Selected applied machine-learning projects conducted at HSLU.
Built an end-to-end OCR + LLM information-extraction system for ~1,500 heterogeneous legal and regulatory documents, transforming unstructured documents into structured, machine-readable data.
Designed the extraction architecture around staged LLM reasoning and validation, separating relevance detection, value extraction, and consistency checking to handle noisy documents and ambiguous regulatory language.
Developed a systematic evaluation framework for extraction quality and failure analysis, identifying error sources across OCR, retrieval/context selection, and LLM reasoning and using them to iteratively improve the pipeline.
Built an end-to-end machine-learning system for next-day energy/flexibility forecasting across heterogeneous real-world installations, from raw meter data and feature engineering to model evaluation and production inference.
Developed and compared forecasting approaches ranging from robust statistical baselines and autoregressive models to nonlinear, pooled, and installation-specific methods, with particular focus on intermittency, regime changes, outliers, and cross-installation structure.
Designed a leakage-free walk-forward evaluation and data-audit framework to uncover failure modes in both forecasting and target construction, quantify performance across installations, and ensure consistency between offline experiments and deployed forecasts.
Working on probabilistic models for interpretable, uncertainty-aware sequential decision-making using the Active Inference framework.
Developing and evaluating computational approaches for adaptive community management, with emphasis on transparency and decision quality.