Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds

Gravity-wave-induced polar stratospheric clouds (PSCs) were observed over the Scandinavian mountains by airborne lidar on January 9, 1997. Guided by the forecasts of a mesoscale dynamical model, a flight path was chosen to lead through the coldest predicted region parallel to the wind at the expecte...

Full description

Bibliographic Details
Main Authors: Wirth, Martin, Weiß, V., Renger, Wolfgang, Dörnbrack, Andreas, Leutbecher, Martin, Volkert, Hans, Tsias, A., Carslaw, Ken S., Peter, Thomas
Format: Other Non-Article Part of Journal/Newspaper
Language:English
Published: Wiley 1999
Subjects:
Online Access:https://elib.dlr.de/10396/
https://elib.dlr.de/10396/1/12-hv.pdf
http://www.agu.org/
id ftdlr:oai:elib.dlr.de:10396
record_format openpolar
spelling ftdlr:oai:elib.dlr.de:10396 2023-05-15T15:06:09+02:00 Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds Wirth, Martin Weiß, V. Renger, Wolfgang Dörnbrack, Andreas Leutbecher, Martin Volkert, Hans Tsias, A. Carslaw, Ken S. Peter, Thomas 1999 application/pdf https://elib.dlr.de/10396/ https://elib.dlr.de/10396/1/12-hv.pdf http://www.agu.org/ en eng Wiley https://elib.dlr.de/10396/1/12-hv.pdf Wirth, Martin und Weiß, V. und Renger, Wolfgang und Dörnbrack, Andreas und Leutbecher, Martin und Volkert, Hans und Tsias, A. und Carslaw, Ken S. und Peter, Thomas (1999) Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds. Journal of Geophysical Research, 104, Seiten 23971-23981. Wiley. ISSN 0148-0227 Institut für Physik der Atmosphäre Lidar Zeitschriftenbeitrag PeerReviewed 1999 ftdlr 2019-08-04T22:53:34Z Gravity-wave-induced polar stratospheric clouds (PSCs) were observed over the Scandinavian mountains by airborne lidar on January 9, 1997. Guided by the forecasts of a mesoscale dynamical model, a flight path was chosen to lead through the coldest predicted region parallel to the wind at the expected PSC level (23–26 km). Because of the nearly stationary nature of the wave-induced PSC the individual filaments visible in the backscatter data of the clouds can be interpreted as air parcel trajectories. Assuming dry adiabatic behavior and fixing the absolute temperature to the ice frost point in the ice part of the cloud enables detailed microphysical simulations of the whole life cycle of the cloud particles. Optical calculations are used to adjust open parameters in the microphysical model by optimizing the agreement with the multichannel lidar data. This case is compared with former work from the Arctic winter 1994/1995. The influence of the stratospheric H 2 SO 4 content and the cooling rate on the type of cloud particles (liquid ternary solution droplets or solid nitric acid hydrates) released from the ice part of the cloud is evaluated. Other Non-Article Part of Journal/Newspaper Arctic German Aerospace Center: elib - DLR electronic library Arctic
institution Open Polar
collection German Aerospace Center: elib - DLR electronic library
op_collection_id ftdlr
language English
topic Institut für Physik der Atmosphäre
Lidar
spellingShingle Institut für Physik der Atmosphäre
Lidar
Wirth, Martin
Weiß, V.
Renger, Wolfgang
Dörnbrack, Andreas
Leutbecher, Martin
Volkert, Hans
Tsias, A.
Carslaw, Ken S.
Peter, Thomas
Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds
topic_facet Institut für Physik der Atmosphäre
Lidar
description Gravity-wave-induced polar stratospheric clouds (PSCs) were observed over the Scandinavian mountains by airborne lidar on January 9, 1997. Guided by the forecasts of a mesoscale dynamical model, a flight path was chosen to lead through the coldest predicted region parallel to the wind at the expected PSC level (23–26 km). Because of the nearly stationary nature of the wave-induced PSC the individual filaments visible in the backscatter data of the clouds can be interpreted as air parcel trajectories. Assuming dry adiabatic behavior and fixing the absolute temperature to the ice frost point in the ice part of the cloud enables detailed microphysical simulations of the whole life cycle of the cloud particles. Optical calculations are used to adjust open parameters in the microphysical model by optimizing the agreement with the multichannel lidar data. This case is compared with former work from the Arctic winter 1994/1995. The influence of the stratospheric H 2 SO 4 content and the cooling rate on the type of cloud particles (liquid ternary solution droplets or solid nitric acid hydrates) released from the ice part of the cloud is evaluated.
format Other Non-Article Part of Journal/Newspaper
author Wirth, Martin
Weiß, V.
Renger, Wolfgang
Dörnbrack, Andreas
Leutbecher, Martin
Volkert, Hans
Tsias, A.
Carslaw, Ken S.
Peter, Thomas
author_facet Wirth, Martin
Weiß, V.
Renger, Wolfgang
Dörnbrack, Andreas
Leutbecher, Martin
Volkert, Hans
Tsias, A.
Carslaw, Ken S.
Peter, Thomas
author_sort Wirth, Martin
title Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds
title_short Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds
title_full Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds
title_fullStr Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds
title_full_unstemmed Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds
title_sort model guided lagrangian observation and simulation of mountain polar stratospheric clouds
publisher Wiley
publishDate 1999
url https://elib.dlr.de/10396/
https://elib.dlr.de/10396/1/12-hv.pdf
http://www.agu.org/
geographic Arctic
geographic_facet Arctic
genre Arctic
genre_facet Arctic
op_relation https://elib.dlr.de/10396/1/12-hv.pdf
Wirth, Martin und Weiß, V. und Renger, Wolfgang und Dörnbrack, Andreas und Leutbecher, Martin und Volkert, Hans und Tsias, A. und Carslaw, Ken S. und Peter, Thomas (1999) Model guided Lagrangian observation and simulation of mountain polar stratospheric clouds. Journal of Geophysical Research, 104, Seiten 23971-23981. Wiley. ISSN 0148-0227
_version_ 1766337812216414208