Reply to "Comment on 'Spin-dependent electron transmission model for chiral molecules in mesoscopic devices'"

Abstract

Here we emphasize once more the distinction between generating CISS (spin-charge current conversion) in a chiral system and detecting it as magnetoresistance in two-terminal electronic devices. We also highlight important differences between electrical measurement results obtained in the linear response regime and those obtained in the nonlinear regime.

References in corpus (7)

• Collective Transport in Arrays of Quantum Dots
• Magnetic-field asymmetry of nonlinear mesoscopic transport
• Spin-dependent transport through a chiral molecule in the presence of spin-orbit interaction and non-unitary effects
• Spin-Dependent Electron Transmission Model for Chiral Molecules in Mesoscopic Devices
• Continuum model for chiral induced spin selectivity in helical molecules
• Detecting chirality in two-terminal electronic devices
• Spin-flip scattering in chiral induced spin selectivity using the Riccati equation

Cited by in corpus (8)

• Detecting chirality in two-terminal electronic devices
• Spin selectivity through time-reversal symmetric helical junctions
• Structural Chirality and Electronic Chirality in Quantum Materials
• Magnetochiral Charge Pumping due to Charge Trapping and Skin Effect in Chirality-Induced Spin Selectivity
• The contribution of intermolecular spin interactions to the London dispersion forces between chiral molecules
• Spin-filtering in a $p$-orbital helical atomic chain
• Mind the Gap: From Resolving Theoretical Foundations of Chiral(ity)-Induced Spin Selectivity to Pioneering Implementations in Quantum Sensing
• Linear-response magnetoresistance effects in chiral systems