2 article(s) from Yeyati, Alfredo Levy
Figure 1: (a) Schematic representation of the setup analyzed in the present work. A nanowire of rectangular c...
Figure 2: Majorana nanowire subject to interactions from the electrostatic environment (ignoring the influenc...
Figure 3: Majorana wave functions in the non-interacting case: Energy levels (a) and the absolute value of th...
Figure 4: Same as Figure 3 but for the interacting case (without leads). In the pinned regions the Majorana wave func...
Figure 5: Majorana nanowire subject to interactions from the electrostatic environment (including the influen...
Figure 6: Evolution with Zeeman field of the spectrum (a) and the absolute value of the Majorana charge QM (b...
Figure 1: Schematic setups studied in this paper. a) S–QD–TS geometry: S denotes a conventional s-wave BCS su...
Figure 2: Phase dependence of the subgap spectrum of an S–QD–TS junction in the noninteracting case, U = 0. T...
Figure 3: Phase-dependent ABS spectrum from mean-field theory for S–QD–TS junctions as in Figure 2 but with U > 0 and...
Figure 4: Main panel: Mean-field results for the CPR of S–QD–TS junctions with different Γ/Δ values, where we...
Figure 5: Main panel: Mean-field results for the critical current Ic vs local magnetic field scale Bx in S–QD...
Figure 6: Main panel: Critical current Ic vs Zeeman energy Vx for an S–TS junction using the spinful TS nanow...
Figure 7:
CPR for the S–TS junction with = 1 in Figure 6, for different bulk Zeeman fields Vx (in meV) near the crit...
Figure 8: Main panel: Critical current Ic vs Zeeman energy Vx for S–QD–TS junctions from mean-field theory us...
Figure 9: Main panel: Mean-field results for Ic vs Bz in S–QD–TS junctions for several values of ΓS = ΓTS = Γ...