Circuit quantization links a physical circuit to its corresponding quantum Hamiltonian. The
standard quantization procedure generally assumes any external magnetic flux to be static …

Recent theoretical work has highlighted that quantizing a superconducting circuit in the
presence of time-dependent flux Φ (t) generally produces Hamiltonian terms proportional to …

It is well known that qubits immersed in a squeezed vacuum environment exhibit many
exotic phenomena, including dissipative entanglement stabilization. Here we show that …

The state of a quantum system may be steered towards a predesignated target state,
employing a sequence of weak blind measurements (where the detector's readouts are …

Quantum protocols based on adiabatic evolution are remarkably robust against
imperfections of control pulses and system uncertainties. While adiabatic protocols have …

Reservoir engineering is a powerful technique to autonomously stabilize a quantum state.
Traditional schemes involving multi-body states typically function for discrete entangled …

It is known that protocols based on weak measurements can be used to steer quantum
systems into predesignated pure states. Here we show that weak-measurement-based …

Quantum state engineering plays a vital role in various applications in the field of quantum
information. Different strategies, including drive-and-dissipation, adiabatic cooling, and …

Recent theoretical work has highlighted that quantizing a superconducting circuit in the
presence of time-dependent flux $\Phi (t) $ generally produces Hamiltonian terms …

Adoption of fast, parametric coupling elements has improved the performance of
superconducting qubits, enabling recent demonstrations of quantum advantage in …