Dr. Terence Sanger, MD, PhD
Vice President, Chief Scientific Officer
CHOC Children's Hospital of Orange County

Dr. Terence Sanger, MD, PhD holds an SM in Applied Mathematics (Harvard), PhD in Electrical Engineering and Computer Science (MIT), and MD (Harvard), with medical specialization in Child Neurology and Movement Disorders. He is currently Professor of Electrical Engineering at the University of California Irvine (UCI), Vice Chair of Research, Pediatrics, (UCI) Director of the Pediatric Movement Disorders Clinic and Deep Brain Stimulation Program at Children’s Hospital of Orange County (CHOC), and the Vice President, Chief Scientific Officer at CHOC. (Dr. Sanger is a member of CHOC’s medical staff and is tenured faculty in the department of pediatrics at UC Irvine). 

Prior to CHOC, Dr. Sanger served as Provost Professor in the biomedical engineering, neurology and biokinesiology departments at the University of Southern California. He was an attending neurologist at Children’s Hospital Los Angeles, where he served as Director of the Pediatric Movement Disorders Program, the David Lee and Simon Ramo Chair in Health Sciences and Technology and the Founding Director of the Health, Technology and Engineering Program at The University of Southern California. Previously, he was a tenured Professor of child neurology at Stanford University and on medical staff at Lucille Packard Children’s Hospital.

Dr. Sanger’s research focuses on understanding the origins of pediatric movement disorders from both a biological and a computational perspective. The primary goal of his research is to discover new methods for treating children with disorders of developmental motor control, including dystonia, chorea, ataxia, spasticity, and dyspraxia. His research includes computational neuroscience and large-scale neural circuit modeling of basal ganglia and cerebellum, nonlinear signal processing, machine learning, and control theory applied to robot models of motor disorders, and processing of electrophysiological data from children with implanted electrodes. Ongoing research also includes the development of electromyography-controlled soft exoskeleton orthotics for assistance with upper limb movement in children with cerebral palsy.