Oral session:
| S4.1 Microphysical cloud properties and cloud probes’ benchmark during the Pallas Cloud Experiments (PaCE). Konstantinos Doulgeris*1, Ari Leskinen2, Mika Komppula2, David Brus1 1Finnish Meteorological Institute, Finland, 2Finnish Meteorological Institute, Finland (video; position 0:00) |
| S4.2 Liquid water content and effective radius retrievals in mixed-phase cloud layers from Cloud radar data based on the forward modeling Yujun Qiu*1, Tom Choularton2, Jonny Crosier2 1Key Laboratory for Aerosol-Cloud-Precipitation of China Meteorological Administration, Nanjing University of Information Science & Technology, China, 2Centre for Atmospheric Science, SEAES,University of Manchester, UK (video; position 15:35) |
| S4.3 Aircraft Observations of Liquid and Ice in Midlatitude Mixed-Phase Clouds Zhen Zhao*, Heng-chi Lei Institute of Atmospheric Physics,Chinese Academy of Sciences, China (video; position 30:00) |
| S4.4 Vertical profiles of cloud properties measured with a holographic imager on a cable car Alexander Beck*, Jan Henneberger, Zamin A. Kanji, Ulrike Lohmann Institute of Atmospheric and Climate Science, ETH Zurich, Switzerland (video; position 0:00) |
| S4.5 A detailed examination of the microphysical processes leading to ice production within an orographic wintertime cloud with freezing drizzle Jeffrey French*1, Sarah Tessendorf2, Darcy Jacobson1, Roy Rasmussen2, Bart Geerts1, Binod Pokharel1, Lulin Xue1, Pat Holbrook3, Mel Kunkel3, Derek Blestrud3, Shaun Parkinson3 1University of Wyoming, USA, 2NCAR/RAL, USA, 3Idaho Power Company, USA (video; position 15:12) |
| S4.6 In-situ airborne observations of small ice in turbulent mixed phase altocumulus clouds. Paul Barrett*1,2, Alan Blyth2,3, Philip R. A. Brown1, Zbigniew Ulanowski4 1Met Office, UK, 2University of Leeds School of Earth and Environment, Institute for Climate and Atmospheric Science, UK, 3National Centre for Atmospheric Science, University of Leeds, UK, 4Centre for Atmospheric and Instrumentation Research, University of Hertfordshire, UK (video; position 31:22) |
| S4.7 In situ and radar Doppler spectrum constraints of ice sticking efficiency and ice properties in a mid-latitude squall line Marcus van Lier-Walqui*1,2, Ann Fridlind2, Andrew Ackerman2, Christopher Williams3, Greg McFarquhar4, Wei Wu4, Xiaowen Li5,6, Wei-Kuo Tao6, Alexei Korolev7 1Columbia University, USA, 2NASA Goddard Institute For Space Studies, USA, 3University of Colorado, USA, 4University of Illinois, USA, 5Morgan State University, USA, 6NASA Goddard Space Flight Center, USA, 7Environment Canada, Canada (video; position 0:00) |
| S4.8 LIMA: A two-moment microphysical scheme driven by a multimodal population of cloud condensation and ice freezing nuclei Jean-Pierre Pinty*1, Benoît Vié2, Sarah Berthet3, Maud Leriche1 1Laboratoire d’Aérologie, UMR5560, CNRS/Université de Toulouse, France, 2Météo-France, UMR3589, CNRS/Météo-France, France, 3LEGOS, UMR5566, CNES/CNRS/IRD/Université de Toulouse, France (video; position 15:00) |
| S4.9 Microphysics parameterization of explicit partial melting of snow to study the formation of freezing rain and ice pellets Mélissa Cholette*, Julie M. Thériault University of Quebec at Montreal, Canada (video; position 31:00) |
| S4.10 Effect of Evaporation on Midlatitude Continental Convective Clouds Experiment (MC3E) Melting Layer Simulations Andrea Neumann*1, Michael Poellot1, Andrew Heymsfield2, Aaron Bansemer2 1University of North Dakota, USA, 2National Center for Atmospheric Research, USA (video; position 0:00) |
| S.4.11 Synthesis of observations and models using a new Bayesian framework for microphysical parameterization Hugh Morrison1, Marcus van Lier-Walqui*2, Matthew Kumjian3, Olivier Prat4 1NCAR, USA, 2Columbia University, USA, 3Pennsylvania State University, USA, 4North Carolina State University, USA (video; position 15:00) |
| S4.12 Relationship between atmospheric aerosols, hail and polarimetric radar signatures in a mid-latitude storm Eyal Ilotoviz1, Alexander Khain*1, Vaughan Phillips2, Alexander Ryzhkov3 1The Hebrew University of Jerusalem, Israel, 2Lund University, Sweden, 3University of Oklahoma, USA (video; position 30:31) |
Poster session:
| P4.1 Analysis on the microphysical features of raindrop size distribution under different synoptic systems in mountainous area Fujian Lin Wen*1, Lin Changcheng1, Yao Zhanyu2, Chen Binbin1, Li Dan1, Zheng Wenjun3 1Fujian Meteorological Science Institute, China, 2Chinese Academy of Meteorological Science, China, 3Youxi Meteorological Bureau, China |
| P4.2 Investigation of Riming within Mixed-phase Stratiform Clouds Using Weather Research and Forecasting (WRF) Model Tuanjie Hou*, Hengchi Lei, Zhaoxia Hu Institute of Atmospheric Physics, Chinese Academy of Sciences, China |
| P4.3 Investigation of Mass-Dimension Relationship Parameters Within a Surface of Equally Realizable Solutions Joseph Finlon*1,3, Greg McFarquhar1,3, Robert Rauber1, Brian Jewett1, David Plummer1,2, Roy Rasmussen3 1University of Illinois at Urbana-Champaign, USA, 2University of Wyoming, USA, 3National Center for Atmospheric Research, USA |
| P4.4 Diffusion processes in mixed-phase clouds involving direct particle interactions Manuel Baumgartner*, Peter Spichtinger Johannes Gutenberg University, Germany |
| P4.5 Aerosol-cloud interactions over the Arctic using the Canadian atmospheric chemistry model GEM-MACH Ana Cirisan*1, Sylvie Gravel2, Wanmin Gong3, Vickie Irish4, Allan Bertram4, Éric Girard1 1Université du Québec à Montréal, Canada, 2Canadian Meteorological Centre, Canada, 3Environment Canada, Canada, 4Department of Chemistry, The University of British Columbia, Canada |
| P4.6 Modeling the melting of graupel and hail in a bulk microphysics parameterization Axel Seifert*1, Vivek Sant2 1Deutscher Wetterdienst, Germany, 2Max Planck Institute for Meteorology, Germany |
| P4.7 Implementing ice microphysics to a large eddy simulation model coupled with sectional aerosol module Jaakko Ahola*1,3, Tomi Raatikainen1, Juha Tonttila2, Sami Romakkaniemi2, Hannele Korhonen1 1Finnish Meteorological Institute, Finland, 2Finnish Meteorological Institute, Finland, 3University of Turku, Finland |
| P4.8 Model simulations with COSMO-SPECS: Application of prognostic INP description for stratiform clouds Martin Simmel*1, Matthias Lieber2, Oswald Knoth1, Ina Tegen1 1TROPOS Leibniz Institute for Tropospheric Research, Germany, 2Center for Information Services and High Performance Computing (ZIH), TU Dresden, Germany |
| P4.9 Comparison of large eddy simulation models for arctic clouds Tomi Raatikainen*1, Jaakko Ahola1, Juha Tonttila2, Sami Romakkaniemi2, Ari Laaksonen1, Hannele Korhonen1 1Finnish Meteorological Institute, Finland, 2Finnish Meteorological Institute, Finland |
| P4.10 The Importance of Soil Dust for Mixed-phase Clouds in Global Climate Models Luisa Ickes*, Tanja Stanelle, Ulrike Lohmann Institute for Atmospheric and Climate Science, Switzerland |
| P4.11 Aircraft measurements of mixed-phase clouds versus cloud-resolving modeling studies in Northern China Xueliang Guo*, Shichao Zhu, Guangxian Lu, Lijun Guo Chinese Academy of Meteorological Sciences, China |
| P4.12 Formation and development of orographic mixed phase clouds in real cases Olga Henneberg*, Ulrike Lohmann, Jan Henneberger ETH Zurich, Switzerland |
| P4.13 An LES study on the role of ship induced ACI in mixed-phase stratocumulus Anna Possner*1, Annica Ekman2, Ulrike Lohmann1 1ETH Zurich, Switzerland, 2Stockholm University, Sweden |
| P4.14 The evolution and precipitation production of an orographic wintertime cloud with freezing drizzle Sarah Tessendorf*1, Jeffrey French2, Courtney Weeks1, Roy Rasmussen1, Bart Geerts2, Binod Pokharel2, Lulin Xue1, Pat Holbrook3, Derek Blestrud3, Melvin Kunkel3, Shaun Parkinson3 1NCAR/RAL, USA, 2University of Wyoming, USA, 3Idaho Power Company, USA |
| P4.15 Modelling of water stable isotope ratios in a 1.5D bin-resolved microphysics model Andrea Flossmann*1,2, Wolfram Wobrock1,2 1LaMP/UBP, France, 2INSU/CNRS, France |
| P4.16 Ground based in situ measurements of arctic cloud microphysical and optical properties at Mount Zeppelin, Svalbard Guyot gwennolé*1, Jourdan Olivier1, Olofson Frans1, Schwarzenboeck Alfons1, Gourbeyre Christophe1, Febvre Guy1, Dupuy Régis1, Bernard Christophe2, Tunved Peter3, Ancellet Gérard4, Law Kathy4, Wobrock Wolfram1, Shcherbakov Valery1 1LaMP, France, 2OPGC, France, 3Department of Applied Environmental Science, Sweden, 4LATMOS, France |
| P4.17 Identification of super-cooled liquid layers in mixed-phase clouds based on cloud radar observations Anne Hirsikko1, Ewan O’Connor1,2, Mika Komppula3, Sami Romakkaniemi*3 1Finnish Meteorological Institute, Finland, 2University of Reading, UK, 3Finnish Meteorological Institute, Finland |
| P4.18 Understanding microphysical controls on arctic stratus clouds: A comparison of high-resolution NWP models during the ASCOS field campaign Christopher Dearden*1, Robin Stevens2, Anna Possner3 1University of Manchester, UK, 2University of Leeds, UK, 3ETH, Switzerland |
| P4.19 Response of mixed-phase boundary layer clouds with predominantly rapid or slow ice nucleation processes to cloud-top temperature trend Ann Fridlind*1, Alexander Avramov2, Andrew Ackerman1, Peter Alpert3, Daniel Knopf4, Paul DeMott5, Sarah Brooks6, Andrew Glen6 1NASA GISS, USA, 2MIT, USA, 3CNRS, France, 4Stony Brook University, USA, 5Colorado State University, USA, 6Texas A&M University, USA |
| P4.20 A model for a turbulent mixed-phase cloud Ben Devenish Met Office, UK |