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Swirl flows are used in a wide range of industrial applications. In non-reacting cases, examples of applications include vortex amplifiers and reactors, heat exchangers, jet pumps, and cyclone separators. In reacting cases, swirlers are widely used in combustion systems, such as gas turbines, industrial furnaces, boilers, gasoline and diesel engines, and many other practical heating devices. Effects of using swirl on flow and combustion are significant and varied, and concern, for example, aerodynamics, mixing, flame stability, intensity of combustion, and pollutant emissions. The purpose of this book is to present recent research efforts to understand and characterize swirling flows of different types and in different applications. These include gaseous, liquid, and solid fuels in order to enhance combustion systems and their energy efficiency. Swirl flows are very complex and the studies proposed in this project are based on different means, including theoretical calculations, numerical modeling, and experimental measurements.

Rotational motion. --- Gyrodynamics --- Revolving systems --- Rotating systems --- Spin (Dynamics) --- Dynamics --- Motion --- Physical Sciences --- Engineering and Technology --- Fluid Dynamics --- Fluid Mechanics --- Physics

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Plasma catalysis is gaining increasing interest for various gas conversion applications, such as CO2 conversion into value-added chemicals and fuels, N2 fixation for the synthesis of NH3 or NOx, methane conversion into higher hydrocarbons or oxygenates. It is also widely used for air pollution control (e.g., VOC

in plasma-catalysis --- gas composition --- radiofrequency plasma --- calcium carbonate decomposition --- phenanthrene --- methane reforming --- dry reforming of methane --- NH3 decomposition --- dielectric barrier discharge --- gas temperature --- relative humidity --- CO selectivity --- isotope labelling --- nanocatalyst --- packed-bed dielectric barrier discharge --- Ga–In alloys --- mineralization --- rotating gliding arc plasma --- dielectric barrier discharge (DBD) --- catalyst --- plasmas-catalysis --- H2S oxidation --- post plasma-catalysis --- naphthalene --- VOC abatement --- nonstoichiometry --- zeolites --- H2 generation --- tar destruction --- adsorption-plasma catalysis --- NOx conversion --- catalyst preparation --- CeO2 --- nonequilibrium plasma --- non-thermal plasmas --- mode transition --- bimetal --- DBD plasma --- surface filament --- self-cooling --- indium --- plasma catalysis --- gallium --- perovskite catalysts --- ammonia synthesis --- packing materials --- air pollution --- toluene --- particle-in- cell/Monte Carlo collision method --- CO2 decomposition --- Manganese

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• Reference Manager
• EndNote
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Plasma catalysis is gaining increasing interest for various gas conversion applications, such as CO2 conversion into value-added chemicals and fuels, N2 fixation for the synthesis of NH3 or NOx, methane conversion into higher hydrocarbons or oxygenates. It is also widely used for air pollution control (e.g., VOC

in plasma-catalysis --- gas composition --- radiofrequency plasma --- calcium carbonate decomposition --- phenanthrene --- methane reforming --- dry reforming of methane --- NH3 decomposition --- dielectric barrier discharge --- gas temperature --- relative humidity --- CO selectivity --- isotope labelling --- nanocatalyst --- packed-bed dielectric barrier discharge --- Ga–In alloys --- mineralization --- rotating gliding arc plasma --- dielectric barrier discharge (DBD) --- catalyst --- plasmas-catalysis --- H2S oxidation --- post plasma-catalysis --- naphthalene --- VOC abatement --- nonstoichiometry --- zeolites --- H2 generation --- tar destruction --- adsorption-plasma catalysis --- NOx conversion --- catalyst preparation --- CeO2 --- nonequilibrium plasma --- non-thermal plasmas --- mode transition --- bimetal --- DBD plasma --- surface filament --- self-cooling --- indium --- plasma catalysis --- gallium --- perovskite catalysts --- ammonia synthesis --- packing materials --- air pollution --- toluene --- particle-in- cell/Monte Carlo collision method --- CO2 decomposition --- Manganese