A comprehensive understanding of carrier transport in photoisomeric molecular junctions is
crucial for the rational design and delicate fabrication of single-molecule functional devices …

Chemistry of the Au–S interface at the nanoscale is one of the most complex systems to
study, as the nature and strength of the Au–S bond change under different experimental …

While a multitude of studies have appeared touting the use of molecules as electronic
components, the design of molecular switches is crucial for the next steps in molecular …

Main group molecular electronics is an emerging area that investigates quantum transport
through main group backbones within molecular junctions. It merges two rapidly advancing …

Molecular electronics break-junction experiments are widely used to investigate
fundamental physics and chemistry at the nanoscale. Reproducibility in these experiments …

The metal‐electrode interface is key to unlocking emergent behaviour in all organic
electrified systems, from battery technology to molecular electronics. In the latter, interfacial …

Existing modelling tools, developed to aid the design of efficient molecular wires and to
better understand their charge‐transport behaviour and mechanism, have limitations in …

There are several binding groups used within molecular electronics for anchoring molecules
to metal electrodes (eg, R− SMe, R− NH2, R− CS2−, R− S−). However, some anchoring …

Thermoelectric materials have garnered significant interest for their potential to efficiently
convert waste heat into electrical energy at room temperature without moving parts or …

Single molecule conductance measurements typically rely on functional linker groups to
anchor the molecule to the conductive electrodes through a donor–acceptor or covalent …