Explosion of oxygen-enriched fuel mixtures can exhibit severe behavior because of the rapid evaporation of the water produced by the combustion reaction. The phenomenon underlying this behavior has been recently named combustion-induced rapid-phase transition (cRPT). If the cRPT phenomenon is not invoked, the observed behavior cannot be explained by the classical theory for deflagration to detonation transition or pre-compression effects. In this work, the cRPT phenomenon was analyzed by varying either the oxygen enrichment or CO2 content in three closed vessels with different internal surface area/volume ratios. Characteristic times for condensation, radiation, and reaction have further demonstrated the opportunity to predict either the likelihood or the trend of the intensity of the observed over-adiabatic maximum pressures as functions of the surface/volume ratio. © 2012 American Chemical Society.

Di Benedetto, A., Cammarota, F., Di Sarli, V., Salzano, E., Russo, G. (2012). Combustion-induced rapid-phase transition (cRPT) in CH4/CO 2/O2-enriched mixtures. ENERGY & FUELS, 26(8), 4799-4803 [10.1021/ef300713s].

Combustion-induced rapid-phase transition (cRPT) in CH4/CO 2/O2-enriched mixtures

SALZANO, ERNESTO;
2012

Abstract

Explosion of oxygen-enriched fuel mixtures can exhibit severe behavior because of the rapid evaporation of the water produced by the combustion reaction. The phenomenon underlying this behavior has been recently named combustion-induced rapid-phase transition (cRPT). If the cRPT phenomenon is not invoked, the observed behavior cannot be explained by the classical theory for deflagration to detonation transition or pre-compression effects. In this work, the cRPT phenomenon was analyzed by varying either the oxygen enrichment or CO2 content in three closed vessels with different internal surface area/volume ratios. Characteristic times for condensation, radiation, and reaction have further demonstrated the opportunity to predict either the likelihood or the trend of the intensity of the observed over-adiabatic maximum pressures as functions of the surface/volume ratio. © 2012 American Chemical Society.
2012
Di Benedetto, A., Cammarota, F., Di Sarli, V., Salzano, E., Russo, G. (2012). Combustion-induced rapid-phase transition (cRPT) in CH4/CO 2/O2-enriched mixtures. ENERGY & FUELS, 26(8), 4799-4803 [10.1021/ef300713s].
Di Benedetto, A; Cammarota, F; Di Sarli, V; Salzano, E; Russo, G.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11585/526497
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