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 …

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 realization of spin‐crossover (SCO)‐based applications requires study of the spin‐state
switching characteristics of SCO complex molecules within nanostructured environments …

The electron spin made its debut in the device world only two decades ago but today our
ability of detecting the spin state of a moving electron underpins the entire magnetic data …

Spin cross-over molecules show the unique ability to switch between two spin states when
submitted to external stimuli such as temperature, light or voltage. If controlled at the …

Molecular spintronics, a field that utilizes the spin state of organic molecules to develop
magneto-electronic devices, has shown an enormous scientific activity for more than a …

Addressing individual bistable magnetic molecules, known as Single Molecule Magnets
(SMMs), is a fascinating goal at the borderline between molecular magnetism and spin …

The field of spintronics has triggered an enormous revolution in information storage since
the first observation of giant magnetoresistance (GMR). Molecular semiconductors are …

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 …

A number of studies have suggested that molecular materials could offer similar
performance as, or even potentially supersede, those of inorganic materials in spintronics …