This repository hosts source code of LISFLOOD model. Go to Lisflood OS page for more information.
Other useful resources
Project | Documentation | Source code |
---|---|---|
Lisflood | Model docs | https://github.com/ec-jrc/lisflood-code (this repository) |
User guide | ||
Lisvap | Docs | https://github.com/ec-jrc/lisflood-lisvap |
Calibration tool | Docs | https://github.com/ec-jrc/lisflood-calibration |
Lisflood Utilities | https://github.com/ec-jrc/lisflood-utilities | |
Lisflood Usecases | https://github.com/ec-jrc/lisflood-usecases |
You can download code and datasets for testing the model. Follow this instruction for a basic test (Drina catchment, included in this repository under tests/data/Drina)
- Clone the master branch of this repository (you need to have git installed on your machine).
git clone --single-branch --branch master https://github.com/ec-jrc/lisflood-code.git
- Install requirements into a python 2.7 virtualenv
cd lisflood-code
pip install -r requirements.txt
You need to install PCRaster and include its python interface in PYTHONPATH environment variable. For details, please follow instruction on official docs.
- Compile the cython module kinematic_wave_parallel_tool
To compile this Cython module to enable OpenMP multithreading (parallel kinematic wave):
-
Delete the files *.so (if any) in directory hydrological-modules
-
Inside the hydrological_modules folder, execute "python2 compile_kinematic_wave_parallel_tools.py build_ext --inplace"
Important: the module has to be compiled on the machine where the model is run - the resulting binary is not portable.
Then in the settings file the option "numberParallelThreadsKinematicWave" may take the following values: - "0" : auto-detection of the machine/node's number of CPUs (all CPUs are used minus 1) (do not set it if other simulations are running on the same machine/node) - "1" : serial execution (not parallel) - "2", "3", ... : manual setting of the number of parallel threads. (if exceeding the number of CPUs, the option is set to "0") -->
<textvar name="numCPUs_parallelKinematicWave" value="3"/>
- Run a cold run for the Drina test catchment
Now your environment should be set up to run lisflood. Try with a prepared settings file for Drina catchment:
python src/lisflood/lisf1.py tests/data/Drina/settings/lisfloodSettings_cold_day_base.xml
If the command above successed without errors, producing dis.nc into tests/data/Drina/outputs folder, your lisflood installation was correct.
You can use the updated docker image to run lisflood, so without taking care to install dependencies on your system. First, you pull image from repository.
docker pull efas/lisflood:latest
Copy Drina catchment files from container to your host, using mapped directories.
docker run -v /absolute_path/to/my/local/folder:/usecases efas/lisflood:latest usecases
After this command, you can find all files to run a test against Drina catchment under the directory you mapped: /absolute_path/to/my/local/folder/Drina
Now, you can run LISFLOOD as a docker container to test the Drina catchment. Only thing you need to do is to map the Drina folder to the container folder input
, by using -v option.
In the XML settings file, all paths are adjusted to be relative to the very same settings file, so you don't need to edit paths, as long as you keep same folders structure.
Execute the following to run the simulation:
docker run -v /absolute_path/to/my/local/folder/Drina:/input efas/lisflood /input/settings/lisfloodSettings_cold_day_base.xml
Once LISFLOOD finished, you can find reported maps in /absolute_path/to/my/local/folder/Drina/outputs/
folder.
LISFLOOD is also distributed as a standard python package. You can install the pip package in your Python 2.71 virtualenv:
pip install lisflood-model
Command above will also install the executable lisflood
in the virtualenv, so that you can run LISFLOOD with the following:
lisflood /absolute_path/to/my/local/folder/Drina/settings/lisfloodSettings_cold_day_base.xml
1: We planned to migrate to Python 3 in a few months.