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 …

Light–matter interactions at the single-particle level have generally been explored in the
context of atomic, molecular and optical physics. Recent advances motivated by quantum …

We demonstrate theoretically the bundle emission of n strongly correlated phonons in an
acoustic cavity QED system. The mechanism relies on Stokes resonances that generate …

Charge qubits can be created and manipulated in solid-state double-quantum-dot (DQD)
platforms. Typically, these systems are strongly affected by quantum noise stemming from …

Circuit quantum electrodynamics (cQED) systems represent an important platform to study
light-matter interaction at the nanoscale. However, an all-electrical scheme for photon …

In the past decade, a new research frontier emerges at the interface between physics and
renewable energy, termed as inelastic thermoelectric effects, where inelastic transport …

Decoherence of a charge qubit is usually credited to charge noise in the environment. Here
we show that charge noise may not be the limiting factor for the qubit coherence. To this end …

Studies of thermally induced transport in nanostructures provide access to an exciting
regime where fluctuations are relevant, enabling the investigation of fundamental …

Open classical and quantum systems with effective parity-time (PT) symmetry, over the past
five years, have shown tremendous promise for advances in lasers, sensing, and …

At the cutting‐edge of microwave detection technology, novel approaches which exploit the
interaction between microwaves and quantum devices are rising. In this study, microwaves …