Prof. Dr. Oliver Schilling
ProfessorProfessor
Bernoullistrasse 30/32
4056
Basel
Schweiz
Research Interest
In our research, we aim to improve the conceptual and quantitative understanding of surface water-groundwater interactions in diverse environments. We base the characterization of hydrogeological and ecohydrological processes on two fundamental pillars: (a) on diverse observations of hydrological and biogeochemical fluxes and processes, and (b) on integrated surface-subsurface hydrological models (ISSHM). On the one hand, integrating observations that represent different spatial and temporal scales is necessary to characterize the highly dynamic and complex behavior of hydrological and biogeochemical processes in the subsurface, on the surface, in the atmosphere and in the biosphere. On the other hand, numerical models able to simulate all relevant fluxes and processes throughout both the surface and the subsurface in a physically based manner are necessary to quantify and predict the current and future behavior of hydrogeological systems. To take full advantage of both domains in the advancement of our understanding of hydrological and biogeochemical processes in surface water-groundwater systems, we integrate both components via state-of-the-art model calibration and data assimilation algorithms.
We currently focus our efforts on developing and employing novel hydrological tracer techniques and on advancing the simulation of surface water-groundwater systems with ISSHM by calibration against tracer data. Tracer techniques that we currently develop and employ include dissolved atmospheric noble gases, microbial information based on environmental DNA or flow cytometry, and naturally present radioactive tracers such as 222Rn, 37Ar or 3H/3He. We are particularly interested in using techniques that allow near real-time measurements of tracers online and directly in the field.
Special attention, however, is dedicated to investigations of the complex and dynamic surface water-groundwater interactions that occur along the gravelly alluvial rivers that are used for drinking water production via bank filtration, which in Switzerland account for around 30% of the total drinking water production, and in Europe for more than 50%.
Academic Appointments and Employment
Since 2022 Assistant Professor of Hydrogeology, University of Basel & Eawag, CH
2020 – 2022 Research Fellow, Université de Neuchâtel (UniNe), CH
2020 – 2022 Coordinator of the Swiss Water-Earth Systems (WES) PhD school, UniNe, CH
2019 – 2020 Research Fellow, Flinders University, AUS
2017 – 2019 SNFS Early Postdoc.Mobility Fellow, Laval University (ULaval), CAN
2017 Postdoctoral Researcher, UniNe, CH
2013 – 2017 PhD Student, UniNe, CH
2012 Hydrogeologist, NTEC Environmental Technology, AUS
2011 – 2012 Research Assistant, WA Geothermal Centre of Excellence, CSIRO, AUS
2010 – 2011 Research Assistant, Swiss Federal Institute of Technology (ETH Zürich), CH
2010 Environmental Internship, South Florida Water Management District, USA
2010 Environmental Internship, Umwelt und Energie Luzern, CH
Education
2023 CAS in Leadership in Science, FHNW, CH
2021 - 2022 CAS in Advanced Machine Learning, University of Bern, CH (paused)
2019 – 2020 Flinders Foundations in Higher Education Teaching, Flinders University, AUS
2013 – 2017 PhD in Hydrogeology, UniNe, CH
2015 – 2016 CAS in Applied Statistics, ETH Zürich, CH
2005 – 2011 BSc & MSc in Environmental Sciences, ETH Zürich, CH
Academic achievements, services, fellowships, and awards
Since 2025 Editor, Hydrogeology Journal
Since 2022 Member Teaching Committee, BSc&Msc in Geosciences, University of Basel
Since 2021 Associate Editor, Frontiers in Water
2020 – 2022 National coordinator, Swiss Water-Earth Systems PhD School
2018 – 2024 Associate Editor, Hydrogeology Journal
2017 – 2018 SNSF early postdoc.mobility fellowship, (grant: P2NEP2_171985)
2017 Prix Leon du Pasquier and Louis Perrier, Best PhD thesis at UniNe in 2017