Micron-sized iron particles are promising carbon-free fuels. Efforts have been made to
understand the combustion process of pure iron particles. However, it is not well-established …

A reactive molecular dynamics (MD) study of iron nanoparticle oxidation under externally
applied electrostatic fields is performed, with a focus on the role of charge transfers and …

Simultaneous, in-situ, optical diagnostics are performed to measure initial diameters and the
temporal temperature evolution of iron microparticles burning in hot laminar oxidizing …

Micron-sized iron particles are promising carbon-free fuels, which can provide stable and
clear energy by combustion. Micro-explosion, a phenomenon that the burning particle …

In an effort to improve the understanding of the rate-limiting mechanisms in liquid iron
particle combustion, this study investigates the impact of internal transport within a core …

This study presents a comprehensive analysis of methane oxidation at high temperatures
(2500 K–3500 K)—a critical process in atmospheric chemistry and energy production …

The combined structural and electronic complexity of iron oxides poses many challenges to
atomistic modeling. To leverage limitations in terms of the accessible length and time scales …

The combustion of hydrogen–oxygen systems with iron nanoparticles and external
electrostatic fields is investigated using reactive molecular dynamics simulations with the …