Dr.
Josefine Wilms
Function and Responsibilities:
- Applied mathematician performing gravity field retrieval simulations.
- Development of post-processing environments to evaluate simulations.
Research Interests:
- Gravity field retrieval
- Data science and Applied Machine Learning with scarce data
- High performance computing
- Post-processing and visualization of results
Career:
Education:
1999-2002 Bachelor of Science (B.Sc.), University of Stellenbosch
2002-2004 B.Sc. Hons, University of Stellenbosch
2004-2006 Master in Engineering Science, University of Stellenbosch
2006-2012 PhD, Computational fluid dynamics, University of Stellenbosch
Projects:
March 2021 - Present
- Gravity field retrieval simulations with EPOS-OC for NGGM/MAGIC – Science Support Study and ESA Third Party Mission Study.
- Support for development of Payload Data Ground Segment concept for the NGGM study.
- Gravity field retrieval simulations and development of post-processing strategies for MAGIC_CCN1
- Gravity field retrieval simulations and further development of post-processing strategies for NGGM-MPEF
March 2019 – February 2021
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Development of SNAP pipeline in python for the calculation of land subsidence from SAR Sentinel1 images.
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Modelled suspended particle matter in the Wadden sea using stacked ensemble machine learning methods.
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Developed Flask based API for doing pre-processing for chemical and biological input components to the DFlowFM model.
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Developed and deployed docker containers for Jupyter notebooks on Azure. These notebooks were for online courses at Deltares.
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Developed a gradient boosting based machine learning model to predict overtopping at coastal structures.
December 2015-February 2019
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Developed a river routing model to simulate the movement of surface runoff to oceans on a global scale.
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Constructed an interface that converts weather data from three different sources into a standard format and combines these into a single database.
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Constructed models to predict overtopping at coastal structures with OpenFOAM (IHFoam).
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Trained feedforward and recurrent neural networks on river discharge data.