The use of light for probing and imaging biomedical media is promising for the development
of safe, noninvasive, and inexpensive clinical imaging modalities with diagnostic ability. The …

The degree of nonorthogonality of eigenstates of non-Hermitian systems governs nuclear
scattering, electronic conductance, and wave propagation in disordered media. Here, we …

While controlling particle diffusion in a confined geometry is a popular approach taken by
both natural and artificial systems, it has not been widely adopted for controlling light …

Disorder is more the rule than the exception in natural and synthetic materials. Nonetheless,
wave propagation within inhomogeneously disordered materials has received scant …

We demonstrate that optical transmission matrices (TMs) provide a powerful tool to extract
the photonic strength of disordered complex media, independent of surface effects. We …

Diffusion is the result of repeated random scattering. It governs a wide range of phenomena
from Brownian motion, to heat flow through window panes, neutron flux in fuel rods …

The propagation of waves through transmission eigenchannels in complex media is
emerging as a new frontier of condensed matter and wave physics. A crucial step towards …

We demonstrate a possibility of using geometry to deterministically control nonlocal
correlation of waves undergoing mesoscopic transport through a disordered waveguide. In …

We investigate energy leakage induced by incomplete measurements of the scattering
matrices of complex media. Owing to the limited numerical apertures of an optical system, it …

The impact of surface reflection upon transmission through and energy distributions within
random media has generally been described in terms of the boundary extrapolation lengths …