Title: CLARE M. RIMNACEMAE
1- APPROACH
- Static and cyclic mechanical testing measurements
of materials constitutive modeling of materials
finite element analyses of structures - Microstructural and ultrastructural damage
identification and microstructural and
ultrastructural characterization of materials
using light, scanning and transmission electron
microscopy fourier transform infrared
microspectroscopy - COLLABORATIONS
- Departments of Orthopaedics and Neurosurgery,
CWRU Medical School - Rush Presbyterian Medical School, Chicago, IL
- Exponent Failure Analysis, Philadelphia, PA
- Drexel University, Philadelphia, PA
- Mt. Sinai Medical School, New York, NY
- RESEARCH SPONSORS
- NIH, OREF, Orthopaedic Industries
CLARE M. RIMNAC EMAE ASSOCIATE PROFESSOR OF
MECHANICAL AEROSPACE ENGINEERING and Director,
Musculosketeal Mechanics and Materials
Laboratories 620 GLENNAN BUILDING cmr10_at_po.cwru.ed
u 216-368-6442 216-368-3007 (fax)
- RESEARCH AREAS AND APPLICATIONS
- Mechanical performance and modeling of
musculoskeletal tissues - Mechanical performance and modeling of inert and
resorbable orthopaedic implant materials - Implant retrieval/failure analysis of total joint
replacements
- RECENT ACCOMPLISHMENTS
- Developed physically-based constitutive models of
conventional and new crosslinked ultra high
molecular weight polyethylene formulations to
predict wear and damage of total joint
replacement components. -
- Characterized the kinetics
- of fatigue crack growth
- of microcracks
- and of macrocracks
- in human cortical bone.
- Microcracks decelerate
- and arrest at
- microstructural
- barriers. Fatigue
- crack propagation
- resistance of
- macrocracks are
- reduced by age-related
- changes in bone
- tissue.
Fatigue crack growth of older female bone tissue
is less than younger female bone tissue.
Damage retrieved PE total knee and total hip
replacement components
2KEY WORDS cmr10 Rimnac mechanical
engineering biomechanics biomaterials orthopaedic
implants bone tissue ultra high molecular weight
polyethylene fatigue and fracture ultrastructural
and microstructural damage retrieval/failure
analysis