Driven Quantum Matter
Controlling quantum materials with light.
We are an experimental research group in the Department of Physics at Case Western Reserve University. Our work pushes the limits of light-matter interaction as a means of probing and manipulating quantum materials.
To achieve this, we design and build time-resolved spectroscopic tools across the electromagnetic spectrum, enabling femtosecond-timescale probes of driven quantum matter.
Our research program extends far beyond the laboratory. We conduct collaborative experiments at leading x-ray free electron lasers and synchrotrons around the world.
Research Highlights
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How do you stabilize nonequilibrium quantum matter?
We demonstrate symmetry-protection as a route towards metastable light-induced phases.
Nature Materials 24, 1584 (2025)
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Deconstructing high-temperature superconductivity
Probing cuprate ladder compounds with x-rays, we detect signatures of strong hole pairing beyond the paradigmatic Hubbard model.
Physical Review X 15, 021049 (2025)
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How do lattice vibrations influence 2D magnetism?
We find that phonons strongly modulate the interlayer exchange coupling in layered magnetic topological insulators.
Nature Communications 13, 1929 (2022)
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Illuminating hidden magnetic coupling pathways in topological materials
Tracing magnetic dynamics at femtosecond timescales, we quantify the exchange coupling between local spins and topological bands in a magnetic topological insulator.
Advanced Materials 34, 2202841 (2022)
We are growing!
Join our group to work on state-of-the-art quantum materials research in one of the country’s most vibrant academic and art districts.
