Previous studies on physical boundary conditions for flame–boundary interactions of an
ideal, multicomponent, compressible gas have neglected reactive source terms in their …

Direct numerical simulations of three-dimensional turbulent temporally evolving plane CO/H
2 jet flames are performed with detailed chemistry at Reynolds numbers of up to 9000 and …

The thermochemical state of a single-phase reacting system containing n s species is n s +1
dimensional. However, it is widely recognized that low-dimensional manifolds exist in this …

Principal component analysis has demonstrated promise in its ability to identify low-dimensional
chemical manifolds in turbulent reacting systems by providing a basis for the a priori …

The advancement of our basic understanding of turbulent combustion processes and the
development of physics-based predictive tools for design and optimization of the next …

A novel methodology based on principal component analysis (PCA) was developed for the
identification of the low-dimensional manifold of a chemical reacting system, the …

In this paper, individual coal particle combustion under laminar conditions is simulated using
models with various levels of complexity for the particle and gas phase chemical kinetics. …

WE REVISIT Kraichnan’s method for generating synthetic turbulence and address a mass-conservation
problem in the original and later variations of that method [1]. Subsequently, a …

In reduced-order modeling, complex systems that exhibit high state-space dimensionality
are described and evolved using a small number of parameters. These parameters can be …

Reduced-order models (ROMs) for turbulent combustion rely on identifying a small number
of parameters that can effectively describe the complexity of reacting flows. With the advent of …