Biomedical Engineering
Biomaterials, biomechanics, tissue mechanics, and biomedical systems.
About Killian
A scientific curiosity grounded in materials engineering, carried through cancer research, and translated into healthcare technology and program execution.
01The Journey
How can we detect disease earlier, understand it better, and build better ways to act on what we learn?
Metallurgical & materials foundations — structure, mechanics, characterization.
Applying mechanics and biomaterials to living systems.
Mechanical biomarkers and the physical signatures of disease.
Translating discovery into detection and diagnostic approaches.
AI-enabled detection and software as a medical device.
Design controls, validation, quality systems, risk management.
Driving complex healthcare programs from concept to delivery.
02What I Bring
From bench science to regulated product to program delivery — the disciplines a medical technology needs to reach patients.
Biomaterials, biomechanics, tissue mechanics, and biomedical systems.
Cancer biology, biomarkers, diagnostic development, and oncology research.
MRI and imaging workflows, DICOM, image review, and diagnostic technology.
AI-enabled healthcare, breast-cancer detection, and SaMD regulatory pathways.
CQV, validation, quality systems, design controls, and risk management.
Planning, cross-functional execution, dependencies, risk, and delivery.
Clinical workflows, patient platforms, and physician-facing healthcare technology.
Product development, regulatory strategy, commercialization, and market access.
06Education & Credentials
06 · How I think
I am most interested in problems that do not fit neatly into one discipline.
Working principle
Technology is valuable when it solves a meaningful clinical, scientific, or operational problem.