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 …

This article offers a broad overview of measurement methods in the field of molecular
electronics, with a particular focus on the most common single-molecule junction fabrication …

Incorporating temperature-and air-stable organic radical species into molecular designs is a
potentially advantageous means of controlling the properties of electronic materials …

Nanoscale electro-mechanical systems (NEMS) displaying piezoresistance offer unique
measurement opportunities at the sub-cellular level, in detectors and sensors, and in …

Automated iterative small-molecule synthesis has the potential to advance and democratize
the discovery of new medicines, materials and many other classes of functional chemical …

Proteins play a key role in biological electron transport, but the structure–function
relationships governing the electronic properties of peptides are not fully understood …

The development of next-generation organic electronic materials critically relies on
understanding structure-function relationships in conjugated polymers. However, unlocking …

Experimental mapping of transmission is essential for understanding and controlling charge
transport through molecular devices and materials. Here we developed a single-molecule …

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

Achieving highly transmitting molecular junctions through resonant transport at low bias is
key to the next-generation low-power molecular devices. Although resonant transport in …