Single-molecule spintronics investigates electron transport through magnetic molecules that
have an internal spin degree of freedom. To understand and control these individual …

We present a careful and thorough microscopic derivation of the anisotropic Kondo
Hamiltonian for single-molecule magnet (SMM) transistors. When the molecule is strongly …

The ability to make electrical contact to single molecules creates opportunities to examine
fundamental processes governing electron flow on the smallest possible length scales. We …

We consider transport through a single-molecule magnet strongly coupled to metallic
electrodes. We demonstrate that, for a half-integer spin of the molecule, electron and spin …

Controlling electronic transport through a single-molecule junction is crucial for molecular
electronics or spintronics. In magnetic molecular devices, the spin degree-of-freedom can be …

We demonstrate that in a single molecule magnet strongly coupled to electrodes the Kondo
effect involves all magnetic excitations. This Kondo effect is induced by the quantum …

Molecular electronics offers unique scientific and technological possibilities, resulting from
both the nanometre scale of the devices and their reproducible chemical complexity. Two …

Transport through molecular magnets is studied in the regime of strong coupling to the
leads. We consider a resonant-tunneling model where the electron spin in a quantum dot or …

Advances in molecular electronics depend on the ability to control the charge and spin of
single molecules at the interface with a metal. Here we show that bonding of metal–organic …

As the dimensions of a conductor approach the nanoscale, quantum effects begin to
dominate, and it becomes possible to control the conductance through direct manipulation of …