Due to the complexity and short timescale of detonation, it is usually difficult to capture its
transient characteristics experimentally. Advanced numerical methods are essential for …

Physics-informed neural networks (PINNs) have recently become a new popular method for
solving forward and inverse problems governed by partial differential equations. However, in …

In this paper, we present the development of a third-order density-based solver within the
OpenFOAM framework, tailored for handling compressible flows. The solver incorporates …

Numerical simulations of high-speed compressible flows remain challenging in engineering
as the appearance of shock waves poses difficulties for high-resolution schemes as well as …

This work develops a new finite volume convection scheme and open-source library for
convection-dominated problems on unstructured grids. The formulated reconstruction …

Developing accurate, efficient and robust shock-capturing schemes on non-uniform grids
remains challenging particularly when facing strong non-uniformity. Thus, we extend the …

The simulation of supersonic or hypersonic flows often suffers from numerical shock
instabilities if the flow field contains strong shocks, limiting the further application of shock …

Large eddy simulation (LES) has the potential to predict turbulent combustion phenomena in
modern practical combustors. As errors from sub-grid models may be comparable to the …

In this study, a novel gas burner combining air swirl and an inverse diffusion flame (IDF) is
designed for industrial applications. Numerical simulations using the Reynolds-averaged …

We present a numerical scheme valid in the range of highly to weakly compressible flows
using a single-fluid four equation approach together with multi-component thermodynamic …