Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no longer separated. This enables fast manipulation of qubit states by means of microwave electric fields. We report Rabi oscillation frequencies exceeding 100 MHz for spin-orbit qubits in InSb nanowires. Individual qubits can be selectively addressed due to intrinsic differences in their g factors. Based on Ramsey fringe measurements, we extract a coherence time T2*=8±1¿¿ns at a driving frequency of 18.65 GHz. Applying a Hahn echo sequence extends this coherence time to 34 n
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Similar to their charge, electrons also posses an intrinsic magnetic moment called spin. Whenmoving ...
Similar to their charge, electrons also posses an intrinsic magnetic moment called spin. Whenmoving ...
We use magnetoconductance measurements in dual-gated InSb nanowire devices, together with a theoreti...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Because of the strong spin-orbit interaction in indium antimonide, orbital motion and spin are no lo...
Similar to their charge, electrons also posses an intrinsic magnetic moment called spin. Whenmoving ...
Similar to their charge, electrons also posses an intrinsic magnetic moment called spin. Whenmoving ...
We use magnetoconductance measurements in dual-gated InSb nanowire devices, together with a theoreti...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...
A double quantum dot in the few-electron regime is achieved using local gating in an InSb nanowire. ...