Research
Our group studies fault-tolerant quantum computing across theory, architecture, algorithms, and experiment-facing implementation. For the complete and most up-to-date publication list, please see our Google Scholar page.
Low-Overhead Quantum Error Correction and Fault Tolerance
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We develop quantum error correction (QEC) methods that reduce space-time overhead. This spans the design of more efficient QEC codes, improved logical gate constructions, faster and more accurate decoders, and how all of these pieces fit together. |
Fault-Tolerant Algorithm Compilation and Resource Estimation
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We build end-to-end fault-tolerant compilation pipelines that connect logical operations to practical algorithm performance, seeking out opportunities for resource reduction through the judicious co-design of QEC protocols and algorithmic structure. |
Quantum Hardware-Software Co-Design
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We co-design QEC protocols with hardware constraints and collaborate closely with experimental groups to implement and test our schemes on real quantum hardware. |
Distributed Quantum Computing and Networking
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We explore protocols for scalable, networked quantum systems, including efficient schemes for logical entanglement distribution and compilation of distributed quantum computations. |
Quantum Simulation and Control
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We design robust control methods for interacting quantum systems and apply them to quantum simulation, sensing, and many-body dynamics. |