MLiNS is an interdisciplinary research laboratory led by Todd C. Hollon, MD, in the Departments of Neurosurgery, Computer Science and Engineering, and Bioinformatics at the University of Michigan. We develop machine intelligence that understands human health and disease, with particular emphasis on the nervous system. Our work integrates clinical medicine with computer vision, self-supervised learning, multimodal representation learning, medical foundation models, and agentic AI.
Our core research programs include intelligent histology, AI-based neuroimaging, visual intelligence, patient forecasting, and collaborative neuro-oncology. We work closely with clinicians, pathologists, radiologists, computer scientists, trainees, and research engineers to move ideas from scientific discovery to clinical evaluation.
Learn more: www.mlins.org
Our Scientific Paradigm: Health System Learning
We are building a new paradigm for medical AI called health system learning. Rather than relying only on small, manually curated datasets, we develop secure and reproducible systems that learn from the multimodal data generated during routine clinical care. Our long-term aim is to enable AI agents to learn within the clinical environment, grounded in imaging, pathology, clinical text, workflows, treatments, and patient outcomes.
The person in this role will create the data substrate that enables this vision. You will help define how clinical data are organized, linked, quality-controlled, versioned, governed, and made usable for large-scale learning while maintaining rigorous standards for privacy, security, provenance, reproducibility, and scientific validity.
Recent Work from the Lab
The lab has a strong record of publishing and translating high-impact medical AI research, including:
Nature Medicine (2026): Health system learning enables generalist neuroimaging models NeuroVFM, trained on 5.24 million clinical MRI and CT volumes.
Nature Biomedical Engineering (2026): Learning neuroimaging models from health system-scale data Prima, a foundation model evaluated in a health system-wide clinical study.
Nature (2025): Foundation models for fast, label-free detection of glioma infiltration FastGlioma for real-time detection of tumor infiltration during surgery.
CVPR (2026): ItemizedCLIP and CodeV New methods for complete visual representations and faithful agentic visual reasoning; CodeV was selected as an oral paper.
NeurIPS Datasets & Benchmarks (2022): OpenSRH A public clinical dataset and benchmark for intraoperative brain tumor imaging.
Work on a rare data problem at meaningful scale. You will organize deeply multimodal data generated across a major academic health system, not a small benchmark assembled for one paper.
See your engineering work become science. The systems you build will enable new models, datasets, manuscripts, and clinical studies, with opportunities for authorship and technical leadership.
Work alongside the clinical environment. Collaborate with physicians and scientists who understand how data are generated, where current AI fails, and what would improve patient care.
Help define a new field. Health system learning requires new approaches to data architecture, multimodal learning, evaluation, governance, and agent design. This role will help shape those foundations.