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Modeling the Time-Dependent O3 Uptake on a Methane Flame Soot Coating Under Conditions of Competitive O3/NO2 and O3/N2O5 Adsorption

The uptake of O 3 (1 × 10 12 –5× 10 13 cm −3 ) on a methane soot coating preliminarily exposed to N 2 O 5 , is studied using a flow reactor with a movable insert. Based on the dependence of the ozone uptake coefficient on the exposure time and O 3 concentration, the uptake mechanism is established a...

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Published in:Russian journal of physical chemistry. B 2023-02, Vol.17 (1), p.234-243
Main Authors: Zelenov, V. V., Aparina, E. V.
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description The uptake of O 3 (1 × 10 12 –5× 10 13 cm −3 ) on a methane soot coating preliminarily exposed to N 2 O 5 , is studied using a flow reactor with a movable insert. Based on the dependence of the ozone uptake coefficient on the exposure time and O 3 concentration, the uptake mechanism is established and a number of elementary parameters are obtained that describe the uptake process at arbitrary O 3 concentrations. Based on the Langmuir representation of adsorption, a model description of the uptake on soot under conditions of the competitive adsorption of O 3 /NO x , where NO x = NO 2 and N 2 O 5 , taking into account the multistage uptake process, is proposed. Based on the developed model and elementary parameters describing the uptake of O 3 , NO 2 , and N 2 O 5 on a fresh soot surface, as well as the uptake of ozone on a surface pretreated with NO 2 and N 2 O 5 , numerical estimates were made of the additional contributions to the ozone uptake for two real scenarios of the O 3 /NO x ratio. For an industrial region in winter, when the ozone concentration is minimal (10 ppb O 3 , 17 ppb NO 2 , and 4 ppb N 2 O 5 ), the additional integral contribution to the uptake of O 3 on the reaction products of NO 2 with soot is 68%, and in the case of N 2 O 5 , it is 3.6%. For the same region in summer, at the maximum ozone concentration (36 ppb O 3 , 17 ppb NO 2 , and 4 ppb N 2 O 5 ), the analogous contributions will be 20 and 1%, respectively. The reasons for this difference are discussed.
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Based on the developed model and elementary parameters describing the uptake of O 3 , NO 2 , and N 2 O 5 on a fresh soot surface, as well as the uptake of ozone on a surface pretreated with NO 2 and N 2 O 5 , numerical estimates were made of the additional contributions to the ozone uptake for two real scenarios of the O 3 /NO x ratio. For an industrial region in winter, when the ozone concentration is minimal (10 ppb O 3 , 17 ppb NO 2 , and 4 ppb N 2 O 5 ), the additional integral contribution to the uptake of O 3 on the reaction products of NO 2 with soot is 68%, and in the case of N 2 O 5 , it is 3.6%. For the same region in summer, at the maximum ozone concentration (36 ppb O 3 , 17 ppb NO 2 , and 4 ppb N 2 O 5 ), the analogous contributions will be 20 and 1%, respectively. 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Based on the developed model and elementary parameters describing the uptake of O 3 , NO 2 , and N 2 O 5 on a fresh soot surface, as well as the uptake of ozone on a surface pretreated with NO 2 and N 2 O 5 , numerical estimates were made of the additional contributions to the ozone uptake for two real scenarios of the O 3 /NO x ratio. For an industrial region in winter, when the ozone concentration is minimal (10 ppb O 3 , 17 ppb NO 2 , and 4 ppb N 2 O 5 ), the additional integral contribution to the uptake of O 3 on the reaction products of NO 2 with soot is 68%, and in the case of N 2 O 5 , it is 3.6%. For the same region in summer, at the maximum ozone concentration (36 ppb O 3 , 17 ppb NO 2 , and 4 ppb N 2 O 5 ), the analogous contributions will be 20 and 1%, respectively. 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identifier ISSN: 1990-7931
ispartof Russian journal of physical chemistry. B, 2023-02, Vol.17 (1), p.234-243
issn 1990-7931
1990-7923
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subjects Adsorption
Chemical Physics of Atmospheric Phenomena
Chemistry
Chemistry and Materials Science
Industrial areas
Mathematical models
Methane
Nitrogen dioxide
Ozone
Parameters
Physical Chemistry
Reaction products
Soot
Surface chemistry
Time dependence
title Modeling the Time-Dependent O3 Uptake on a Methane Flame Soot Coating Under Conditions of Competitive O3/NO2 and O3/N2O5 Adsorption
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