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 …

Recent advancements in quantum sensing have sparked transformative detection
technologies with high sensitivity, precision, and spatial resolution. Owing to their atomic …

The past two decades have witnessed immense advances in quantum information
technology (QIT), benefited by advances in physics, chemistry, biology, and materials …

General‐purpose quantum computation and quantum simulation require multi‐qubit
architectures with precisely defined, robust interqubit interactions, coupled with local …

High‐spin conjugated radicals have great potential in magnetic materials and organic
spintronics. However, to obtain high‐spin conjugated radicals is still quite challenging due to …

Two-dimensional conjugated metal–organic frameworks (2D c-MOFs) have attracted
increasing interest in electronics due to their (semi) conducting properties. Charge-neutral …

An organic free radical is a molecule with one or more unpaired electrons. Although most
free radicals are highly reactive, chemists have developed a few families of so-called …

Atomic-scale reproducibility and tunability endorse magnetic molecules as candidates for
spin qubits and spintronics. A major challenge is to implant those molecular spins into circuit …

The past century has witnessed the flourishing of organic radical chemistry. Stable organic
radicals are highly valuable for quantum technologies thanks to their inherent room …

Two-dimensional conjugated polymers (2DCPs)─ organic 2D materials composed of arrays
of carbon sp2 centers connected by π-conjugated linkers─ are attracting increasing …