Mobile spin qubits in silicon can leapfrog over occupied dots by exploiting low valley splitting, enabling new connectivity routes and SWAP^γ entangling gates.
Weight-four parity checks with silicon spin qubits
4 Pith papers cite this work. Polarity classification is still indexing.
citation-role summary
citation-polarity summary
years
2026 4verdicts
UNVERDICTED 4roles
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background 2representative citing papers
CAbLECAR provides a robotics-inspired shuttle scheduler that enables QLDPC codes on tileable spin-qubit hardware, yielding up to 86% faster schedules and orders-of-magnitude gains in encoding efficiency and logical error rates over surface codes.
Experimental demonstration of universal controllability, parallel readout, and certified three-qubit GHZ entanglement with extended lifetime in a two-unit-cell SiMOS quantum processor.
A driven mediator quantum dot enables rapid single-pulse universal entangling gates between resonant exchange qubits via capacitive coupling, avoiding complex leakage-mitigation sequences.
citing papers explorer
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Spin Qubit Leapfrogging: Dynamics of shuttling electrons on top of another
Mobile spin qubits in silicon can leapfrog over occupied dots by exploiting low valley splitting, enabling new connectivity routes and SWAP^γ entangling gates.
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CAbLECAR: efficiently scheduling QLDPC codes on a tileable spin qubit chip with shuttling
CAbLECAR provides a robotics-inspired shuttle scheduler that enables QLDPC codes on tileable spin-qubit hardware, yielding up to 86% faster schedules and orders-of-magnitude gains in encoding efficiency and logical error rates over surface codes.
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Multi-Qubit Entanglement of Unit Cell Pairs in SiMOS
Experimental demonstration of universal controllability, parallel readout, and certified three-qubit GHZ entanglement with extended lifetime in a two-unit-cell SiMOS quantum processor.
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Enabling Modularity for Spin Qubits via Driven Quantum Dot-Mediated Entanglement
A driven mediator quantum dot enables rapid single-pulse universal entangling gates between resonant exchange qubits via capacitive coupling, avoiding complex leakage-mitigation sequences.