FRACTURE AND FATIGUE OF SKELETAL TISSUES
(F ² Lab)


Our goals are directed toward investigating the mechanisms of deformation, fracture, and the biological responses in biological materials at multiple length-scales (from molecular to macroscales). Our work aims at bridging the gap between mechanics of materials, biology, and experimental high-energy x-ray physics to understand skeletal biology and disease as well as design principles behind biomaterials.


Affiliated with the Department of Mechanical Engineering at the University of Utah, the Fracture and Fatigue of Skeletal Tissues Laboratory is directed by Dr. Claire Acevedo. Positions are currently available for graduate and undergraduate students. If interested, please contact Dr. Acevedo directly at claire.acevedo@utah.edu.


The Fracture and Fatigue of Skeletal Tissues Lab’s research is currently funded by the National Science Foundation, National Institutes of Health, the Advanced Light Source, and the University of Utah Center on Aging.

 
 

Spotlight


NIH R21 Grant Awarded to Dr. Acevedo! The National Institutes of Health Exploratory/Developmental R21 grant was awarded to Dr. Acevedo to research the mechanisms of increased fracture risk in diabetic bone at the collagen molecular level. (READ MORE)

CONFERENCE PRESENTATIONS were given by Mike and Yoshi at the SBMS (Swiss Bone Mineral Society) and SB³C (Summer Biomechanics, Bioengineering, and Biotransport Conference) respectively! Be on the lookout for a paper coming soon…

NSF CAREER GRANT AWARDED to Dr. Acevedo! The National Science Foundation Faculty Early Career Development Program (CAREER) award is a prestigious 5-year award offering 5 years of funding for early-career faculty. Congrats! (READ MORE)

NEW PAPER ACCEPTED in Journal of Mechanical Behavior of Biomedical Materials (Congratulations Yoshi!!) – Quantitative and qualitative bone imaging: A review of synchrotron radiation microtomography analysis in bone research (LINK)

NEW PAPER in Materialia- Ultrasound freeze-casting of a biomimetic layered microstructure in epoxy-ceramic composite materials to increase strength and hardness (LINK)