Solid-state defects acting as single photon sources and quantum bits are leading
contenders in quantum technologies. Despite great efforts, not all the properties and …

Silicon is the most scalable optoelectronic material but has suffered from its inability to
generate directly and efficiently classical or quantum light on-chip. Scaling and integration …

Van der Waals (vdW) materials have emerged as a promising platform for the generation of
single-photon emitters, attracting considerable interest in the past several years. This …

Novel T centers in silicon hold great promise for quantum networking applications due to
their telecom band optical transitions and the long-lived ground state electronic spins. An …

Silicon T centers present the promising possibility of generating optically active spin qubits
in an all-silicon device. However, these color centers exhibit long excited state lifetimes and …

A central goal for quantum technologies is to develop platforms for precise and scalable
control of individually addressable artificial atoms with efficient optical interfaces. Color …

Artificial atoms in solids are leading candidates for quantum networks, scalable quantum
computing, and sensing, as they combine long-lived spins with mobile photonic qubits …

A highly promising route to scale millions of qubits is to use quantum photonic integrated
circuits (PICs), where deterministic photon sources, reconfigurable optical elements, and …

Color centers in host semiconductors are prime candidates as spin-photon interfaces for
quantum applications. Finding an optimal spin-photon interface in silicon would move …

Quantum technologies would benefit from the development of high-performance quantum
defects acting as single-photon emitters or spin-photon interfaces. Finding such a quantum …