AI & Explainable Machine Learning
Predictive modeling, interpretable machine learning and explanation methods that help researchers understand what a model learned, where it may fail and how predictions relate to clinical context.
AI4Health connects heterogeneous health data and evidence with scalable computation and rigorous epidemiologic methods. We organize the program as a connected evidence system rather than a collection of isolated topics.
The same computational infrastructure can support multiple clinical questions, while the same clinical question can be examined across multiple evidence sources.
Predictive modeling, interpretable machine learning and explanation methods that help researchers understand what a model learned, where it may fail and how predictions relate to clinical context.
Automated cohort generation, scalable computation and reusable pipelines that allow rigorous analyses to be repeated across many drugs, interactions, outcomes and populations.
Population-based studies of medication safety and effectiveness using active-comparator designs, confounding control, sensitivity analyses and clinically meaningful outcomes.
Spontaneous-reporting systems, disproportionality analysis, terminology harmonization, missingness assessment and cross-source evidence to strengthen post-market safety surveillance.
NLP, MedDRA mapping, ontology-driven extraction and temporal or version-aware analysis of evolving drug monographs, labels and regulatory knowledge.
Human-centred research software for high-dimensional EHRs, multimorbidity, feature-group discovery, laboratory-based prediction and pharmacovigilance data quality.
Assessing who is represented in trials, where evidence may not generalize, and how causal methods and target-trial emulation can strengthen treatment comparisons in routine care.
Provenance-aware workflows, standardized data processing, secure distributed analysis and computational practices that make large-scale health-data research more reproducible.
Choose an evidence source, a method and an application. The explorer shows the research program that best connects them.
Combining spontaneous-reporting evidence with interpretable computational methods can help prioritize safety questions, characterize reporting patterns and expose data-quality limitations before downstream inference.
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