Releases: igfuw/libcloudphxx
Convergence paper
distributed memory implementation
Code used in the paper:
P. Dziekan and P. Zmijewski
"University of Warsaw Lagrangian Cloud Model (UWLCM) 2.0: Adaptation of a mixed Eulerian-Lagrangian numerical model for heterogeneous computing clusters"
GCCN paper: revision
Code used in simulations presented in the revised version of the paper:
P. Dziekan, J. Jensen, W. Grabowski and H. Pawlowska
"Impact of Giant Sea Salt Aerosol Particles on Precipitation in Marine Cumuli and Stratocumuli”.
The release contains some beta features.
KiD-A paper
Code used when preparing KiD-A simulations for the intercomparison paper.
To be used only for simulating KiD-A.
GCCN paper
Code used in simulations presented in the paper:
P. Dziekan, J. Jensen, W. Grabowski and H. Pawlowska
"Impact of Giant Sea Salt Aerosol Particles on Precipitation in Marine Cumuli and Stratocumuli”.
UWLCM paper
Code used in simulations presented in the paper:
P. Dziekan, M. Waruszewski and H. Pawlowska
"University of Warsaw Lagrangian Cloud Model (UWLCM) 1.0: a modern Large-Eddy Simulation tool for warm cloud modeling with Lagrangian microphysics”
submitted to Geoscientific Model Development.
Version of the code submitted to GMD review with manuscript about chemistry extension of libcloudph++
Merge pull request #327 from pdziekan/delayed_advection Delayed advection
Version of libcloudph++ used in the PhD thesis of Jaruga
This version contains the aqueous phase chemistry module of the Lagrangian scheme (@trontrytel):
- six trace gases are included: sulfur dioxide, hydrogen peroxide, ozone, carbon dioxide, ammonia and nitric acid
- chemical processes cover dissolving of trace gasses into water drops and their further dissociation into ions and oxidation of the dissolved sulfur dioxide to sulfuric acid.
Additionally this version contains (@pdziekan):
- different advection schemes for super-droplets
- different initialization options (constant multiplicity, more accurate initialization, initialization by specifying the radius and concentration)
- more accurate sub-steps
- aerosol sources
- different collision kernels and terminal velocities for super-droplets
- simulations using many GPUs