Modern nanotechnology allows one to scale down various important devices (sensors,
chips, fibers, etc.) and thus opens up new horizons for their applications. The efficiency of …

The Fano resonance in single‐molecule junctions could be created by interaction with
discrete and continuous molecular orbitals and enables effective electron transport …

Experiments on spin transport through a chiral molecule demonstrated the attainment of
significant spin polarization, demanding a theoretical explanation. We report the emergence …

Asymmetric line shapes can occur in the transmission function describing electron transport
in the vicinity of a minimum caused by quantum interference effects. Such asymmetry can be …

We analyze the quantum interference effects appearing in the charge current through the
double quantum dots coupled in T-shape configuration to an isotropic superconductor and …

Density functional theory (DFT) and the non-equilibrium Green's function (NEGF) formalism
in the linear response regime were employed to investigate the impact of do** on the …

Spin-polarized transport through a double quantum dot system attached to a common
superconducting lead and two ferromagnetic electrodes (fork geometry) is investigated …

The utilization of light-driven functional molecules as components of nanoscale devices has
the potential to contribute to advancements in electronic circuit shrinkage. By incorporating …

Quantum interference (QI) effects in molecular devices have drawn increasing attention over
the past years due to their unique features observed in the conductance spectrum. For the …

In the present work, we investigate the electronic transport through a T-shape double
quantum dot system coupled to two normal leads and to one superconducting lead. We …