Plasticity and development
The mammalian nervous system is characterized by a highly sophisticated network of cell-to-cell interactions. An understanding of the development and function of neural systems is necessary to combat neurological disease and dysfunction. Our faculty members examine basic structural and functional mechanisms underlying sensory processing and plasticity at molecular, cellular and network levels. This work has clinical implications for fetal alcohol syndrome, autism, spinal cord damage, epilepsy, dyslexia, deafness and other neurodevelopmental disorders.
Jill C. Bettinger, Ph.D.
Physiological effects of alcohol on synaptic transmission and behavior
Kimberle M. Jacobs, Ph.D.
Cortical elements and circuitry that contribute to plasticity of the nervous system, including alterations in synaptic strengths, cellular differentiation, neuronal excitability and mechanisms of epilepsy
M. Alex Meredith, Ph.D.
Neural circuitry underlying how the brain processes simultaneous information from different sensory modalities; how the loss of or injury to one sensory system might lead to compensatory changes in the others
Gretchen N. Neigh, Ph.D.
Sex differences in the impact of stress during development
Carmen Sato-Bigbee, Ph.D.
Regulation of oligodendrocyte differentiation and myelin formation during brain development; mechanisms of demyelination/remyelination in multiple sclerosis; perinatal opioid exposure and central nervous development
Sarah Spiegel, Ph.D.
Biological functions of sphingosine 1-phosphate in apoptosis and neuronal development
Jennifer K. Stewart, Ph.D.
Synthesis, release and function of catecholamines in cells of the immune system
Robert M. Tombes, Ph.D.
Calcium/calmodulin-dependent protein kinase (CaMK-II) in neuronal development and differentiation
Gregory S. Walsh, Ph.D.
Cellular and molecular mechanisms of neuronal migration