Micro-alumina particle volatilization temperature measurements in a heterogeneous shock tube

Peak flame temperatures in aluminum particle combustion should approach the volatilization temperature of the product alumina. References are divided in assigning this temperature anywhere between 3200 and 4000 K, which can provide significant uncertainty not only in numerical models for combustion...

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Veröffentlicht in:Combustion and flame 2012-02, Vol.159 (2), p.793-801
Hauptverfasser: Lynch, Patrick, Krier, Herman, Glumac, Nick
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Krier, Herman
Glumac, Nick
description Peak flame temperatures in aluminum particle combustion should approach the volatilization temperature of the product alumina. References are divided in assigning this temperature anywhere between 3200 and 4000 K, which can provide significant uncertainty not only in numerical models for combustion but also in the interpretation of flame structure from temperature measurements. We present results in the controlled conditions of the UIUC heterogeneous shock tube of volatilization temperature, made by measuring the extinction of light by nano- and micro-alumina particles at non-resonant wavelengths at different ambient temperatures. At 10 atm, there is a sharp cutoff at 3860 K beyond which nano-particles volatilize and stop extinguishing within the shock tube test time. Numerical modeling of the evaporation rate of these particles is used to assign a volatilization temperature of 4340 K at 10 atm. Similarly, a volatilization temperature of 4260 K at 3 atm is measured. From our analysis, the best estimate for the volatilization temperature at 1 atm was 4189 ± 200 K, which is consistent with the high range of volatilization temperature reported in the literature.
doi_str_mv 10.1016/j.combustflame.2011.07.023
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References are divided in assigning this temperature anywhere between 3200 and 4000 K, which can provide significant uncertainty not only in numerical models for combustion but also in the interpretation of flame structure from temperature measurements. We present results in the controlled conditions of the UIUC heterogeneous shock tube of volatilization temperature, made by measuring the extinction of light by nano- and micro-alumina particles at non-resonant wavelengths at different ambient temperatures. At 10 atm, there is a sharp cutoff at 3860 K beyond which nano-particles volatilize and stop extinguishing within the shock tube test time. Numerical modeling of the evaporation rate of these particles is used to assign a volatilization temperature of 4340 K at 10 atm. Similarly, a volatilization temperature of 4260 K at 3 atm is measured. 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source Elsevier ScienceDirect Journals
subjects AlO
Aluminum
Aluminum combustion
Aluminum monoxide
Applied sciences
Cloud extinction
Combustion
Combustion. Flame
Energy
Energy. Thermal use of fuels
Exact sciences and technology
Mathematical models
Nanocomposites
Nanomaterials
Nanostructure
Shock tubes
Temperature fitting
Temperature measurement
Theoretical studies. Data and constants. Metering
title Micro-alumina particle volatilization temperature measurements in a heterogeneous shock tube
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