Two-dimensional (2-D) numerical simulations based on the Eulerian–Lagrangian method
that take droplet break-up into account are conducted to clarify the mean structure of …

This article is dedicated to the construction of a robust and accurate numerical scheme
based on the lattice Boltzmann method (LBM) for simulations of gaseous detonations. This …

We evaluate the effect of boundary layer losses on two-dimensional H2/O2/Ar cellular
detonations obtained in narrow channels. The experiments provide the details of the cellular …

The propagation of multidimensional gaseous detonations at elevated pressures was
investigated numerically. Initial conditions at which deviations from ideal gas are expected …

A three-dimensional upwind conservation element and solution element method (CESE) in
cylindrical coordinates is first developed to effectively solve the unsteady reactive Euler …

The present work addresses the interesting question that whether universal relationships
can be obtained for characterizing the dynamics of hydrogen–oxygen–diluent detonations in …

The effect of chemistry modeling on the flow structure and quenching limits of detonations
propagating into reactive layers bounded by an inert gas is investigated numerically. Three …

Numerical simulations are conducted to investigate the effect of wall roughness on flame
acceleration (FA), deflagration-to-detonation transition (DDT), and detonation propagation in …

This study investigates the flame propagation behaviors of three different mixtures (C2H4+
3O2, C3H8+ 5O2, and C2H2+ 2.5 O2+ 3.5 Ar) in millimeter-scale tubes, unraveling their …

The present work examines the role of instability and diffusive phenomena in controlling the
limits of detonations subject to lateral strain. Experiments were conducted in mixtures with …