We develop a self-consistent theoretical approach to the dynamics of Anderson localization
in open three-dimensional (3D) disordered media. The approach allows us to study time …

The interaction of light with an atomic sample containing a large number of particles gives
rise to many collective (or cooperative) effects, such as multiple scattering, superradiance …

We use the random Green's matrix model to study the scaling properties of the localization
transition for scalar waves in a three-dimensional (3D) ensemble of resonant point …

We analyze an open quantum system under the influence of more than one environment: a
dephasing bath and a probability-absorbing bath that represents a decay channel, as …

We investigate the validity of the non-Hermitian Hamiltonian approach in describing
quantum transport in disordered tight-binding networks connected to external environments …

Enhancing light–matter interactions on a chip is of paramount importance for classical and
quantum photonics, sensing, and energy harvesting applications. Several photonic …

Anderson localization is a paradigmatic coherence effect in disordered systems, often
analyzed in the absence of dissipation. Here we consider the case of coherent dissipation …

Scattering of electromagnetic waves in billiard-like systems has become a standard
experimental tool of studying properties associated with Quantum Chaos. Random Matrix …

We study the transmission of a tightly focused beam through a thick slab of three-
dimensional disordered medium in the Anderson localized regime. We show that the …

We have investigated the distribution of quality factors P (Q) of three-dimensional disordered
systems composed of pointlike magneto-optical scatterers under the influence of an external …