Machine Learning aiding the Discovery of better Strategies for Quantum Computing
ORAL · Invited
Abstract
As quantum technologies, including quantum computers, are scaling up, it becomes a challenge to harness the ever-growing complexity. Approaches based on machine learning are perfectly suited for this task. In this talk I will review how one can employ reinforcement learning, a powerful and general approach, to discover from scratch optimized feedback strategies. I will show how we are using model-free reinforcement learning to discover quantum error correction strategies like fault-tolerant logical state preparation. Moreover, we have applied the same technique in real experiments, for the first time training a real-time neural-network agent to feedback-control a superconducting qubit. Finally, I will mention our recently developed feedback-GRAPE technique for doing model-based reinforcement learning, and how this has already led to the discovery of an improved strategy for logical qubit stabilization in the GKP code setting.
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Publication: Puviani et al, arXiv 2312.07391 (accepted for publication in Physical Review Letters)<br>Porotti et al, PRX Quantum 4(3) 030305 (2023)<br>Zen et al, arXiv 2402.17761 (under review in Physical Review X)<br>Olle et al, npj Quantum Information vol. 10, 126 (2024)<br>Reuer et al, Nature Communications 14, 7138 (2023)
Presenters
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Florian Marquardt
Friedrich-Alexander University Erlangen-Nuremberg
Authors
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Florian Marquardt
Friedrich-Alexander University Erlangen-Nuremberg