolayer TiTe$_2$
T Antonelli, W Rahim, MD Watson, A Rajan, OJ Clark, A Danilenko, K Underwood, I Markovic, E Abarca-Morales, SR Kavanagh, P Fevre, F Bertran, K Rossnagel, DO Scanlon, PDC King
(2022)
Author Correction: Cation disorder engineering yields AgBiS2 nanocrystals with enhanced optical absorption for efficient ultrathin solar cells (Nature Photonics, (2022), 16, 3, (235-241), 10.1038/s41566-021-00950-4)
Y Wang, SR Kavanagh, I Burgués-Ceballos, A Walsh, DO Scanlon, G Konstantatos
Nature Photonics
(2022)
16
Lone pair driven anisotropy in antimony chalcogenide semiconductors
X Wang, Z Li, SR Kavanagh, AM Ganose, A Walsh
Physical chemistry chemical physics : PCCP
(2022)
24
Impact of metastable defect structures on carrier recombination in solar cells
SR Kavanagh, DO Scanlon, A Walsh, C Freysoldt
(2022)
Cation disorder engineering yields AgBiS2 nanocrystals with enhanced optical absorption for efficient ultrathin solar cells
Y Wang, SR Kavanagh, I Burgués-Ceballos, A Walsh, DO Scanlon, G Konstantatos
Nature Photonics
(2022)
16
Understanding the Photocatalytic Activity of La5Ti2AgS5O7 and La5Ti2CuS5O7 for Green Hydrogen Production: Computational Insights.
K Brlec, SR Kavanagh, CN Savory, DO Scanlon
ACS Applied Energy Materials
(2022)
5
Band gap opening from displacive instabilities in layered covalent-organic frameworks
J Huang, MJ Golomb, SR Kavanagh, K Tolborg, AM Ganose, A Walsh
Journal of Materials Chemistry A
(2022)
10
Lone pair driven anisotropy in antimony chalcogenide semiconductors
X Wang, Z Li, SR Kavanagh, AM Ganose, A Walsh
(2021)
Enhanced visible light absorption in layered Cs3Bi2Br9 through mixed-valence Sn(ii)/Sn(iv) doping
CJ Krajewska, SR Kavanagh, L Zhang, DJ Kubicki, K Dey, K GaƂkowski, CP Grey, SD Stranks, A Walsh, DO Scanlon, RG Palgrave
Chemical Science
(2021)
12
Hidden spontaneous polarisation in the chalcohalide photovoltaic absorber Sn2SbS2I3.
SR Kavanagh, CN Savory, DO Scanlon, A Walsh
Materials horizons
(2021)
8

Research Group

Research Interest Groups

Email address