Research Associate Professor
Vincent Billock, a Research Associate Professor at the OSU College of Optometry, does visual psychophysics and theoretical neuroscience. Before discovering vision, Dr. Billock trained as a physicist, earning BS and MS degrees at Miami University. He did his Ph.D. in sensory biophysics at Ohio State, studying color vision with Carl Ingling. He did postdocs in clinical vision at the Ophthalmology Department of Children’s Hospital (with Larry Leguire) and at the OSU College of Optometry, where he worked with Ewen King-Smith. Together they documented a novel kind of congenital color deficiency that results from reduction of ganglion cell subtypes in patients with optic nerve hypoplasia (Visual Neuroscience, 1994). From 1994-1996 he held an NIH National Research Service Award at the Florida Atlantic University Center for Complex Systems and Brain Sciences, where he worked with Scott Kelso and studied complexity theory and its uses in understanding otherwise intractable visual phenomena. The bulk of his experience has been in military aeromedical research laboratories, where he has done research in visual perception and neuroscience for the U.S. Army and Air Force. He served as the Editor of Color and Vision for the Encyclopedia of Optical Engineering. He has been elected a Fellow of the American Academy of Optometry and the Ohio Academy of Science. He was named a Diplomate (in Binocular Vision, Perception and Pediatric Optometry) by the America Acadmy of Optometry. His first book, “Chaos Reigns when Vision Fails: Complexity and Catastrophe in the Perception of Color and Contour,” should be published by Springer in 2018-2019.
Dr. Billock’s research interests tend to involve complexity theory approaches to vision. His experimental work has focused on ways to make vision fail catastrophically, as a tool of nonlinear systems identification. In these experiments subjects are made to see forbidden colors and biased hallucinations; images melt and shatter; and perceptual causality is violated. His theoretical work has dealt mostly with human color vision, sensory binding theory, and applications of nonlinear dynamics and fractal mathematics to human vision. For an overview of this work see Physica D (2000, 2001), Psychological Science (2001), TINS (2004), JCNS (2004, 2014), JOSA A (2005), PNAS (2007), Scientific American (2010), and Psychological Bulletin (2011, 2012). His current research focuses on visual channel interactions, multisensory modulation of vision, nonlinear dynamics of color vision, and on manipulating body ownership illusions and time perception in virtual reality. His current funding comes from the National Science Foundation.
- Secret Clearance, 20090801
- Medal Paper Award (best paper of 2004), 20050101
- Medal Paper Award (best paper of 2003), 20040101
- National Research Service Award, 19940101 - 19960101
- Civilian Technical Expert, 19940101
- National Physics Honorary, 19810101