Higher-order k corrections to Dirac dispersion enable Kohn-Luttinger superconductivity, producing topological p-ip pairing in broken-TR systems and anisotropic or warped pairings on TI surfaces.
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Quantum frustration protects the qubit from Ohmic noise and some sub-Ohmic noise but fails against common 1/f noise, causing spontaneous symmetry breaking and decoherence.
Zeeman field controls competition between superconductivity and disorder in helical edges, with disorder causing logarithmic suppression of density-wave correlations and positive corrections that stabilize superconducting pairs, altering spin conductance scaling.
Exponential protection of Majorana zero modes in finite disordered nanowires holds only for disorder much smaller than the superconducting gap.
citing papers explorer
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Pairing around a Single Dirac Point: A Unifying View of Kohn-Luttinger Superconductivity in Chern Bands, Quarter Metals, and Topological Surface States
Higher-order k corrections to Dirac dispersion enable Kohn-Luttinger superconductivity, producing topological p-ip pairing in broken-TR systems and anisotropic or warped pairings on TI surfaces.
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Quantum Frustration as a Protection Mechanism in Non-Topological Majorana Qubits
Quantum frustration protects the qubit from Ohmic noise and some sub-Ohmic noise but fails against common 1/f noise, causing spontaneous symmetry breaking and decoherence.
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Spin responses of a disordered helical superconducting edge under Zeeman field
Zeeman field controls competition between superconductivity and disorder in helical edges, with disorder causing logarithmic suppression of density-wave correlations and positive corrections that stabilize superconducting pairs, altering spin conductance scaling.
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Majorana zero modes in semiconductor-superconductor hybrid structures: Defining topology in short and disordered nanowires through Majorana splitting
Exponential protection of Majorana zero modes in finite disordered nanowires holds only for disorder much smaller than the superconducting gap.