I am a theoretical physicist working at the intersection of quantum optics, quantum information, and many-body physics. My research is broadly concerned with exploring intriguing phenomena in many-body atomic, molecular, and optical (AMO) systems, developing theoretical methods to understand them, and harnessing them for quantum information processing. I also enjoy exchanging ideas with theorists from diverse backgrounds and collaborating with experimentalists to turn our theoretical proposals into reality.
We are dedicated to developing novel schemes for quantum information processing in Rydberg arrays, including new quantum simulation architectures, fast and robust gate operations, as well as efficient error mitigation.
We develop universal approaches for understanding complex multiphoton correlations mediated by strong light-matter interactions and for harnessing such a quantum nonlinearity to manipulate photonic many-body states.
We aim to discover exotic quantum dynamics and phases out of equilibrium, including quantum thermalization, ergodicity breaking, and driven-dissipative quantum matter.
Our goal is to design near-term algorithms and protocols for non-unitary operation, entanglement manipulation, feed-forward control, and efficient quantum measurement.