Third party funded individual grant
Acronym: ROCKAT
Start date : 01.04.2024
End date : 31.03.2025
Conceptual bucket models are widely used to predict spring discharge in karstic watersheds, while solute transport modeling still remains challenging. We hypothesize that a parallelized robust conceptualization of discharge and transport significantly improves the representation of hydrological processes in the different karst compartments, i.e. soil-epikarst, matrix and conduits systems. We will apply a multi-temporal scale calibration approach, i.e. waveletanalysis, to get a well-constrained discharge and solute Transport simulation and process representation. Using the experimental results of tailored event-based sampling campaigns, we will decompose time series of electrical conductivity with a high temporal resolution into themajor ions concentrations to determine relevant factors affecting transport processes in the different parts of karstic systems. Based on our findings, we will develop transport models of different complexities and validate those for multiple karst systems.
Conceptual bucket models are widely used to predict spring discharge in karstic watersheds, while solute transport modeling still remains challenging. We hypothesize that a parallelized robust conceptualization of discharge and transport significantly improves the representation of hydrological processes in the different karst compartments, i.e. soil-epikarst, matrix and conduits systems. We will apply a multi-temporal scale calibration approach, i.e. waveletanalysis, to get a well-constrained discharge and solute Transport simulation and process representation. Using the experimental results of tailored event-based sampling campaigns, we will decompose time series of electrical conductivity with a high temporal resolution into themajor ions concentrations to determine relevant factors affecting transport processes in the different parts of karstic systems. Based on our findings, we will develop transport models of different complexities and validate those for multiple karst systems.