Machine Learning And Uncertainty Quantification Scientist (Data-Driven Weather Models)
Bonn, North Rhine-Westphalia, Germany
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Summary
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Senior
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Top School
Mariana Clare is a machine learning and uncertainty quantification scientist with eight years’ experience applying probabilistic AI to weather and climate systems, currently helping develop ECMWF’s data-driven forecasting model AIFS. She bridges rigorous mathematical modelling (PhD, Imperial College) with operational forecasting, focusing on trustworthy, interpretable methods—teaching ECMWF’s MOOC that reached 7,000+ learners. Her work spans generative and Bayesian neural networks for probabilistic forecasts, adjoint-enabled finite-element contributions to Firedrake, and practical post-processing for high-resolution digital twins. Prior roles at the Met Office, IPSL and industry (PwC, MUFG) illustrate her ability to translate research into deployable tools and stakeholder-facing products. Notably, she pairs deep domain expertise in coastal and ocean dynamics with hands-on open-source commits that improve uncertainty workflows in community projects.
8 years of coding experience
3 years of employment as a software developer
MMath Mathematics, MMath Mathematics at University of Oxford
PhD Mathematical modelling Department of Earth Science and Engineering, PhD Mathematical modelling Department of Earth Science and Engineering at Imperial College London
Firedrake is an automated system for the portable solution of partial differential equations using the finite element method (FEM)
Role in this project:
Back-end Developer
Contributions:5 reviews, 27 commits, 1 PR in 1 year 11 months
Contributions summary:Mariana focused on enhancing the adjoint capabilities of the Firedrake project. They added new functionality to split functions and modified existing blocks, constants and function mixins to support adjoint calculations. The contributions involved modifications to core components and also refactoring some aspects of the existing adjoint system. The user appears to be improving the performance and accuracy of adjoint operations within the finite element method framework.
Contributions summary:Mariana primarily focused on updating a Jupyter Notebook related to probabilistic ocean regime predictions using a Bayesian Neural Network (BNN). Their commits involved modifying code within the notebook, specifically in the `tier_2/uncertainty/Using a BNN for probabilistic ocean regime predictions.ipynb` file, likely related to model compilation and summary. They also updated `obs-env.ipynb` related to observations and the test file `test_notebooks.py`.
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