We provide a general framework to compute the probability distribution $ F_ r (t) $ of the first
detection time of a'state of interest'in a closed quantum system subjected to random …

We study a quantum walk of a single particle that is subject to stroboscopic projective
measurements on a graph with two sites. This two-level system is the minimal model of a …

The dynamics of a quantum system, undergoing unitary evolution and continuous
monitoring, can be described in term of quantum trajectories. Although the averaged state …

The evolution of noninteracting bosons in the presence of repeated projective
measurements is studied. Following the established approach, this monitored evolution is …

We study a non-interacting quantum particle, moving on a one-dimensional lattice, which is
subjected to repetitive measurements. We investigate the consequence when such motion is …

Superconducting circuits constitute a promising platform for future implementation of
quantum processors and simulators. Arrays of capacitively coupled transmon qubits …

We study the probability distribution of the first return time to the initial state of a quantum
many-body system subject to stroboscopic projective measurements. We show that this …

Recurrence time quantifies the duration required for a physical system to return to its initial
state, playing a pivotal role in understanding the predictability of complex systems. In …

We study the effect of random scattering in quantum walks on a finite graph and compare it
with the effect of repeated measurements. To this end, a constructive approach is employed …

In contrast to the previous chapters, we deal in this chapter with quantum systems, and
specifically, with the facet of noise in the sense of uncertainty associated with quantum …