Kevin Middleton

Dr. Kevin Middleton is an Associate Professor in Biological Sciences at the University of Missouri's College of Arts and Science. He holds a Ph.D. from Brown University (2003) and a B.S. from Wake Forest University (1995). His research focuses on vertebrate musculoskeletal physiology, integrating computational methods with biomechanical studies to explore form, function, and evolution in systems like feeding mechanics, locomotion, and skeletal growth. Key projects include longitudinal studies of human craniofacial development, 3D imaging techniques for anatomical visualization, and studies on mice selected for high voluntary exercise. His lab develops tools for analyzing complex datasets, including musculoskeletal modeling and functional morphology assessments.

Research interests span evolutionary biomechanics, computational biology, and integrative anatomy. He investigates topics like cranial kinesis in birds, joint loading in archosaurs, and the relationship between muscle architecture and bone adaptation. Middleton has pioneered methods for quantifying 3D skeletal morphology in living subjects using low-dose radiography, advancing both clinical and evolutionary studies. His work bridges paleobiology, functional morphology, and applied anatomy, with applications ranging from medical education to understanding human growth disorders.

Notable awards include the Gold Chalk Award for Graduate Teaching (2019) and recognition for undergraduate mentoring (2017). His lab collaborates across disciplines, using CT imaging and biomechanical simulations to address questions in vertebrate biology. Middleton actively engages in educational outreach, designing anatomy curricula and promoting public understanding of dinosaur biology through programs like 'Inside Dinosaurs.'

• Labs/Teams: Middleton Lab, affiliated with MU's Biological Sciences Department
• Publications: Over 50 peer-reviewed articles, including high-impact work on avian cranial mechanics and mouse exercise physiology
• Grants: Funded projects on skeletal adaptation, computational modeling, and evolutionary biomechanics