Spin‐crossover (SCO) active transition metal complexes are an important class of
switchable molecular materials due to their bistable spin‐state switching characteristics at or …

The field of spin‐crossover complexes is rapidly evolving from the study of the spin transition
phenomenon to its exploitation in molecular electronics. Such spin transition is gradual in a …

Molecular spintronics seeks to use single or few molecules as functional building blocks for
spintronic applications, directly relying on molecular properties or properties of interfaces …

During last decades, significant advances have been made in iron-based spin crossover
(SCO) complexes, with a particular emphasis on achieving reversible and reproducible …

Spin crossover (SCO) molecules are promising nanoscale magnetic switches due to their
ability to modify their spin state under several stimuli. However, SCO systems face several …

The spin-crossover (SCO) phenomenon is one of the most prominent examples of bi-stability
in molecular chemistry, and the SCO complexes are proposed for nanotechnological …

Spin crossover complexes are a route toward designing molecular devices with a facile
readout due to the change in conductance that accompanies the change in spin state …

The transfer of the inherent bistability of spin crossover compounds to surfaces has attracted
considerable interest in recent years. The deposition of the complexes on surfaces allows …

Spin transition (ST) materials, exhibiting spin state conversions by external stimuli, have
been studied for over a half-century and have been continuing research interests owing to …

Herein, we report the first room temperature switchable Fe (III) molecular spin crossover
(SCO) tunnel junction. The junction is constructed from [FeIII (qsal-I) 2] NTf2 (qsal-I= 4-iodo-2 …