Topological superconductivity in one dimension requires time-reversal symmetry breaking,
but at the same time, it is hindered by external magnetic fields. We offer a general …

The design and synthesis of novel two‐dimensional (2D) materials that possess robust
structural stability and unusual physical properties may open up enormous opportunities for …

The highly tunable nature of synthetic quantum materials—both in the solid-state and cold
atom contexts—invites examining which microscopic ingredients aid in the realization of …

Layered materials exhibit a plethora of fascinating properties. The challenge is to make the
materials into epitaxial films, preferably integrated with mature technological platforms to …

Effects of lateral compression on out-of-plane deformation of two-dimensional MoSe2 layers
are investigated. A MoSe2 monolayer develops periodic wrinkles under uniaxial …

The search for topological superconductors is one of the most pressing and challenging
questions in condensed-matter and material research. Despite some early suggestions that …

We investigate the superconducting phase diagram of twisted bilayer graphene
quasicrystals (TBGQC) obtained by stacking two monolayer graphene sheets with a …

Two-dimensional arrays of superconductors separated by normal metallic regions exhibit
rich phenomenology and a high degree of controllability. We establish such systems as …

Unconventional superconductivity in bilayer graphene has been reported for twist angles θ
near the first magic angle and charged electrostatically with holes near half filling of the …

We explore superconductivity in strongly interacting electrons on a decorated honeycomb
lattice (DHL). An easy-plane ferromagnetic interaction arises from spin-orbit coupling in the …