Using individual molecules as conducting bridges for electrons offers opportunities when
investigating quantum phenomena that are not readily accessible from experiments …

Molecular electronics is driven by the dream of expanding Moore's law to the molecular level
for next‐generation electronics through incorporating individual or ensemble molecules into …

When electrons are injected through a chiral molecule, the resulting current may become
spin polarized. This effect, known as the chirality-induced spin-selectivity (CISS) effect, has …

Electrons moving through chiral molecules are selected according to their spin orientation
and the helicity of the molecule, an effect known as chiral-induced spin selectivity (CISS) …

Many spintronic devices rely on the presence of spin-polarized currents at zero magnetic
field. This is often obtained by spin exchange-bias, where an element with long-range …

Metallocenes are highly versatile organometallic compounds. The versatility of the
metallocenes stems from their ability to stabilize a wide range of formal electron counts. To …

Ferrocenes are ubiquitous organometallic building blocks that comprise a Fe atom
sandwiched between two cyclopentadienyl (Cp) rings that rotate freely at room temperature …

The achievement of atomic control over the organic–inorganic interface is key to
engineering electronic and spintronic properties of molecular devices. We leverage insights …

Single-molecule circuits with group 8 metallocenes are formed without additional linker
groups in scanning tunneling microscope-based break junction (STMBJ) measurements at …

Atomic-scale reproducibility and tunability endorse magnetic molecules as candidates for
spin qubits and spintronics. A major challenge is to implant those molecular spins into circuit …