Having served as a playground for fundamental studies on the physics of d and f electrons
for almost a century, magnetic molecules are now becoming increasingly important for …

Magnetism of molecular quantum materials such as single-molecule magnets (SMMs) has
been actively studied for potential applications in the new generation of high-density data …

The inherent atomistic precision of synthetic chemistry enables bottom-up structural control
over quantum bits, or qubits, for quantum technologies. Tuning paramagnetic molecular …

Quantum sensing has the potential to improve the sensitivity of chemical sensing by
exploiting the characteristics of qubits, which are sensitive to the external environment …

Developing quantum bits (qubits) exhibiting room temperature electron spin coherence is a
key goal of molecular quantum information science. At high temperatures, coherence is …

High-spin molecules allow for bottom-up qubit design and are promising platforms for
magnetic sensing and quantum information science. Optical addressability of molecular …

Electron spin relaxation in paramagnetic transition metal complexes constitutes a key
limitation on the growth of molecular quantum information science. However, there exist very …

Optical-spin interfaces that enable the photoinitialization, coherent microwave manipulation,
and optical read-out of ground state spins have been studied extensively in solid-state …

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

Molecular electronic spins are good candidates as qubits since they are characterized by a
large tunability of their electronic and magnetic properties through a rational chemical …