Flame acceleration (FA) and deflagration-to-detonation transition (DDT) in combustible
premixed gases is a complex process involving the flow and combustion phenomena …

The impact of the inhomogeneous hydrogen concentration distribution on the oblique
detonation wavefront is numerically studied. The hydrogen concentration distribution …

A numerical simulation using the open-source platform OpenFOAM is conducted to
investigate the effect of periodic perturbations at the inlet on the evolution and oscillation …

The wave dynamics play a crucial role in the operation characteristics of the rotating
detonation engine. We conducted numerical simulations of a rotating detonation combustor …

The stabilization of oblique detonation waves (ODWs) in an engine combustor is important
for the successful applications of oblique detonation engines, and comprehensively …

Employing inert gases to attenuate and obstruct the propagation of detonation waves has
proven to be an effective strategy for mitigating potential damage in the realm of industrial …

Continuous rotating detonation engines have been extensively studied due to their high
thermal efficiency. The utilization of solid particles as fuel can effectively reduce costs and …

A numerical simulation solving the Reynolds-averaged Navier–Stokes equation is
presented to investigate the initiation and evolution of the wedge-induced oblique …

Utilizing a two-phase supersonic chemically reacting flow solver with the Eulerian-
Lagrangian method implemented in OpenFOAM, this study computationally investigates the …

Wedge-induced oblique detonation transitions are simulated numerically to investigate the
non-detonation reaction zone structures that include induction and deflagration regions …