Quantum Transport Through Tunable Molecular Diodes.

Employing self-interaction corrected density functional theory combined with the non-equilibrium Green's function method, we study the quantum transport through molecules with different numbers of phenyl (donor) and pyrimidinyl (acceptor) rings in order to evaluate the effects of the molecular composition on the transport properties. Excellent agreement with the results of recent experiments addressing the rectification behavior of molecular junctions is obtained, which demonstrates the potential of quantum transport simulations for designing high performance junctions by tuning the molecular specifications.

Influence of transition metal doping on the electronic and optical properties of ReS and ReSe monolayers.

We investigate the structural, electronic and optical properties of transition metal doped triclinic monolayered rhenium disulfide and diselenide (ReS and ReSe) by means of quantum mechanical calculations. The calculated electronic band gaps for ReS and ReSe monolayers are 1.43 eV and 1.