Layered materials are taking centre stage in the ever-increasing research effort to develop
material platforms for quantum technologies. We are at the dawn of the era of layered …

Solid-state nuclear spins surrounding individual, optically addressable qubits, are a crucial
resource for quantum networks,,–, computation,,,–and simulation. Although hosts with …

Combining highly coherent spin control with efficient light-matter coupling offers great
opportunities for quantum communication and computing. Optically active semiconductor …

Quantum networks require quantum nodes with coherent optical interfaces and several
stationary qubits. In terms of optical properties, semiconductor quantum dots are highly …

Controlling large-scale many-body quantum systems at the level of single photons and
single atomic systems is a central goal in quantum information science and technology …

Coherent many-body states are highly promising for robust quantum information processing.
While far-reaching theoretical predictions have been made for various implementations …

Recent predictions for quantum-mechanical enhancements in the operation of small heat
engines have raised renewed interest in their study both from a fundamental perspective …

Purifying a high-temperature ensemble of quantum particles toward a known state is a key
requirement to exploit quantum many-body effects. An alternative to passive cooling, which …

Magnetic noise of atomic nuclear spins is a major source of decoherence in solid-state spin
qubits. In theory, near-unity nuclear spin polarization can eliminate decoherence of the …

We propose a new approach to simulate the decoherence of a central spin coupled to an
interacting dissipative spin bath with cluster-correlation expansion techniques. We …