Near a magic twist angle, bilayer graphene transforms from a weakly correlated Fermi liquid
to a strongly correlated two-dimensional electron system with properties that are …

As the dimensions of a material shrink from an extended bulk solid to a nanoscale structure,
size and quantum confinement effects become dominant, altering the properties of the …

The exceptional control of the electronic energy bands in atomically thin quantum materials
has led to the discovery of several emergent phenomena. However, at present there is no …

Skin effect, where macroscopically many bulk states are aggregated toward the system
boundary, is one of the most important and distinguishing phenomena in non-Hermitian …

Quantum materials are notoriously sensitive to their environments, where small
perturbations can tip a system toward one of several competing ground states. Graphene …

Alternating current RLC electric circuits form an accessible and highly tunable platform
simulating Hermitian as well as non-Hermitian (NH) quantum systems. We propose here a …

The physical realization of pseudomagnetic fields (PMFs) is an engaging frontier of
research. As in graphene, elastic PMF can be realized by the structural modulations of Dirac …

The field of valleytronics considers the creation and manipulation of “valley states”, charge
excitations characterized by a particular value of the crystal momentum in the Brillouin zone …

Terahertz spectroscopy is a perfect tool to investigate the electronic intraband conductivity of
graphene, but a phenomenological model (Drude-Smith) is often needed to describe …

We realize moiré fringe induced gauge field in a double-layer photonic honeycomb
metacrystal with mismatched lattice constants. Benefitting from the generated strong …