Conveyor-mode electron shuttling enables high-fidelity single-qubit rotations via EDSR and tunable two-qubit interactions via diabatic gates in semiconductor spin qubits.
A.et al.Coherence Protection for Mobile Spin Qubits in Silicon (2026)
4 Pith papers cite this work. Polarity classification is still indexing.
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Confinement modulation during shuttling enables dressed-state dynamical decoupling that mitigates both global and local magnetic/electric noise in hole-spin qubits.
Relative motion between two boundary subsystems in a common structured environment opens a correlated-decoherence channel only above a kinematic threshold v > 2u_ϕ set by the boundary-mode dispersion.
Theoretical expressions for singlet return probability in multivalley Si double quantum dots near spin-valley resonances are derived, accounting for valley occupations, and validated against experiments to map valley splittings and probe g-factor dependence.
citing papers explorer
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Spin qubit operations by conveyor-mode shuttling
Conveyor-mode electron shuttling enables high-fidelity single-qubit rotations via EDSR and tunable two-qubit interactions via diabatic gates in semiconductor spin qubits.
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Suppressing spin qubit decoherence during shuttling via confinement modulation
Confinement modulation during shuttling enables dressed-state dynamical decoupling that mitigates both global and local magnetic/electric noise in hole-spin qubits.
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Correlated decoherence in a common environment activated by relative motion
Relative motion between two boundary subsystems in a common structured environment opens a correlated-decoherence channel only above a kinematic threshold v > 2u_ϕ set by the boundary-mode dispersion.
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Singlet-triplet oscillations in multivalley Si double quantum dots
Theoretical expressions for singlet return probability in multivalley Si double quantum dots near spin-valley resonances are derived, accounting for valley occupations, and validated against experiments to map valley splittings and probe g-factor dependence.