Abstract Random Lasers (RLs) and Random Fiber Lasers (RFLs) have been the subject of
intense research since their first experimental demonstration in 1994 and 2007, respectively …

Scattering of light by disordered structures is a common phenomenon in our daily life. For
many scientific applications, scattering is often treated as a detrimental effect. However …

Lasers have enabled scientific and technological progress, owing to their high brightness
and high coherence. However, the high spatial coherence of laser illumination is not always …

Traditional wave kinetics describes the slow evolution of systems with many degrees of
freedom to equilibrium via numerous weak non-linear interactions and fails for very …

Random Raman lasers attract now a great deal of attention as they operate in non-active
turbid or transparent scattering media. In the last case, single mode fibers with feedback via …

Random lasers have been recently exploited as a photonic platform for studies of complex
systems. This cross-disciplinary approach opened up new important avenues for the …

Raman-based technologies have enabled many ground-breaking scientific discoveries
related to surface science, single-molecule chemistry and biology. For example, researchers …

In a random laser (RL), optical feedback arises from multiple scattering instead of
conventional mirrors. RLs generate a laser-like emission, and meanwhile take advantage of …

The ever‐growing field of microfluidics requires precise and flexible control over fluid flows
at reduced scales. Current constraints demand a variety of controllable components to carry …

The topological state transition has been widely studied based on the quantized topological
band invariant such as the Chern number for the system without intense randomness that …