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 …

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 …

Nonvolatile, molecular multiferroic devices have now been demonstrated, but it is worth
giving some consideration to the issue of whether such devices could be a competitive …

Light‐induced spin‐state switching is one of the most attractive properties of spin‐crossover
materials. In bulk, low‐spin (LS) to high‐spin (HS) conversion via the light‐induced excited …

Voltage-controlled nonvolatile isothermal spin state switching of a [Fe {H2B (pz) 2} 2
(bipy)](pz= tris (pyrazol-1–1y)-borohydride, bipy= 2, 2′-bipyridine) film, more than 40 to 50 …

The bistability of spin-crossover complexes on surfaces is of great interest for potential
applications. Using X-ray absorption spectroscopy, we investigated the properties of [Fe …

Spin-crossover complexes are attractive for their spin-switching functionality. However, only
a few compounds have been found to remain intact in direct contact to metal surfaces. For …

Materials based on spin crossover (SCO) molecules have centered the attention in
molecular magnetism for more than 40 years as they provide unique examples of …

Here, we examine the conductance changes associated with the change in spin state in a
variety of different structures, using the example of the spin crossover complex [Fe (H2B (pz) …