Creating functional electrical circuits using individual or ensemble molecules, often termed
as “molecular-scale electronics”, not only meets the increasing technical demands of the …

Understanding electron transport across π− π-stacked systems will help to answer
fundamental questions about biochemical redox processes and benefit the design of new …

We determine and compare, at the single molecule level and under identical environmental
conditions, the electrical conductance of four conjugated phenylene oligomers comprising …

Through-space conjugated molecules are interesting building blocks for the construction of
functional materials that allow multi-dimensional transport of carrier and energy. However …

We report the electrical transport behavior of a series of redox-active conjugated molecular
wires as a function of temperature and molecular length. The wires consist of covalently …

We report on single molecule electron transport measurements of two
oligophenylenevinylene (OPV3) derivatives placed in a nanogap between gold (Au) or lead …

Deciphering charge transport through multichannel pathways in single‐molecule junctions
is of high importance to construct nanoscale electronic devices and deepen insight into …

Tracking various chemical reactions, including electrochemical and photochemical reactions
at the single-molecule level, is expected to yield a great deal of knowledge from both …

Through-bond conjugated molecules are the major frameworks for traditional molecular
wires, while through-space conjugated units are rarely utilized and studied although they …

A ruthenium (II) bis (σ-arylacetylide)-complex-based molecular wire functionalized with
thiolacetyl alligator clips at both ends (OPERu) was used to fabricate gold substrate …