This book bridges the gap between elementary quantum transport books and more rigorous
graduate-level material on the quantum field theory of many-body systems. The book …

Band gap size of armchair graphene nanoribbons (AGNRs) can be tuned by implementing
topological antidotes or boron/nitride (BN) atoms at the middle of ribbons. By imposing such …

The electronic properties of armchair graphene nanoribbons (AGNRs) can be changed by
creating antidotes within the pristine ribbons and producing antidote super lattice AGNRs …

We put forward a concept to create highly collimated, nondispersive electron beams in
pseudorelativistic Dirac materials such as graphene or topological insulator surfaces …

We present an extensive study of the electronic properties and carrier transport in
phosphorene nanoribbons (PNRs) with edge defects by using rigorous atomistic quantum …

The electrical characteristics of armchair edge graphene nanoribbon field-effect transistors
in the presence of line-edge roughness scattering are studied. Self-consistent atomistic …

Since graphene has been discovered, two-dimensional nanomaterials have attracted
attention due to their promising tunable electronic properties. The possibility of tailoring …

Atomistic quantum transport simulations of a large ensemble of devices are employed to
investigate the impact of different sources of disorder on the transport properties of extremely …

The effects of substrate on the electronic properties of Graphene remains unclear. Many
theoretical and experimental efforts have been done to clarify this discrepancy. In this work …

The electronic and optical properties of armchair germanene nanoribbons (AGeNRs) are
studied using the first principles calculations. The band structure, band-gap size, projected …