A central goal in quantum optics and quantum information science is the development of
quantum networks to generate entanglement between distributed quantum memories …

Silicon carbide has recently surged as an alternative material for scalable and integrated
quantum photonics, as it is a host for naturally occurring color centers within its bandgap …

In the last two decades, bulk, homoepitaxial, and heteroepitaxial growth of silicon carbide
(SiC) has witnessed many advances, giving rise to electronic devices widely used in high …

Spins in solids are cornerstone elements of quantum spintronics. Leading contenders such
as defects in diamond,,, or individual phosphorus dopants in silicon have shown spectacular …

Scalable quantum networking requires quantum systems with quantum processing
capabilities. Solid state spin systems with reliable spin–optical interfaces are a leading …

Electronic spins in semiconductors have been used extensively to explore the limits of
external control over quantum mechanical phenomena. A long-standing goal of this …

Identifying and designing physical systems for use as qubits, the basic units of quantum
information, are critical steps in the development of a quantum computer. Among the …

Silicon carbide is a promising platform for single photon sources, quantum bits (qubits), and
nanoscale sensors based on individual color centers. Toward this goal, we develop a …

Atomic-scale defects in silicon carbide are always present and usually limit the performance
of this material in high-power electronics and radiofrequency communication. Here, we …

Vacancy-related centres in silicon carbide are attracting growing attention because of their
appealing optical and spin properties. These atomic-scale defects can be created using …