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Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud.

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Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud. / Lowe, Douglas; MacKenzie, Rob; Schlager, Hans et al.
In: Atmospheric Chemistry and Physics , Vol. 6, 2006, p. 3611-3623.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Harvard

Lowe, D, MacKenzie, R, Schlager, H, Voigt, C, Dornbrack, A, Mahoney, MJ & Cairo, F 2006, 'Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud.', Atmospheric Chemistry and Physics , vol. 6, pp. 3611-3623. <http://www.atmos-chem-phys.net/6/3611/2006/>

APA

Lowe, D., MacKenzie, R., Schlager, H., Voigt, C., Dornbrack, A., Mahoney, MJ., & Cairo, F. (2006). Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud. Atmospheric Chemistry and Physics , 6, 3611-3623. http://www.atmos-chem-phys.net/6/3611/2006/

Vancouver

Lowe D, MacKenzie R, Schlager H, Voigt C, Dornbrack A, Mahoney MJ et al. Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud. Atmospheric Chemistry and Physics . 2006;6:3611-3623.

Author

Lowe, Douglas ; MacKenzie, Rob ; Schlager, Hans et al. / Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud. In: Atmospheric Chemistry and Physics . 2006 ; Vol. 6. pp. 3611-3623.

Bibtex

@article{36128988b95a481da6141a1b9d4766a7,
title = "Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud.",
abstract = "Mountain wave polar stratospheric clouds (PSCs) were detected on 8 February 2003 above the Scandinavian Mountains by in-situ instruments onboard the M55 Geophysica aircraft. PSC particle composition, backscatter and chlorine activation for this case are studied with a recently developed non-equilibrium microphysical box model for liquid aerosol. Results from the microphysical model, run on quasilagrangian trajectories, show that the PSC observed was composed of supercooled ternary (H2O/HNO3/H2SO4) solution (STS) particles, which are out of equilibrium with the gas phase. The measured condensed nitric acid and aerosol backscatter of the PSC can well be simulated with the model. Up to 0.15 ppbv Cl2 can be released by the PSC within 2 h, showing the propensity of these small-scale clouds for chlorine activation. Equilibrium calculations {\^a}�� of the sort commonly used in large scale chemistry transport models {\^a}�� overestimate the measured condensed nitrate by up to a factor of 3, and overestimates chlorine activation by 10%, in this mountain wave cloud.",
keywords = "stratosphere, ozone, polar stratospheric cloud, aerosol",
author = "Douglas Lowe and Rob MacKenzie and Hans Schlager and Chritiane Voigt and Andreas Dornbrack and MJ Mahoney and Francesco Cairo",
year = "2006",
language = "English",
volume = "6",
pages = "3611--3623",
journal = "Atmospheric Chemistry and Physics ",
publisher = "Copernicus GmbH (Copernicus Publications) on behalf of the European Geosciences Union (EGU)",

}

RIS

TY - JOUR

T1 - Liquid particle composition and heterogeneous reactions in a mountain wave Polar Stratospheric Cloud.

AU - Lowe, Douglas

AU - MacKenzie, Rob

AU - Schlager, Hans

AU - Voigt, Chritiane

AU - Dornbrack, Andreas

AU - Mahoney, MJ

AU - Cairo, Francesco

PY - 2006

Y1 - 2006

N2 - Mountain wave polar stratospheric clouds (PSCs) were detected on 8 February 2003 above the Scandinavian Mountains by in-situ instruments onboard the M55 Geophysica aircraft. PSC particle composition, backscatter and chlorine activation for this case are studied with a recently developed non-equilibrium microphysical box model for liquid aerosol. Results from the microphysical model, run on quasilagrangian trajectories, show that the PSC observed was composed of supercooled ternary (H2O/HNO3/H2SO4) solution (STS) particles, which are out of equilibrium with the gas phase. The measured condensed nitric acid and aerosol backscatter of the PSC can well be simulated with the model. Up to 0.15 ppbv Cl2 can be released by the PSC within 2 h, showing the propensity of these small-scale clouds for chlorine activation. Equilibrium calculations � of the sort commonly used in large scale chemistry transport models � overestimate the measured condensed nitrate by up to a factor of 3, and overestimates chlorine activation by 10%, in this mountain wave cloud.

AB - Mountain wave polar stratospheric clouds (PSCs) were detected on 8 February 2003 above the Scandinavian Mountains by in-situ instruments onboard the M55 Geophysica aircraft. PSC particle composition, backscatter and chlorine activation for this case are studied with a recently developed non-equilibrium microphysical box model for liquid aerosol. Results from the microphysical model, run on quasilagrangian trajectories, show that the PSC observed was composed of supercooled ternary (H2O/HNO3/H2SO4) solution (STS) particles, which are out of equilibrium with the gas phase. The measured condensed nitric acid and aerosol backscatter of the PSC can well be simulated with the model. Up to 0.15 ppbv Cl2 can be released by the PSC within 2 h, showing the propensity of these small-scale clouds for chlorine activation. Equilibrium calculations � of the sort commonly used in large scale chemistry transport models � overestimate the measured condensed nitrate by up to a factor of 3, and overestimates chlorine activation by 10%, in this mountain wave cloud.

KW - stratosphere

KW - ozone

KW - polar stratospheric cloud

KW - aerosol

M3 - Journal article

VL - 6

SP - 3611

EP - 3623

JO - Atmospheric Chemistry and Physics

JF - Atmospheric Chemistry and Physics

ER -