This review article aims to provide a comprehensive and understandable account of the
theoretical foundation, modeling issues, and numerical implementation of the Lagrangian …

Gas-solid flows in nature and industrial applications are characterized by multiscale and
nonlinear interactions that manifest as rich flow physics and pose unique modeling …

Gas–solid momentum transfer is a fundamental problem that is characterized by the
dependence of normalized average fluid–particle force F on solid volume fraction ϕ and the …

At sufficient mass loading and in the presence of a mean body force (eg gravity), an initially
random distribution of particles may organize into dense clusters as a result of momentum …

Polydispersed particles in reactive flows is a wide subject area encompassing a range of
dispersed flows with particles, droplets or bubbles that are created, transported and possibly …

A large-eddy-based methodology for the simulation of turbulent sprays is discussed. The
transport equations for the spatially filtered gas phase variables, in which source terms …

Gas-phase velocity fluctuations due to mean slip velocity between the gas and solid phases
are quantified using particle-resolved direct numerical simulation. These fluctuations are …

Multiphase flows are commonly observed in nature, such as rain drops in air, snowfall,
volcanoes, and sandstorms, and in various industries, such as energy production, chemical …

Abstract In Esteghamatian, A., Bernard, M., Lance, M., Hammouti, A. and Wachs, A., 2017,
Micro/meso simulation of a fluidized bed in a homogeneous bubbling regime, International …

The Lagrangian–Eulerian (LE) approach is used in many computational methods to
simulate two-way coupled dispersed two-phase flows. These include averaged equation …