Controlling the flow of light at subwavelength scales provides access to functionalities such
as negative or zero index of refraction, transformation optics, cloaking, metamaterials and …

Disordered photonic materials can diffuse and localize light through random multiple
scattering, offering opportunities to study mesoscopic phenomena, control light–matter …

Anderson localization is an interference effect crucial to the understanding of waves in
disordered media. However, localization is expected to become negligible when the …

Disordered dielectric materials with structural correlations show unconventional optical
behavior: They can be transparent to long-wavelength radiation, while at the same time …

Deep subwavelength features are expected to have minimal impact on wave transport. Here
we show that in contrast to this common understanding, disorder can have a dramatic effect …

Anderson localization predicts that transport in one-dimensional uncorrelated disordered
systems comes to a complete halt, experiencing no transport whatsoever. However, in …

The purpose of this work is to understand the fundamental connection between structural
correlations and light localization in three-dimensional (3D) open scattering systems of finite …

Transmission eigenchannels are building blocks of coherent wave transport in diffusive
media, and selective excitation of individual eigenchannels can lead to diverse transport …

Complex dielectric media often appear opaque because light traveling through them is
scattered multiple times. Although the light scattering is a random process, different paths …

One of the most interesting phenomena in solid-state physics is Anderson localization,
which predicts that an electron may become immobile when placed in a disordered lattice …