Critical quantum sensing is by now a well-established approach, based on the exploitation of the extreme sensitivity developed in proximity of phase transitions. Numerous theoretical studies and recent experimental demonstrations show that a quantum-enhanced sensing precision can be achieved by exploiting static or dynamical properties of quantum critical systems. In particular, driven-dissipative phase transitions emerge as an exciting framework for sensing applications, as they can be implemented with a large variety of small-scale, solid-state devices. In parallel, intense research efforts are dedicated to the design and implementation of quantum sensing protocols based on continuous-measurements, which are relevant most notably for time-varying signals. The two fields are strongly connected: since the environment of driven-dissipative systems can in principle be monitored, continuous-measurement schemes must unavoidably be considered in the design of optimal critical quantum sensing schemes.
As the body of theoretical research is quickly growing and experimental efforts to implement these proposals are ramping up, this workshop aims to foster the interaction between the experimental and theoretical researchers working on:
Critical quantum sensing
Parameter estimation with continuously monitored quantum systems
The characterization of driven-dissipative quantum phase transitions
There will be no conference fees, but a limited number of participants can be accepted.
The deadline for submitting an oral or poster contribution is 1st February 2024. Early-stage researchers are warmly encouraged to submit a contribution.
