The proximity-induced pair potential in a topological insulator–superconductor hybrid
features an interesting superposition of a conventional spin-singlet component from the …

We study transport in undoped graphene in the presence of a superlattice potential both
within a simple continuum model and using numerical tight-binding calculations. The …

Scattering processes in quantum materials emerge as resonances in electronic transport,
including confined modes, Andreev states, and Yu-Shiba-Rusinov states. However, in most …

The approach applicable for spatially inhomogeneous and time-dependent problems
associated with the induced superconductivity in low-dimensional electronic systems is …

We report a characterization of surfaces of the dichalcogenide TaSe 2 using scanning
tunneling microscopy and spectroscopy at 150 mK. When the top layer has the 2 H structure …

The electronic properties of junctions defined electrostatically on twisted bilayer graphene
can be addressed theoretically using lattice models. Recent works have introduced minimal …

This work presents a novel approach to describing spectral properties of graphene layers
with well-defined edges. We microscopically analyze the boundary problem for the …

The rising interest in Dirac materials, condensed-matter systems where low-energy
electronic excitations are described by the relativistic Dirac Hamiltonian, entails a need for …

We show that a graphene pnp junction with a central superconducting electrode acts as a
Veselago lens for incoming electrons by focusing them and their phase-conjugated …

Several recent works have predicted that unconventional and topological superconductivity
can arise in graphene, either intrinsically or by proximity effect. Then, the analysis of the …