Whether a high-energy rupture of the ACL in a linebacker or a chronic tear of the rotator cuff in a star baseball pitcher, sports-related injuries and their repairs provide constant challenges to physicians, engineers, and scientists alike.
To understand the mechanisms of both injury and regeneration more accurately, the Sports Medicine division of Orthopedic Research at Beaumont is performing diverse research ranging from surgical outcomes assessing post-operative strength to improving
grafting techniques, tissue engineering-based drug delivery, as well as biomechanical analyses of articulating joints to hone in on the causes of osteoarthritis.
The mission of the Sports Medicine division is to work closely with Orthopedic Surgeons to characterize pathologies in the orthopedic realm and move one step closer to ridding patients of debilitating outcomes due to these injuries.
Current Research Projects
- Post-operative Repair Appearance and Strength after Rotator Cuff Repair
- Ulnar fixation in Elbow Ligament Reconstruction
- Biologically-enhanced Microfracture Surgery
- Cellulose-based Drug Delivery System for Rotator Cuff Regeneration
- Biomechanics and Geometry of the Shoulder Joint and how they relate to Osteoarthritis
- Improved Healing of the ACL using Growth Factors
- Changes in Vascularity following two types of Rotator Cuff Repairs
- Agreement in the Radiographic Evaluation of Acromioclavicular Dislocations
- Characterization and Inhibition of Matrix metalloproteinase Release from Platelet Rich Plasma
- Tissue engineering-based regeneration of the Intervertebral Disc
To conduct such a large variety of research, many important techniques are utilized. These include the synthesis of novel polymer biomaterials, quantification of biological substances using high-performance liquid chromatography (HPLC) and immuno-based
assays such as multiplexing bead arrays or enzyme-linked immunosorbent assays (ELISAs), qualitative and quantitative analysis of biomaterials, biologic substances, cells, and tissues using light microscopy, fluorescence microscopy, confocal microscopy,
and scanning electron microscopy, biomechanical testing of tissues and constructs using servohydraulic and electromechanical testing systems, tissue and cell culture, wear simulation of implants, and several others.