Understanding and predicting turbulent flow phenomena remain a challenge for both theory
and applications. The nonlinear and nonlocal character of small-scale turbulence can be …

Turbulent premixed combustion involves simultaneous and mutually interacting fluid,
chemical, and transport phenomena spanning a wide range of spatial and temporal scales …

Existing experimental and numerical data suggest that the turbulence energy dissipation
and enstrophy (ie, the square of vorticity) possess different scaling properties, while …

Turbulent fluid flows are ubiquitous in nature and technology, and are mathematically
described by the incompressible Navier-Stokes equations. A hallmark of turbulence is …

The purpose of this paper is to demonstrate the effects of thermal expansion, as a result of
heat release arising from exothermic chemical reactions, on the underlying turbulent fluid …

A strategy to extract turbulence structures from direct numerical simulation (DNS) data is
described along with a systematic analysis of geometry and spatial distribution of the …

Drop deformation in fluid flows is investigated as an exchange between the kinetic energy of
the fluid and the surface energy of the drop. We show analytically that this energetic …

For the last several decades, renormalization group (RG, or RNG) methods have been
applied to a wide variety of problems of turbulence in hydrodynamics and plasma physics. A …

The asymmetries that arise when a mixing layer involves two miscible fluids of differing
densities are investigated using incompressible (low-speed) direct numerical simulations …

The effects of Lewis number Le on both vorticity and enstrophy transport within the flame
brush have been analysed using direct numerical simulation data of freely propagating …