Vibronic coupling, the interaction between molecular vibrations and electronic states, is a
fundamental effect that profoundly affects chemical processes. In the case of molecular …

Spin–phonon coupling plays an important role in single-molecule magnets and molecular
qubits. However, there have been few detailed studies of its nature. Here, we show for the …

The coupling between electronic spins and lattice vibrations is fundamental for driving
relaxation in magnetic materials. The debate over the nature of spin-phonon coupling dates …

We perform a systematic investigation of the spin-phonon coupling leading to spin relaxation
in the prototypical mononuclear single molecule magnet [(tpaPh) Fe]−. In particular we …

To design molecular spin qubits and nanomagnets operating at high temperatures, there is
an urgent need to understand the relationship between vibrations and spin relaxation …

The fast Raman relaxation process via a virtual energy level has become a puzzle for how to
chemically engineer single‐molecule magnets (SMMs) with better performance. Here, we …

" The book succeeds at presenting the diversity of approaches required and used to
understand and exploit single-molecule magnets (SMMs)…. The references are …

Accurate modeling of vibronically driven magnetic relaxation from ab initio calculations is of
paramount importance to the design of next-generation single-molecule magnets (SMMs) …

The promising future of storing and processing quantized information at the molecular level
has been attracting the study of Single-Molecule Magnets (SMMs) for almost three decades …

Exponential and power law temperature dependences are widely used to fit experimental
data of magnetic relaxation time in single molecular magnets. We derived a theory to show …