Integrated Photonics for Low-Cost At-Home Biomarker Sensors
This highly interdisciplinary project synergizes six engineering and clinical teams from the Medical School and College of Engineering, forging frontiers in high-tech integrated photonics for healthcare. The sensors will initially monitor two chronic diseases: inflammatory bowel disease, which affects three million Americans and contributes an estimated $25 billion in healthcare costs annually, and bipolar disorder, which affects roughly 4% of the population and is a leading cause of disability. U-M is a national leader in research and clinical care for both conditions.
Integrated photonics is a critical backbone technology supporting more than 90% of global data communication, massive data centers, and emerging AI clusters — yet its applications in biosensing remain significantly underexplored. Through recent innovations by the engineering teams, mass production of highly functional integrated photonic biosensors at ultralow cost has become possible. A low-cost, at-home biosensor would provide early disease detection, enable timely intervention, and improve quality of life.
Extending integrated photonics from enterprise-scale high-tech to consumer-scale biosensing will substantially expand its market and reduce costs through large-volume manufacturing, while accelerating home and point-of-care biosensing capable of producing large-scale, quantitative data for AI-enabled precision medicine. The project bridges multiple leading research fields at U-M and is intended to serve as a timely cross-domain catalyst for sustained, transformative innovation across engineering and biomedicine.
U-M Teams
Medical School (opens in new tab) (primary), College of Engineering (opens in new tab)
Secondary Contacts
Di Liang (opens in new tab) (College of Engineering), Shirley Cohen-Mekelburg (opens in new tab) (Medical School), Shrinivas Bishu (opens in new tab) (Medical School), Mark Ilgen (opens in new tab) (Medical School), Sarah Sperry (opens in new tab) (Medical School)