Structure of Counterflow Diffusion Flame of Ethanol

Pandya, T. P.; Srivastava, N. K.

doi:10.1080/00102207508946697

Cited by 16 publications

(2 citation statements)

References 12 publications

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“…Several previous studies have used ethanol diffusion flames to determine the flame structure [8][9][10] or to investigate soot formation [11]. Product profiles from ethanol pyrolysis and oxidation studies in static reactors [12][13][14][15][16][17][18][19], flow reactors [20][21][22], and jet-stirred reactors [23] add to the experimental data base.…”

Section: Introductionmentioning

confidence: 99%

Ethanol flame structure investigated by molecular beam mass spectrometry

Kasper

Oßwald

Kamphus

et al. 2007

Combustion and Flame

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Section: Introductionmentioning

confidence: 99%

Ethanol flame structure investigated by molecular beam mass spectrometry

Kasper

Oßwald

Kamphus

et al. 2007

Combustion and Flame

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“…This work was followed by studies on the thermal structure of ethylene, methane and carbon monoxide flames by Patel and Chu, 10 the absorption spectrum of an ethylene flame by Laud and Gaydon 11 and the thermo-aerodynamic structure of ethanol flames by Pandya and Srivastava. 12,13 The latter employed interferometry and particle-tracking techniques and revealed that the luminous ethanol-air flame was accompanied by endothermic zones on both the fuel and oxidizer sides.…”

Section: Counterflow Flamesmentioning

confidence: 99%

Advances in understanding combustion phenomena using non-premixed and partially premixed counterflow flames: A review

Ravikrishna

Sahu

2017

International Journal of Spray and Combustion Dynamics

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Counterflow flames provide an ideal platform for understanding the flame structure and as a model to study the effect of physical and chemical perturbations on the flame structure. This article reviews the advances made in the understanding of combustion dynamics and chemistry through experimental and numerical studies in counterflow non-premixed and partially premixed flames. Key contributions on fundamental aspects such as extinction, ignition and effect of perturbations on the stability of diffusion flames are first summarized and analysed. The review then focuses on the progress made in the understanding of the effect of inert particles and flame suppressants on the flame characteristics. A review of detailed studies on edge flames facilitates further understanding of local quenching and re-ignition phenomena in highly turbulent flames. The influence of radiation model and unsteady flow-conditions on the flame kinetics and dynamics along with work on NO x kinetics has been discussed. The review also outlines that specific experiments need to be carried out over a wide range of conditions for further understanding and validation of numerical models.

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