Paper "Classically estimating observables of noiseless quantum circuits" accepted by Physical Review Letters (PRL) and selected as an Editors’ Suggestion.
New work on classical simulation of noisy bosonic circuits posted on arXiv.
Work on information-theoretic limits of quantum learning accepted by IEEE Conference on Quantum Artificial Intelligence.
Paper on noise-tolerant unitary learning published in Quantum.
Invited to give tutorials on Pauli propagation methods at QTML 2025 (Singapore) and the IEEE Quantum AI conference.
Background
Currently a postdoctoral researcher at EPFL in the Quantum Information and Computation Group led by Prof. Zoë Holmes.
Research lies at the intersection of quantum computing, information theory, and machine learning.
Holds a dual background in computer science and physics, aiming to understand the computational power and limitations of quantum systems.
Focuses on how noise and physical constraints shape the boundary between quantum and classical computation, and how they can enable efficient classical simulation.
Interested in quantum learning theory and quantum differential privacy, with an emphasis on frameworks that are both theoretically rigorous and experimentally relevant.