Single-molecule junctions—devices in which a single molecule is electrically connected by
two electrodes—enable the study of a broad range of quantum-transport phenomena even …

Having served as a playground for fundamental studies on the physics of d and f electrons
for almost a century, magnetic molecules are now becoming increasingly important for …

Stable organic radicals have potential applications for building organic spintronic devices.
To fulfill this potential, the interface between organic radicals and metal electrodes must be …

We report transport measurements on tunable single-molecule junctions of the organic
perchlorotrityl radical molecule, contacted with gold electrodes at low temperature. The …

Single-molecule techniques can reveal new fundamental physical and chemical effects of
matters at the single-molecule scale, and build functional devices based on molecular …

We present a combination of density functional theory and dynamical mean-field theory
(DMFT) for computing the electron transmission through two-terminal nanoscale devices …

In this work, we study the interface obtained by depositing a monolayer of a Blatter radical
derivative on polycrystalline cobalt. By examining the occupied and unoccupied states at the …

We present a computational approach for electronically correlated metallic surfaces and
interfaces, which combines density functional and dynamical mean-field theory using a …

Strongly correlated physics arises due to electron-electron scattering within partially-filled
orbitals, and in this perspective, organic molecules in open-shell configuration are good …

Hybrid quantum dot structures are potential building blocks for spintronic devices and
quantum logic gates, within which the understanding of many-body correlations is a …