What We Study
Multi-scale light-matter theory
From nanoparticle optics and thin-film thermal emission to ab initio cavity quantum electrodynamics, our work connects fundamental modeling with experimentally relevant materials and devices.
University of North Carolina at Charlotte
The Foley Lab develops theory, computation, and research software for cavity QED, nanophotonics, thermal radiation, and molecular materials design.
What We Study
From nanoparticle optics and thin-film thermal emission to ab initio cavity quantum electrodynamics, our work connects fundamental modeling with experimentally relevant materials and devices.
What’s New
The site now supports collection-based entries for people, publications, and news, so most updates happen in short Markdown files instead of long hand-edited pages.
What’s Next
A dedicated tools page is ready for future calculation engines for Mie theory, transfer-matrix optics, cavity Hamiltonians, and unit conversion workflows.
Research Areas
Optical properties of nanoparticles, scattering-mediated absorption, radiative heat transfer, and selective thermal emitters for energy applications.
Quantum electrodynamical Hamiltonians, strong light-matter coupling, and computational methods for molecules in optical cavities.
Simulation workflows that help design materials, interpret experiments, and prototype new theoretical tools for light-driven chemistry.
Latest News
The lab website now includes a dedicated space for browser-based research widgets. The current version focuses on layout, usability, and extensibil...
We refreshed the homepage to better highlight current research directions, recent publications, and the people in the group, while making future co...
Recent work from collaborators and group members advances computational methods for polaritonic chemistry and demonstrates the value of scalable ma...
Recent Publications
Kenny Ampoh, Nam Vu, Jonathan J. Foley IV
Mikulas Matousek, Nam Vu, Niranjan Govind, Jonathan J. Foley IV, Libor Veis
Foley Lab collaborators
People
Generating Bell states between molecular qubits using cavity coupling.
Theoretical and computational chemistry of light-matter interactions.
Light-matter interactions in correlated systems and intermolecular interactions in optical cavities.
Ab initio methods for polariton chemistry.