A novel scheme for strong coupling between inertial Lagrangian point particles and a
continuous Eulerian fluid phase has been developed. A full mechanical coupling can only …

Euler-Lagrange point-particle simulation has emerged as a premier methodology for
studying dispersed particle-laden flows. This method's popularity stems from its ability to …

The rotational motion of spherical particles suspended in a turbulent flow field may not
necessarily adapt to the fluid rotation, ie, the particle spin may be different from the fluid …

This paper derives and validates a new framework to predict the drag and lift coefficients as
well as the torque coefficients for four non-spherical particle shapes in a flow with a wide …

Direct numerical simulations of a turbulent fluid laden with finite-sized particles are
performed. The computations, on a 1283 grid along with a maximum of 262 144 particles …

Transfer of mechanical energy between solid spherical particles and a Newtonian carrier
fluid has been explored in two-way coupled direct numerical simulations of turbulent …

This paper investigates the behaviour of elongated, axi-symmetric ellipsoidal particles, their
interaction with turbulence, and the effects of the ellipsoids on turbulence in a turbulent …

The main goal of our research is to understand the forces responsible for particle
suspension in turbulent flow, taking into account the complicated nature of turbulence and …

We study the effects of particle-turbulence interactions on heat transfer in a particle-laden
turbulent channel flow using an Eulerian–Lagrangian simulation approach, with direct …

Rotation and orientation of non-spherical particles in a fluid flow depend on the
hydrodynamic torque they experience. However, little is known about the effect of the fluid …