Two-dimensional atomic crystals can radically change their properties in response to
external influences, such as substrate orientation or strain, forming materials with novel …

Research about two-dimensional (2D) materials is growing exponentially across various
scientific and engineering disciplines due to the wealth of unusual physical phenomena that …

The energy band structure of graphene has two inequivalent valleys at the K and K′ points
of the Brillouin zone. The possibility to manipulate this valley degree of freedom defines the …

Graphene's exceptional mechanical properties, including its highest-known stiffness (1 TPa)
and strength (100 GPa), have been exploited for various structural applications. However …

Many of the properties of graphene are tied to its lattice structure, allowing for tuning of
charge carrier dynamics through mechanical strain. The graphene electromechanical …

One of the intriguing characteristics of honeycomb lattices is the appearance of a
pseudomagnetic field as a result of mechanical deformation. In the case of graphene, the …

This paper presents a theoretical description of the effects of strain induced by out-of-plane
deformations on charge distributions and transport on graphene. A review of a continuum …

Pseudomagnetic fields, which can result from nonuniform strain distributions, have received
much attention in graphene systems due to the possibility of mimicking real magnetic fields …

We investigate the effects of nonuniform uniaxial strain and triaxial strain on the α-T 3 lattice.
The analytical expressions of the pseudo-Landau levels (pLLs) are derived based on low …

In topological semimetals, the bands can cross at points or lines with different dimensionality
and connectivity in momentum space. For graphene and other systems hosting zero …