Research
I work on problems in strongly correlated quantum matter and quantum dynamics, with a focus on near-term applications in atomic, molecular and optical (AMO) experiments and other analog quantum simulators such as transmon qubits. My graduate work addressed equilibrium phases and transport in low-dimensional quantum matter, where quantum fluctuations and strong interactions compete. As a postdoc I have studied out-of-equilibrium states generated by open and monitored quantum dynamics, which matter more and more as quantum computers move toward error correction. I am also interested in better numerical methods for classical simulation of quantum states.
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4 papers
Transport properties
How charge, spin and heat move through strongly interacting, low-dimensional quantum systems.
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5 papers
Open and monitored dynamics
Out-of-equilibrium states produced by measurement or dissipation, increasingly relevant for quantum computers.
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9 papers
Strongly correlated phases
Ground states and equilibrium phases where quantum fluctuations compete with strong interactions.
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10 papers
Numerical methods
Efficient classical simulation of quantum states with tensor networks, numerical path integrals and machine learning.