Dr. Babak Shadgan is a medical doctor specialized in Sports Medicine and Clinical Biophotonics. He received his MD degree in 1994, an MSc in sports medicine from the University of London in 2001 and a PhD in clinical biophotonics from the University of British Columbia (UBC) in 2011. He also completed a fellowship on NIRS-Diffused Optical Tomography at Martinos Center for Biomedical Imaging of MIT/Harvard University. His postdoctoral fellowship at ICORD (the International Collaboration on Repair Discoveries) was focused on remote optical monitoring of bladder dysfunction in people with spinal cord injury. With more than two decades of medical practice and research Babak has developed a specific knowledge in clinical biophotonics with a unique bedside-to-bench approach. His current research focuses on advancing a novel optical method for real-time monitoring of spinal cord hemodynamics, metabolism, and function in people with spinal cord injuries. As an Olympic sports physician and medical director, Babak is actively working on sports and exercise applications of Biophotonics. He is currently involved in developing optical diagnostics and monitoring interventions in Sports Medicine and Exercise Science. Dr. Shadgan teaches “Fundamentals of Applied Pathophysiology in Biomedical Engineering” at SPIE.
Changes of mean arterial pressure affect spinal cord oxygenation as monitored by an implantable near-infrared spectroscopy sensor in an animal model of acute spinal cord injury (Conference Presentation)
Near infrared spectroscopy evaluation of bladder function: the impact of skin pigmentation on detection of physiologic change during voiding
Hemodynamic and oxidative mechanisms of tourniquet-induced muscle injury: near-infrared spectroscopy for the orthopedics setting
Monitoring of lower urinary tract function in patients with spinal cord injury using near infrared spectroscopy
Near-infrared spectroscopy of the bladder: a new technique for studying lower urinary tract function in health and disease
Do radio frequencies of medical instruments common in the operating room interfere with near-infrared spectroscopy signals?
Dynamic topographic mapping of the human bladder during voiding using functional near-infrared spectroscopy