Radicals are unique molecular systems for applications in electronic devices due to their
open-shell electronic structures. Radicals can function as good electrical conductors and …

Molecular one-dimensional topological insulators (1D TIs), which conduct through
energetically low-lying topological edge states, can be extremely highly conducting and …

We achieve, at room temperature, conductance enhancements over 2 orders of magnitude
in single molecule circuits formed with polycyclic benzoquinoidal (BQn) diradicals upon …

Molecular one-dimensional topological insulators (1D TIs), described by the Su–Schrieffer–
Heeger (SSH) model, are a new class of molecular electronic wires whose low-energy …

Single-molecule one-dimensional topological insulator (1D TI) is a class of molecular wires
that exhibit increasing conductance with wire length. This unique trend is due to the coupling …

Realization of topological quantum states in carbon nanostructures has recently emerged as
a promising platform for hosting highly coherent and controllable quantum dot spin qubits …

Single-molecule electrical junctions possess a molecular core connected to source and
drain electrodes via anchor groups, which feed and extract electricity from specific atoms …

Metal-free diradicals based on polycyclic aromatic hydrocarbons are promising candidates
for organic spintronics due to their stable magnetism and tunable spin coupling. However …

One of the key issues for the use of organic radicals in high-performance molecular
electronic, spintronic and thermoelectric devices is the retention, at room temperature, of …

The retention of the open-shell character of radicals when they are contacted to metallic
electrodes in a junction is the primary prerequisite for their applications in high-performance …