High confinement of surface plasmon polaritons in graphene have important applications in
many aspects. In this paper, we have demonstrated that high-quality multi-band absorption …

We study dynamics of Dirac solitons in prototypical networks modeling them by the
nonlinear Dirac equation on metric graphs. Stationary soliton solutions of the nonlinear …

We consider the dynamics of relativistic spin-half particles in quantum graphs with
transparent branching points. The system is modeled by combining the quantum graph …

Graphene nanoribbons (GNRs) are promising components in future nanoelectronics due to
the large mobility of graphene electrons and their tunable electronic band gap in …

Here, the quantization of Dirac fermions in lithographically defined graphene
nanoconstrictions is studied. Quantized conductance is observed in single nanoconstrictions …

We investigate the transport properties in T-shaped armchair graphene nanoribbons with a
zigzag-edge sidearm connected to two normal-conducting leads. For semiconducting …

We investigate the Majorana fermions in a T-shaped semiconductor nanostructure with the
Rashba spin–orbit coupling and a magnetic field in the proximity of an s-wave …

The electronic and transport properties of hybrid armchair–zigzag nanostructures, which
include right-angles-shaped GNRs, U-shaped GNRs, and patterned nanopores structured …

Zigzag-edged graphene nanoribbon (ZGNR) has great potential in designing quantum
waveguide devices to conduct electric currents metallically. Using non-equilibrium Green's …

Quantum interference plays an important role in tuning the transport property of nano-
devices. Using the non-equilibrium Green's Function method in combination with density …