The spin degree of freedom of an electron or a nucleus is one of the most basic properties of
nature and functions as an excellent qubit, as it provides a natural two-level system that is …

Electron spin qubits formed by atoms in silicon have large (tens of millielectronvolts) orbital
energies and weak spin–orbit coupling, giving rise to isolated electron spin ground states …

The implementation of a single magnon level quantum manipulation is one of the
fundamental targets in quantum magnetism with a significant practical relevance for …

The exceptionally long quantum coherence times of phosphorus donor nuclear spin qubits
in silicon, coupled with the proven scalability of silicon-based nano-electronics, make them …

The Hubbard model is an essential tool for understanding many-body physics in condensed
matter systems. Artificial lattices of dopants in silicon are a promising method for the analog …

Practical quantum computers require a large network of highly coherent qubits,
interconnected in a design robust against errors. Donor spins in silicon provide state-of-the …

Spins confined to atomically thin semiconductors are being actively explored as quantum
information carriers. In transition metal dichalcogenides (TMDCs), the hexagonal crystal …

Polymeric fluorescent organic nanoparticles (polymer-FONs) have raised considerable
research attention for biomedical applications owing to their advantages as compared with …

Atomically precise hydrogen desorption lithography using scanning tunnelling microscopy
(STM) has enabled the development of single-atom, quantum-electronic devices on a …

At the atomic scale, there has always been a trade-off between the ease of fabrication of
structures and their thermal stability. Complex structures that are created effortlessly often …