Chelsea Bahney, PhD
Chelsea Bahney, PhD
Orthopaedic Trauma Institute - Bahney Lab
Education
| Post-Doctoral Fellowship | University of California, San Francisco | 04/2014 | |
| PhD | Oregon Health & Science University | 08/2010 | |
| Valleylab (now Medtronic) | 08/2005 | ||
| BS | University of Colorado | 06/2001 |
Publications
- Bragdon BC, Bahney CS. Origin of Reparative Stem Cells in Fracture Healing. Curr Osteoporos Rep. 2018 08; 16(4):490-503. PMID: 29959723
Grants & Awards
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Bimodal therapeutic application of LIF for regulating chondrogenic fate
July 1, 2017 - July 1, 2018
UCSF Center for Center for Musculoskeletal Biology and Medicine
Role: PI
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Innervation during fracture repair: exploring functional mechanisms and innovative therapeutic repair strategies.
October 1, 2015 - October 1, 2017
Foundation of Orthopaedic Trauma
Role: PI
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Promoting vascularized bone regeneration with endochondral cartilage grafts
June 1, 2015 - January 1, 2018
AO Foundation Start Up Grant
Role: PI
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A Murine Model of Polytrauma: Understanding the molecular basis of accelerated bone repair with concomitant traumatic brain injury.
May 1, 2015 - December 31, 2017
NIH R21
Role: Co-Investigator
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OsteoNova: Tissue Engineering Approach to Translating Endochondral Bone Regeneration
March 1, 2015 - June 30, 2017
UCSF Catalyst
Role: PI
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Development of a Novel Impedance Sensor to Monitor Fracture Healing
August 1, 2014 - August 1, 2017
NSF Center for Disruptive Musculoskeletal Innovation
Role: Co-PI
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Tissue engineering application of endochondral ossification for bone regeneration
March 1, 2012 - February 28, 2015
NIH/NIAMS F32AR062469
Role: Principal Investigator
Membership & Committees
About Chelsea Bahney, PhD
The overall goal of my research is to develop novel therapies for the treatment of musculoskeletal diseases and injuries. Specifically, I believe we can drive improved tissue regeneration by recapitulating the normal sequences of development and repair. To accomplish this “Developmental Engineering” approach our laboratory utilizes a cross-disciplinary tools combining biologically modified synthetic polymers, stem cell biology, and murine models of orthopaedic injuries. The long-term goal of our research is to solve problems that will have a direct and significant impact on human health. Current Projects: (1) Tissue engineering strategies to promote endochondral bone regeneration (2) Transdifferentiation of cartilage to bone during fracture repair and osteoarthritis (3) The role of the nerve in fracture repair (4) Polytraumatic Injuries: How brain trauma influences fracture healing (5) Impedance sensors to monitor fracture healing