InMotion Musculoskeletal Institute
Site Index | Contact | Glossary | FAQs | Resources
  • Home
    • Editorial Policy
    • Privacy Statement
    • Copyright
    • Glossary
    • FAQs
    • Resources
    • Contact
  • About Us
    • Mission, Vision, Values
    • Committees
      • Scientific Advisory Committee
        • Regis OKeefe
        • Stephen Badylak
        • George Muschler
        • Clare Rimnac
      • Executive Advisory Committee
    • InMotion Partners
    • History
    • Jobs
    • Internship Program
  • Research
    • Baptist Memorial Health Care Corporation Biologics
    • Clinical Science at InMotion
    • Patient Stories
      • Duke Calhoun
      • Buddy Chapman
      • Larry Cox
      • Lilly Hanbury
      • Frank Kelly
      • John Krug
      • Paul Tubinis
      • Mac Winker
    • Research Study Proposal Form
    • Medtronic Biomechanics Laboratory at InMotion
  • Leadership
    • Richard Tarr
    • Steven Bares
    • Jack Blair
    • Peter Heeckt
    • Pitt Hyde
    • Shirley Raines
    • James Beaty
    • Terry Canale
    • Gary Henley
    • Leonard Johnson
    • Jon Serbousek
    • Don Colleran
    • Larry Foster
    • Lisa Ferrara
  • Staff
    • John Williams
    • William Mihalko
    • Ruxandra Marinescu
    • Haden Janda
    • Robert Heck
    • David Komatsu
    • Michelle Mary
    • Charlotte Everett
    • Charlotte Everett
    • Charlotte Everett
    • John Gehrig
    • Jori Reynolds
    • Alice Ruch
    • Jennifer Vest
  • News
    • InMotion Press Releases
    • Newsletter
  • Giving
    • Donor Recognition
      • Founding Funders
      • Sustaining Partners
  • Events

Login Register

Upcoming Events

InMotion Presents Michael Yaszemski, MD, PhD

10/04/2010, 5:00 PM to 7:00 PM

Location: University of Memphis FedEx Institute of Technology - map

Gretchan Mishler gmishler@inmotionmemphis.org (901) 271-0000

Description:
Dr. Yaszemski is a Professor of Orthopaedics and Bioengineering at the Mayo Clinic, and the Director of the Tissue Engineering and Biomaterials Laboratory. He received bachelors and masters degrees in chemical engineering from Lehigh University. He received his doctorate of medicine degree from Georgetown University and a Ph.D. in chemical engineering from MIT.

His clinical practice encompasses spinal surgery and sacropelvic tumor surgery. His research interests are in the synthesis and characterization of novel degradable polymers for use in bone regeneration, spinal cord regeneration via tissue engineering strategies, and controlled local drug delivery to musculoskeletal tumors. The use of biodegradable polymers which stimulate osteoblast transportation and function has major implications for spine stabilization. The use of these polymers may reduce or eliminate the long term use of spine instrumentation for stabilization. This would be particularly important in patients with chronic spine infections, especially those involving spine hardware used for spine instability or spinal cord injuries.

Research in this area could fundamentally change the manner in which these problems are currently managed. Even more intriguing is the possibility that the use of degradable scaffold polymers may facilitate or stimulate axonal regeneration in spinal cord injuries. Biodegradable polymers may also have a major impact on the management of chronic nonunion of bone fractures. Current therapy often requires the use of bone grafts, internal or external instrumentation, long periods of hospitalization, the risk of infection, and major morbidity and mortality. The use of biodegradable polymers in these patients could significantly enhance fracture healing and reduce the need for hardware instrumentation. Infections which involve hardware are among the most serious complications of orthopedic surgery. The long term potential impact of our research is enormous and could fundamentally change the way many common debilitating, life-threatening orthopedic conditions are treated. The results of our research could revolutionize a number of orthopedic and neurosurgical procedures that have been used for decades. Perhaps of even greater long term significance is the suggestion that the use of biodegradable scaffold polymers may stimulate axonal regeneration in patients with spinal cord injuries.

Schedule:
5:00 pm Collaboration & Cocktail Hour
6:00 pm Lecture
7:00 pm Questions for Speaker

Back To Full Calendar




    Home • About Us • Research • Events • News • Giving
 | 
Editorial Policy | Privacy Statement | Copyright Disclaimer | Contact

InMotion Orthopaedic Research Center | 20 South Dudley, Suite 700 | Memphis, TN 38103 | 901-271-0000