We propose a novel heterostructure to achieve chiral topological superconductivity in two
dimensions. A substrate with a large Rashba spin-orbit coupling energy is brought in …

Superconducting proximity effects in graphene have received a great deal of attention for
over a decade now. This has unveiled a plethora of exotic effects linked to the specificities of …

We study the emergence of electronic edge states in superconducting monolayer, bilayer,
and trilayer graphene for both spin-singlet and spin-triplet superconducting order …

We review all symmetry-allowed spin-singlet and spin-triplet superconducting order
parameters in graphene (s-wave, d-wave, p-wave, and f-wave) generated by generic on …

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

We study theoretically the phase-dependent thermal transport in graphene-based
Josephson junctions and highlight the role of Klein-like tunneling in the thermal energy …

High-T C cuprate superconductors' growth conditions and their incompatibility with some of
the most standard nanofabrication approaches make their large-scale integration with 2D …

In this paper, we study differential shot noise in ferromagnet-insulator-superconductor
graphene junction with time-reversal symmetry broken (TRSB) where we consider two …

Honeycomb and square lattices are combined as a tight-binding model to examine the
Andreev reflection in graphene nanoribbons induced by a superconductor. The …

An approximate method for implementing the d-wave superconductivity in the tight-binding
lattice model for graphene is proposed. A real-space pair potential having the d-wave …