Theoretical and Computational Quantum Dynamics

Following energy and charge as matter evolves.

We develop quantum and quantum-classical theories, open-source software, and conduct atomistic simulations to understand nonadiabatic processes in molecules, nanomaterials, and energy materials.

What we investigate

From fundamental dynamics to predictive materials modeling

Our work connects formal theory, efficient computational methodology, and applications where electronic and nuclear motion cannot be separated.

Schematic ladder comparing quantum dynamics methodologies 01

Theory and assessment

We develop and benchmark quantum-classical approaches, studying coherence, correlations, representation invariance, and the limits of common approximations.

Read about theory
Computational workflow for nonadiabatic molecular dynamics 02

Methods and software

We create scalable algorithms and open implementations for nonadiabatic dynamics, state tracking, machine learning, and electronic-structure workflows.

Explore software
Examples of materials studied with nonadiabatic dynamics 03

Excited-state materials

We model charge and energy transfer in quantum dots, two-dimensional materials, interfaces, perovskites, fullerenes, and molecular systems.

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Featured software

Libra: a modular library for quantum dynamics

Libra brings together model Hamiltonians, electronic-structure interfaces, nonadiabatic molecular dynamics, trajectory surface hopping, decoherence, and data-analysis tools in an open development environment.

The project supports both methodological research and reproducible simulations of realistic molecular and materials systems.

Recent work

Selected publications

Recent advances in benchmarking nonadiabatic methods and understanding relaxation in dense excited-state manifolds.

Join the group

Build theory, software, and scientific insight with us.

We welcome motivated students interested in chemistry, physics, mathematics, scientific computing, and materials science. Programming experience is helpful, but curiosity and readiness to learn matter most.

Contact the group
Graduate studentsThesis research in theory, computation, and applications
UndergraduatesResearch-for-credit and independent project opportunities
Visiting scholarsCollaborative and self-supported research visits