Cellular & Molecular
Individual neurons and support cells in the nervous system are complex functional units that express a rich array of proteins and signaling molecules that are responsible for global nervous system development and function. Studies of individual neurons and their molecules provides important information about how neurons and support cells develop, communicate and die. This information helps to identify targets and mechanisms of disease and also treatments of those diseases.
The following faculty have labs that focus on Cellular and Molecular Neuroscience:
Neurological effects of Fragile X Syndrome, regulation and modulation of neuronal excitability of thalamocortical circuits and interactions between basal ganglia and thalamic circuits.
Assistant Professor, Department of Pediatrics and Human Development; College of Human Medicine
Grand Rapids Campus
4012 Grand Rapids Research Center; 400 Monroe Ave NW; Grand Rapids, MI 49503
Cerebral cortex development: (e.g., neural development of sensory systems)
Neurophysiology and neuroplasticity within thalamocortical circuits. Neurophysiological alterations associated with Developmental disorders (fragile X syndrome, Autism), Epilepsy, and Parkinson's Disesase
Assistant Professor, Physiology
Neurobiology of Chronic Pain
Developmental exposure to drugs of abuse, development of the dopamine system, etiology and experimental therapeutics of Parkinson's disease
Development of neuroprotective pharmacological agents and strategies for the treatment of dopamine neurodegenerative disorders including Parkinson's Disease and Restless Legs Syndrome (RLS)
Primary neuronal cultures, ex vivo and in vivo gene therapy, stereotaxic surgery, immunohistochemistry, neuro substructure microdissections, behavioral evaluations of motor performance, microscopy, long term deep brain stimulation platform
Structure-function relation of retinal ganglion cells undergoing glaucoma-related degeneration in the primate eye. Development of treatment strategies aimed at mitigating or preventing glaucomatous retinal ganglion cell degeneration