The basic principles governing communication between neurons are determined by their molecular constituents, which work together in space and time to facilitate the functional properties of many types of neurons and/or glia. Key molecules include a neuronal-specific complement of cell-surface receptors, ion channels, transporters, transmitters, and signaling proteins facilitating excitability, synaptic function and plasticity, sensory transduction, cell-cell communication, and the formation of neural networks.
Faculty Researching Molecular Mechanisms of Neural Functions
Trent Anderson
Pharmacology
Martha Bhattacharya
Neuroscience
James Bibb
Translational Neurosciences
Megan Corty
Neuroscience
Thomas Davis
Pharmacology
Kristian Doyle
Immunobiology
Amelia Gallitano
Basic Medical Sciences
Carol Kopruszinski
Pharmacology
Laurent Martin
Anesthesiology
Aaron McGee
Translational Neurosciences
Julie Miller
Neuroscience & Speech, Language & Hearing Sciences
Helena Morrison
Nursing
Frank Porreca
Pharmacology
John Regan
Pharmacology and Toxicology
Linda Restifo
Neurology
Kevin Rhine
Pharmacology and Toxicology
Arthur Riegel
Pharmacology
GSARC Chair
Patrick Ronaldson
Pharmacology
Rita Sattler
Basic Medical Sciences
Todd Schlenke
Entomology
Isabelle Schrauwen
Translational Neurosciences
Jacob Schwartz
Pharmacology
Scott Sherman
Neurology
John Streicher
Pharmacology
George Sutphin
Molecular & Cellular Biology
Jennifer Teske
Nutritional Sciences & Wellness
Todd Vanderah
Pharmacology
Xinglong Wang
Pharmacology and Toxicology
Jean Wilson
Cellular and Molecular Medicine
Ebenezer Yamoah
Translational Neurosciences
Fei Yin
Pharmacology
Haining Zhu
Pharmacology & Toxicology