The Fano resonance in single‐molecule junctions could be created by interaction with
discrete and continuous molecular orbitals and enables effective electron transport …

The successful incorporation of molecules as active circuit elements relies on the ability to
tune their electronic properties through chemical design. A synthetic strategy that has been …

Using a first principles approach, we study the electron transport properties of two molecules
of length 2.5 nm, which are the building blocks for a new class of molecular wires containing …

We studied the interplay between quantum interference (QI) and molecular asymmetry in
charge transport through a single molecule. Eight compounds with five-membered core …

In recent years, a wide range of single-molecule devices has been realized, enabled by
technological advances combined with the versatility offered by synthetic chemistry. In …

The quest for molecular structures exhibiting strong quantum interference effects in the
transport setting has long been on the forefront of chemical research. We establish …

Quantum interference (QI) effects in molecular devices have drawn increasing attention over
the past years due to their unique features observed in the conductance spectrum. For the …

We present a general analytical formula and an ab initio study of quantum interference in
multibranch molecules. Ab initio calculations are used to investigate quantum interference in …

Efficient long-range charge transport is required for high-performance molecular electronic
devices. Resonant transport is thought to occur in single molecule junctions when molecular …

Understanding and manipulating quantum interference (QI) effects in single molecule
junction conductance can enable the design of molecular-scale devices. Here we …