Welcome to the

Our team is working to unlock one of the most intriguing mysteries in modern science: How do quantum effects—typically fragile and short-lived—manage to survive in the noisy, high-temperature environments of the real world?
We focus on understanding “quantum coherence,” the phenomenon that allows particles to act in unison across large scales. This behavior is behind some of the most remarkable effects in physics, including superconductivity, superfluorescence, and Bose-Einstein condensation. Our research combines theory and experiment to uncover how these effects can persist in complex materials—even under conditions once thought to destroy them.
By revealing the hidden rules that protect quantum behavior, we hope to open doors to powerful new technologies, from ultra-efficient electronics to robust quantum computers.
Explore our site to learn more about our work, our team, and how you can get involved.
Selected Publications
Unconventional solitonic high-temperature superfluorescence from perovskites
Room-temperature superfluorescence in hybrid perovskites and its origins
Nature Photonics., 16, pages 324-329 (2022)