Jerome Niyirora, Ph.D.
Research Areas: Systems science, data science, and artificial intelligence.
HB Lab develops computational and AI-driven methods for understanding complex biomedical problems. Our work combines data science, artificial intelligence, health informatics, multi-omics, digital twins, and scientific computing to transform complex data into actionable knowledge.
01
Biomedical science, health, computing, and engineering
02
Machine learning, generative AI, and intelligent agents
03
Multi-omics, clinical, sensor, and scientific data
04
Methods designed to move from analysis to impact
Research Areas
HB Lab works across disciplines to develop computational approaches for complex problems spanning biomedicine, data science, and engineering.
Our work integrates biological, clinical, and scientific data with computational methods to understand complex systems and support new approaches to discovery.
01 | BIOMEDICAL DATA SCIENCE
We develop computational approaches for extracting biological insight from complex multi-omics data, with applications in disease biology, biomarker discovery, RNA regulation, and precision health.
02 | HEALTH INTELLIGENCE
We build intelligent systems that connect health data to better analysis and decision-making, including clinical AI, interoperable health records, decision support, foundation models, and health AI agents.
03 | GENERATIVE MODELING
We investigate generative and physics-informed models that learn realistic representations of complex systems and generate high-fidelity synthetic data as complements or alternatives to costly data collection and simulation.
04 | RESEARCH INFRASTRUCTURE
We build and automate computational workflows that collect, integrate, model, and analyze health, biomedical, and scientific data—helping researchers ask better questions and move faster from data to discovery.
Our Approach
01 | Collect
Multi-omics, clinical, sensor, imaging, spatial, and scientific datasets.
02 | Integrate
Harmonization, interoperability, multimodal integration, and knowledge representation.
03 | Model
Statistics, machine learning, generative AI, simulation, and scientific computing.
04 | Translate
Methods and evidence that support scientific, engineering, and clinical discovery.
Selected Directions
Computational Genomics
Integrating gene expression, alternative splicing, transcript structure, and isoform-level analysis to investigate how RNA regulation alters cellular function.
Scientific Machine Learning
Developing generative models that reproduce complex physical observations and can reduce dependence on computationally expensive simulation.
Clinical Informatics
Exploring local AI systems that connect clinical data, interoperable health records, domain models, and intelligent agents while supporting privacy and human oversight.
Interdisciplinary by Design
HB Lab brings together domain knowledge, quantitative methods, and artificial intelligence. This allows the same computational foundations to support biomedical discovery, healthcare applications, and engineered systems.
Scientific expertise provides the foundation for addressing complex biological and health questions.
Scientific computing and data engineering organize, integrate, and analyze complex datasets.
AI and machine learning provide new tools for modeling, prediction, discovery, and decision-making.
People
HB Lab brings together faculty, collaborators, postdoctoral researchers, and graduate students with complementary expertise across health informatics, bioinformatics, data science, biomedicine, and artificial intelligence.
Research Areas: Systems science, data science, and artificial intelligence.
Research Areas: Bioinformatics, data science, and artificial intelligence.
Research Areas: Mathematics, data science, and artificial intelligence.
Research Areas: Information management, health data, and AI policy.
Research Areas: Biomedicine, computational biology, and artificial intelligence.
Research Areas: Trauma, resilience, and humanitarian engineering.