Adversarial active learning
Uncertainty-driven training of machine-learning potentials that capture material properties accurately, straight from first principles.
Hylleraas Centre · University of Oslo
AI insight into the quantum world of atoms
iℏ ∂t|ψ⟩ = Ĥ|ψ⟩ → real materials
The Bore Research Group, at the Department of Chemistry, University of Oslo, works at the intersection of artificial intelligence and quantum mechanics. We develop and apply machine-learning potentials for accelerated, reliable first-principles molecular dynamics — reaching exotic chemistry and physics beyond what traditional methods allow.
Uncertainty-driven training of machine-learning potentials that capture material properties accurately, straight from first principles.
Understanding and enhancing ionic conductivity in nanoporous materials — a step toward better fuel-cell membranes.
A first-principles account of the thin premelted layer that governs the friction of ice.
News
Latest preprints and publications from the group.
S. L. Bore, B. N. J. Persson, H. A. Sveinsson — under review · arXiv
M. G. Guren, S. L. Bore, F. Renard, H. A. Sveinsson — under review · arXiv
M. Bortoli, S. L. Bore, O. Eisenstein, M. Cascella — J. Catal. 454, 116619 · DOI
H. M. Cezar, T. Bodenstein, H. A. Sveinsson, M. Ledum, S. Reine, S. L. Bore — npj Comput. Mater. 11, 200 · DOI
F. Sciortino, Y. Zhai, S. L. Bore, F. Paesani — Nat. Phys. 21, 480 · DOI
Get involved
We're always looking for master's and PhD students and postdocs — bring your own system, or join an existing project on ice, ions, or ML-potential methods.
See positionsAutomated ML-potential workflows for battery materials, fuel cells, CO2 capture, and industrial process optimization — from your desktop to the supercomputer.
Partner with us