Research output: Contribution to Journal/Magazine › Journal article › peer-review
Research output: Contribution to Journal/Magazine › Journal article › peer-review
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TY - JOUR
T1 - A condensed-mass advection based model of liquid polar stratospheric clouds.
AU - MacKenzie, Rob
AU - Kettleborough, J.
AU - Lowe, D.
AU - Nikiforakis, N.
N1 - It provides the first description of the MADVEC model of polar stratospheric clouds. MacKenzie wrote the first version of the model, taking advice on mathematical formulation from Kettleborough and Nikiforakis; it was finalised by Lowe, during a PhD supervised by MacKenzie, and, subsequently applied to EuPLEx campaign data. RAE_import_type : Journal article RAE_uoa_type : Earth Systems and Environmental Sciences
PY - 2003/1/28
Y1 - 2003/1/28
N2 - We present a condensed-mass advection based model (MADVEC) designed to simulate the condensation/evaporation of liquid polar stratospheric cloud (PSC) particles. A (Eulerian-in-radius) discretization scheme is used, making the model suitable for use in global or mesoscale chemistry and transport models (CTMs). The mass advection equations are solved using an adaption of the weighted average flux (WAF) scheme. We validate the numerical scheme using an analytical solution for multicomponent aerosols. The physics of the model are tested using a test case designed by Meilinger et al. (1995). The results from this test corroborate the composition gradients across the size distribution under rapid cooling conditions that were reported in earlier studies.
AB - We present a condensed-mass advection based model (MADVEC) designed to simulate the condensation/evaporation of liquid polar stratospheric cloud (PSC) particles. A (Eulerian-in-radius) discretization scheme is used, making the model suitable for use in global or mesoscale chemistry and transport models (CTMs). The mass advection equations are solved using an adaption of the weighted average flux (WAF) scheme. We validate the numerical scheme using an analytical solution for multicomponent aerosols. The physics of the model are tested using a test case designed by Meilinger et al. (1995). The results from this test corroborate the composition gradients across the size distribution under rapid cooling conditions that were reported in earlier studies.
M3 - Journal article
VL - 3
SP - 29
EP - 38
JO - Atmospheric Chemistry and Physics
JF - Atmospheric Chemistry and Physics
SN - 1680-7316
IS - 1
ER -