Turbulence is characterized by a large number of degrees of freedom, distributed over
several length scales, that result in a disordered state of a fluid. The field of quantum …

Scale-invariant fluxes are the defining property of turbulent cascades, but their direct
measurement is a challenging experimental problem. Here we perform such a measurement …

The mathematical description of localized solitons in the presence of large‐scale waves is a
fundamental problem in nonlinear science, with applications in fluid dynamics, nonlinear …

Light flow in nonlinear media can exhibit quantum hydrodynamical features which are
profoundly different from those of classical fluids. Here, we show that a rather extreme …

The Whitham modulation equations for the defocusing nonlinear Schrödinger (NLS)
equation in two, three and higher spatial dimensions are derived using a two-phase ansatz …

Shock waves are examples of the far-from-equilibrium behavior of matter; they are
ubiquitous in nature, yet the underlying microscopic mechanisms behind their formation are …

A rich variety of physical effects in spin dynamics arise at the interface between different
magnetic materials. Engineered systems with interlaced magnetic structures have been …

The field of quantum turbulence is related to the manifestation of turbulence in quantum
fluids, such as liquid helium and ultracold gases. The concept of turbulence in quantum …

We demonstrate the controllable generation of distinct types of dispersive shock waves
emerging in a quantum droplet bearing environment with the aid of steplike initial conditions …

We propose a protocol for creating moving, robust dispersive shock waves in interacting one-
dimensional Bose fluids. The fluid is prepared in a moving state by phase imprinting and …