Development of a 3D Parallel Multigrid Solver for Fast and Accurate Laminar Steady Flame Computations

Baron, Romain; Paxion, Sébastien; Gicquel, Olivier; Simous, N.; Bastian, Peter; Thévenin, Dominique

doi:10.1007/978-3-540-45693-3_7

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Reacting Flow Solver1

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2007

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“…For the present burner the computational geometry is fixed for all computations, but the boundary conditions (composition of the mixture for the primary and the secondary inlets) are varied during the optimization procedure. To perform the CFD simulation, the in-house code UGC+ [27,29] is employed. Since the optimization problem is here simple (one single objective), the Simplex method is Fig.…”

Section: Reacting Flow Solvermentioning

confidence: 99%

Reducing the CO emissions in a laminar burner using different numerical optimization methods

Janiga

Thévenin

2007

Proceedings of the Institution of Mechanical Engineers, Part A:

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In this work, the optimization of the flame properties associated to a laminar burner is carried out using different optimization methods (genetic algorithm, Simplex) when varying the fuel/air ratio in a primary and a secondary inlet. The objective is to reduce the CO emission at a prescribed distance from the injection plane. An in-house computer package, called OPAL, controls the optimization process in a fully automatic manner. The flow involving chemical reactions is solved using the in-house computational fluid dynamics code UGC+.

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Section: Reacting Flow Solvermentioning

confidence: 99%