From 4a50234fb57e939b4433ed0297aa1ecf5d63775c Mon Sep 17 00:00:00 2001 From: Behrooz Keshtgar <b381185@levante3.lvt.dkrz.de> Date: Mon, 16 Jan 2023 11:50:01 +0100 Subject: [PATCH] publication --- README.md | 6 ++++-- blc_initial_conditions/README.md | 6 +++--- icon_runscripts/README.md | 24 ++++++++++++------------ 3 files changed, 19 insertions(+), 17 deletions(-) diff --git a/README.md b/README.md index 1d4cd57..60ea4fc 100644 --- a/README.md +++ b/README.md @@ -1,4 +1,6 @@ -# Keshtgar et al. (2022). Cloud-radiative impact on the dynamics and predictability of an idealized extratropical cyclone +# Scripts for "Cloud-radiative impact on the dynamics and predictability of an idealized extratropical cyclone" + +Keshtgar et al. (2023), https://doi.org/10.5194/wcd-2022-35 Code repository for the ICON simulation run scripts, scripts for deriving baroclinic life cycle initial conditions, postprocessing of model output files, and the analysis scripts. -The post-processed data used in the analysis along with a copy of the Git repository are published at the LMU open data server (https://doi.org/10.57970/h1y02-bjv70). +The post-processed data used in the analysis along with a copy of the scripts here are also available at the LMU open data server (https://doi.org/10.57970/h1y02-bjv70). diff --git a/blc_initial_conditions/README.md b/blc_initial_conditions/README.md index efde33d..93ffb17 100644 --- a/blc_initial_conditions/README.md +++ b/blc_initial_conditions/README.md @@ -1,8 +1,8 @@ **Initialization Procedure** -The initial conditions for baroclinic life cycle simulations are the same as in Schäfer andVoigt, 2018 (https://agupubs.onlinelibrary.wiley.com/doi/full/10.1002/2017GL076726) and follow the life cycle type 1 configuration of Polvani and Esler, 2007 (https://agupubs.onlinelibrary.wiley.com/doi/abs/10.1029/2007JD008555) with the zonally uniform zonal wind in thermal wind balance with a zonally uniform temperature field. +The initial conditions for baroclinic life cycle simulations are the same as in Schäfer an dVoigt, 2018 (https://agupubs.onlinelibrary.wiley.com/doi/full/10.1002/2017GL076726) and follow the life cycle type 1 configuration of Polvani and Esler, 2007 (https://agupubs.onlinelibrary.wiley.com/doi/abs/10.1029/2007JD008555) with the zonally uniform zonal wind in thermal wind balance with a zonally uniform temperature field. -The maximum speed of the jet is set to 45 m/s and is centered at 45°N. Meridional and vertical velocities are also set to 0 m/s. The initial surface temperature is 300 . The baroclinic life cycle is triggered by adding a sinusoidal thermal wave with a 1 K amplitude at all levels and with a wavelength equal to the domain length. The surface relative humidity (RH0), is set to 80%, and the moisture scale height (Zt) is set to 12 km. The relative humidity is specified according to: +The maximum speed of the jet is set to 45 m/s and is centered at 45°N. Meridional and vertical velocities are also set to 0 m/s. The initial surface temperature is 30 K. The baroclinic life cycle is triggered by adding a sinusoidal thermal wave with a 1 K amplitude at all levels and with a wavelength equal to the domain length. The surface relative humidity (RH0), is set to 80%, and the moisture scale height (Zt) is set to 12 km. The relative humidity is specified according to: RH = RH0*(1-0.85 x Z/Zt)**(5/4) @@ -16,7 +16,7 @@ RH = RH0*(1-0.85 x Z/Zt)**(5/4) 'Channel_4000x9000_2500m_with_boundary.nc' that is the channel grid generated by MPI grid_generator (grid.create.channels.run). -These files will be uploaded to the KITOpen. 2- The bash script '02_limited_channel_setup_2km_extpar_and_ozone.sh' prepares external files for the planar channel simulations: external fields and Ozone from a standard aquaplanet simulation. +The input files are available at the LMU open data server. diff --git a/icon_runscripts/README.md b/icon_runscripts/README.md index eee23fa..d9a7abd 100644 --- a/icon_runscripts/README.md +++ b/icon_runscripts/README.md @@ -1,25 +1,25 @@ **ICON simulations** -LC1-channel-4000x9000km-2km-0002 : no radiation +LC1-channel-4000x9000km-2km-0002 : Simulation with no radiation -LC1-channel-4000x9000km-2km-0003 : cloud radiaton +LC1-channel-4000x9000km-2km-0003 : Simulation with only cloud radiation -LC1-channel-4000x9000km-2km-0004 : 2x cloud radiation +LC1-channel-4000x9000km-2km-0004 : Simulation with only cloud radiation scaled by a factor of 2 -LC1-channel-4000x9000km-2km-0005 : restart at day 3 +LC1-channel-4000x9000km-2km-0005 : Simulation with only cloud radiation until day 3 -LC1-channel-4000x9000km-2km-0006 : restart at day 4 +LC1-channel-4000x9000km-2km-0006 : Simulation with only cloud radiation until day 4 -LC1-channel-4000x9000km-2km-0007 : restart at day 5 +LC1-channel-4000x9000km-2km-0007 : Simulation with only cloud radiation until day 5 -LC1-channel-4000x9000km-2km-0008 : restart at day 6 +LC1-channel-4000x9000km-2km-0008 : Simulation with only cloud radiation until day 6 -LC1-channel-4000x9000km-2km-0009 : no radiation, two-moment microphysics +LC1-channel-4000x9000km-2km-0009 : Simulation with no radiation, and with 2-moment microphysics -LC1-channel-4000x9000km-2km-0010 : cloud radiaton, two-moment microphysics +LC1-channel-4000x9000km-2km-0010 : Simulation with only cloud radiation, and with 2-moment microphysics -LC1-channel-4000x9000km-80km-0001 : full radiation +LC1-channel-4000x9000km-80km-0001 : Simulation with all-sky radiation -LC1-channel-4000x9000km-80km-0002 : no radiation +LC1-channel-4000x9000km-80km-0002 : Simulation with no radiation -LC1-channel-4000x9000km-80km-0003 : cloud radiaton +LC1-channel-4000x9000km-80km-0003 : Simulation with only cloud radiation -- GitLab