Reset-induced entanglement phase transitions in measurement-free random quantum circuits are continuous for d=2 with second-order characteristics, unlike large-d classical expectations.
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A new measurement schedule turns the heavy-hex subsystem code into the dynamic compass code, which demonstrates a threshold for stability and supports fault-tolerant lattice surgery.
Soft decoding with analog measurement data raises repetition-code thresholds by 25% and reduces error rates up to 30x on superconducting qubits, with one byte per shot sufficient for near-optimal performance.
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Continuous Reset-Induced Phase Transition in Measurement-Free Random Quantum Circuits
Reset-induced entanglement phase transitions in measurement-free random quantum circuits are continuous for d=2 with second-order characteristics, unlike large-d classical expectations.
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Low-valency scalable quantum error correction with a dynamic compass code
A new measurement schedule turns the heavy-hex subsystem code into the dynamic compass code, which demonstrates a threshold for stability and supports fault-tolerant lattice surgery.
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Soft information decoding with superconducting qubits
Soft decoding with analog measurement data raises repetition-code thresholds by 25% and reduces error rates up to 30x on superconducting qubits, with one byte per shot sufficient for near-optimal performance.