
L.A. Slagter developed and refined Bayesian inference workflows for astrophysical data in the t-kist/Bayesian-Statistics-for-Astrophysics-2024 repository, focusing on Sérsic profile parameter estimation. Over two months, they structured and reorganized Jupyter notebooks to improve onboarding, reproducibility, and collaboration, implementing grid-search and MCMC-style posterior estimation using Python, NumPy, and SciPy. Their work addressed instability in likelihood calculations, stabilized Poisson-based visualizations, and enhanced documentation for confidence intervals and uncertainty reporting. By standardizing plotting, synchronizing execution seeds, and consolidating results presentation, Slagter ensured the project’s analyses were robust, auditable, and maintainable, demonstrating depth in scientific computing and technical writing.

December 2024 monthly performance summary for t-kist/Bayesian-Statistics-for-Astrophysics-2024. Focused on delivering end-to-end Bayesian inference capabilities for astrophysical measurements and improving notebook quality and reproducibility across the Chapter4 materials.
December 2024 monthly performance summary for t-kist/Bayesian-Statistics-for-Astrophysics-2024. Focused on delivering end-to-end Bayesian inference capabilities for astrophysical measurements and improving notebook quality and reproducibility across the Chapter4 materials.
Concise monthly summary for 2024-11: Delivered structured notebook scaffolding and material organization for the Bayesian statistics course, enabling faster onboarding and reproducibility. Implemented and refined a Bayesian Sérsic parameter estimation workflow (parameters n, r_e) with priors, likelihood, posterior estimation, and visualization, including documentation on confidence intervals. Addressed instability in the likelihood leading to low-uncertainty peaking through iterative fixes (two rounds), improving robustness for updating with new data. Documented workflow and added metadata to notebooks to support future collaboration and auditability. Tech stack and skills demonstrated: Python, Bayesian inference, MCMC-style posterior estimation, data visualization, notebook-driven workflows, and git-based collaboration.
Concise monthly summary for 2024-11: Delivered structured notebook scaffolding and material organization for the Bayesian statistics course, enabling faster onboarding and reproducibility. Implemented and refined a Bayesian Sérsic parameter estimation workflow (parameters n, r_e) with priors, likelihood, posterior estimation, and visualization, including documentation on confidence intervals. Addressed instability in the likelihood leading to low-uncertainty peaking through iterative fixes (two rounds), improving robustness for updating with new data. Documented workflow and added metadata to notebooks to support future collaboration and auditability. Tech stack and skills demonstrated: Python, Bayesian inference, MCMC-style posterior estimation, data visualization, notebook-driven workflows, and git-based collaboration.
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