Molecular spins are promising building blocks of future quantum technologies thanks to the
unparalleled flexibility provided by chemistry, which allows the design of complex structures …

The present prospect of single-molecule magnets (SMMs) research is more appealing after
the detection of magnetic remanence above liquid-nitrogen temperatures. From the current …

The study of how spin interacts with lattice vibrations and relaxes to equilibrium provides
unique insights into its chemical environment and the relation between electronic structure …

Recent advances in our comprehension of the electronic structure of metal ammonia
complexes have opened avenues for novel materials with diffuse electrons. These …

Improving the performance of molecular qubits is a fundamental milestone towards
unleashing the power of molecular magnetism in the second quantum revolution. Taming …

Molecular electronic spin qubits are promising candidates for quantum information science
applications because they can be reliably produced and engineered via chemical design …

Pinpointing vibrational mode contributions to electron spin relaxation (T1) constitutes a key
goal for developing molecular quantum bits (qubits) with long room-temperature coherence …

Motivated by the development of molecular spintronics, we studied the phonon-assisted spin
transport along a DNA chain in the presence of environmental-induced dephasing using …

We herein investigate the heterobimetallic lantern complexes [PtVO (SOCR) 4] as charge
neutral electronic qubits based on vanadyl complexes (S= 1/2) with nuclear spin-free donor …

Single-molecule magnets (SMMs) based on transition metals have appeared as enticing
targets exploiting magnetic anisotropy in 3d elements. Among transition metals, Co based …