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| René Anand |
Nicotinic AchR subunits have relatively large cytoplasmic domains
their third and fourth transmembrane domains. In muscle type AchRs subunits, these
domains have been shown to be the sites of interaction for at least one structural protein
(43K protein) involved in clustering these AchRs. The amino acid sequence of this
domain is highly variable between the various cloned AchR subunits. By analogy with
muscle type AchRs, these domains are likely to play a role in determining the final
destination of AchR subtype's in the CNS. Proteins that interact with these domains
of the neuronal AchR subunits and mediate their synaptic targeting have not been
identified thus far. My plan is to use both interaction cloning (yeast two-hybrid
cloning system) and biochemical purification techniques to identify and characterize novel
structural and regulatory proteins that interact with the large cytoplasmic domain of
nicotinic AchR subunits. This work will provide insight into neuronal proteins that
target and anchor AchRs to synaptic subsites. |
| Bruce Fisch |
Functional neuroanatomy, clinical epilepsy, signal analysis of
central nervous system electrical activity, clinical neurophysiology of sleep |
| Harry J. Gould |
Basic mechanisms of pain |
| Leo T. Happel |
Electrical characteristics of regenerating nerve; peripheral nerve
lesions; membrane electrophysiology |
| Piotr W. Olejniczak |
Functional neuroanatomy, pathophysiology of epilepsy, computerized signal
analysis of nervous system electrical activity; sleep physiology |
| Jayaraman Rao |
Neurochemical organization of the basal ganglia; animal models of
Parkinsons disease; clinical aspects of movement disorders |
| Austin J. Sumner |
Physiology and pathophysiology of demyelination of peripheral and central
nervous system |
| Carmela L. Tardo |
Epilepsy and other convulsive disorders of childhood |
| Ann Tilton |
Spasticity management and neurorehabilitation (including head injury and
spinal cord injury) in childhood |