Main watersystem

All files are in notebooks/rijkswaterstaat are numbered in order of execution.

1_bathymetrie.py

In this script we merge data from Baseline (version j23_6-v1, non-public) with grids from bathymetrie-Nederland to one 5x5m GeoTiff.

We combine both sources as the Midden Limburgse en Noord Brabantse (MLNB) kanalen are not in Baseline and the IJsselmeer is not completely covered in bathymetrie-Nederland. For the mask we use Top10NL waterdelen and manually filled a boolean column baseline.

Bathymetry mask

Bathymetry

2_basins.py

We derive Ribasim Basins (areas) for the RWS-watersystem. Using the resulting bathymetry of 1_bathymetry.py we write a CSV-file with a Basin profile.

3_netwerk.py

We derive a ribasim_nl.Network (not a Ribasim network yet!) we can use to build a model_network with 5_model_netwerk.py. The network is taken from OpenStreetMap (OSM) with modifications made, mainly in the IJsselmeer. You need the Basins from 2_basins.py as a network node will be put at the intersect of a Basin-polygon and the network.

4_kunstwerken.py

We combine structures from RWS NIS (Netwerk Informatie Systeem) Baseline and OSM and combine everything to a HyDAMO-based format we can use to derive our Ribasim network (model_netwerk.py).

5_model_netwerk.py

We combine the result of step 2 till 4 to derive a first ribasim-network that will be stored in a .\modellen\hws_netwerk\hws.toml file. This excludes control (e.g. bifurcations of Monsin and Pannerden) and demand/supply.

6_model_sturing.py

We take the model of 5 (.\modellen\hws_netwerk\hws.toml), add control and write it to (.\modellen\hws_sturing\hws.toml)

7_model_onttrekkingen.py

We take the model of 6 (.\modellen\hws_sturing\hws.toml), add drinking water, industry and energy demands and write it to (.\modellen\hws_demand\hws.toml)

8 update bc, state, etc.

Scripts to provide boundary/initial conditions to the model in .\modellen\hws_demand\hws.toml and write it in another location.