
Developed a reusable uncertainty quantification framework for Higgs machine learning analyses in the blackSwanCS/Higgs_collaboration_B repository, focusing on systematic risk assessment in scientific computing workflows. The solution, implemented in Python, enables data loading, application of TES and JES systematic variations, and generation of score histograms, with placeholder fit routines to support future analysis extensions. This work established a scalable, user-facing approach for quantifying and comparing uncertainties in Higgs analyses, supporting better decision-making. Additionally, maintained code clarity through targeted refactoring, including renaming scripts to reflect intended use, and ensured clear commit history, demonstrating strong skills in data analysis and machine learning.
June 2025 monthly summary: Focused on building a reusable uncertainty quantification capability for Higgs ML analyses in blackSwanCS/Higgs_collaboration_B. Delivered a Python-based framework to load data, apply systematic variations (TES and JES), produce score histograms, and support placeholder fit routines, enabling early risk assessment and better decision-making in analysis workflows. This work lays the foundation for scalable, user-facing uncertainty analysis across Higgs analyses.
June 2025 monthly summary: Focused on building a reusable uncertainty quantification capability for Higgs ML analyses in blackSwanCS/Higgs_collaboration_B. Delivered a Python-based framework to load data, apply systematic variations (TES and JES), produce score histograms, and support placeholder fit routines, enabling early risk assessment and better decision-making in analysis workflows. This work lays the foundation for scalable, user-facing uncertainty analysis across Higgs analyses.

Overview of all repositories you've contributed to across your timeline