Combustion modelling of sequential combustion in steam-methane reformation (SMR) furnace using adiabatic flamelet generated manifold
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Date
2023
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Publisher
Elsevier Ltd
Abstract
Hydrogen as an energy vector of the future is being explored by many. Steam-methane reformation proves itself as a major source of hydrogen that is to play a major role in the electrification of the energy sector and decarbonization efforts. Detailed design and design optimization of SMR furnaces are required to maximize the production within a plant. Unit-operation level process of a cogeneration plant, producing both energy and hydrogen, have been studied by other researchers. Sequential combustion of natural gas/methane within the furnace of an SMR unit placed downstream of a power generating gas turbine is analysed within the present work using computational fluid dynamics. Flamelet generated manifolds as a means of combustion modelling for a large-eddy simulation is used to analyse the flow features, flame structure and the vortex-flame interaction. The fuel rich case features a stable flame although with a lower temperature, and the fuel lean case features an unstable flame. The outcomes of this study may be utilized by designers to study factors that bottle-neck production in the furnace. © 2023 Elsevier Ltd
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Keywords
Bottles, Cogeneration plants, Combustion, Furnaces, Large eddy simulation, Methane, Steam reforming, Combustion model, Decarbonisation, Design optimization, Detailed design, Energy sector, Energy vectors, Flamelet generated manifolds, Operation levels, Sequential combustion, Steam-methane reformation, Computational fluid dynamics
Citation
Thermal Science and Engineering Progress, 2023, 40, , pp. -
