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Single-shot fault-tolerant quantum error correction
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Conventional quantum error correcting codes require multiple rounds of measurements to detect errors with enough confidence in fault-tolerant scenarios. Here I show that for suitable topological codes a single round of local measurements is enough. This feature is generic and is related to self-correction and confinement phenomena in the corresponding quantum Hamiltonian model. 3D gauge color codes exhibit this single-shot feature, which applies also to initialization and gauge-fixing. Assuming the time for efficient classical computations negligible, this yields a topological fault-tolerant quantum computing scheme where all elementary logical operations can be performed in constant time.
Forward citations
Cited by 2 Pith papers
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Planar fault-tolerant circuits for non-Clifford gates on the 2D color code
The paper constructs a family of planar fault-tolerant 'twisted color circuits' that implement logical T gates and magic-state measurements on the 2D color code via a path-integral and color-cohomology framework.
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Classifying Logical Gates in Quantum Codes via Cohomology Operations and Symmetry
Cohomology operations, including new higher Pontryagin powers, yield constant-depth logical R_k and multi-controlled R_k gates in homological quantum codes on projective spaces, extending the known color-code paradigm.
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