MILD combustion technology possesses several advantageous characteristics, including its
ability to accommodate a wide range of fuels, achieve high fuel utilization, and effectively …

On the path towards decarbonisation of the steel industry, the use of H 2/NG blends in
furnaces, where high temperatures are needed, is one of the alternatives that needs to be …

The NO mechanism under the moderate or intense low-oxygen dilution (MILD) combustion
of syngas has not been systematically examined. This paper investigates the NO …

Hydrogen-blending methane or even hydrogen moderate or intense low-oxygen dilution
(MILD) combustion has attracted much interest due to its advantages of low CO 2 and NO x …

Process simulation and analysis are demonstrated to provide significant benefits for
pressurized oxy-fuel combustion systems. This study compares the performance of …

The reaction mechanism of hydrogen-enriched methane (HEM) combustion is significant in
the combustion process. In this study, four widely used reaction mechanisms for methane …

Hydrogen fuel has significant potential for various applications under MILD combustion
conditions. This study investigates the impact of H 2 mass fraction (ranging from 10% to …

Emissions of nitrogen oxides (NO x) from combustion systems remain a lingering
environmental issue, being these species either greenhouse gases or acid rain precursors …

MILD-oxy combustion is an advanced technology for achieving carbon capture and low NO
x emissions simultaneously. In its combustion process, the atmosphere comprises CO 2 and …

This paper reports a CFD numerical study of propane (C 3 H 8) combustion inside a
laboratory-scale cylindrical furnace under moderate or intense low oxygen dilution (MILD) …