Developmental Neuroscience includes the study of the proliferation and differentiation of neurons and the organization of those cells into an integrated functioning nervous system. This includes the study of how major anatomical subdivisions of the nervous system are generated from an unspecified neuroepithelium. For example, by knocking out the
gene in mice it was found that a segment of the hindbrain is absent in the mutant animals. Once the cells of the nervous system have been generated they must choose s fate. Researchers at Utah have discovered that some of the molecules which function in the differentiation of the vertebrate retina can function interchangeably with their
homologs which determine the fate of cells in the rather different compound eye of insects. Once cell fate has been determined, the nervous system wires itself by sending axons to their target neurons. Research teams at Utah are identifying the key molecules in axonal guidance required by pioneer axons as well as the molecules permitting growth cones to follow nerve fascicles. Finally, a nervous system must select appropriate synapses and eliminate inappropriate connections in order to become a fully functional circuit. Such mechanisms are clearly illustrated in studies of how activity-dependent mechanisms reinforce the proper connectivity in the auditory and visual system.
Faculty doing developmental research and their departmental affiliation are:
| Name | Department | Research Interest | |
A-C |
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Michael Bastiani |
Biology |
Development of neuronal connections |
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Josh Bonkowsky |
Pediatrics |
Axon pathfinding and development of basal ganglia; function of language genes in CNS development |
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Mario R. Capecchi |
Biology and Human Genetics |
Gene manipulation in mammalian and other eukaryotic cells |
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Maureen L. Condic |
Neurobiology & Anatomy |
Interactions of sensory neurons with extracellular matrix |
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D-J |
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Richard Dorsky |
Neurobiology & Anatomy |
Signaling pathways in zebrafish neural cell fate determination |
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Sabine Fuhrmann |
Ophthalmology & Visual Sciences |
Regulation of ocular development |
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Christopher Gregg |
Neurobiology & Anatomy |
Early life programming of molecular pathways and neural circuits related to feeding and foraging behaviors |
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David J. Grunwald |
Human Genetics |
Tissue specification during zebrafish embryogenesis |
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K-P |
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Janet E. Lainhart |
Psychiatry |
Neurobiology of autism |
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Anthea Letsou |
Human Genetics |
Embryonic Development Neurobiology |
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Edward Levine |
Ophthalmology & Visual Sciences |
Mechanisms of mammalian retinal development |
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Suzanne Mansour |
Human Genetics |
FGF signaling and ear development |
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Shannon J. Odelberg |
Internal Medicine |
Molecular basis of regeneration and cellular plasticity |
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Q-Z |
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Yukio Saijoh |
Neurobiology & Anatomy |
Pattern formation of vertebrates |
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Frederick G. Strathmann |
Pathology |
Understanding how glia at all stages of differentiation influence their environment during development, disease and repair of the central nervous system. Clinical focus is in trace and toxic element analysis, chronic pain and drugs of abuse |
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Ning Tian |
Ophthalmology & Visual Sciences |
Development of retinal synaptic circuitry |
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Monica Vetter |
Neurobiology & Anatomy |
Molecular pathways regulating the genesis and degeneration of neurons in the vertebrate nervous system |
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Megan E. Williams |
Neurobiology & Anatomy |
Molecular mechanisms that regulate synapse formation and specificity of neural circuits |
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Deborah Yurgelun-Todd |
Psychiatry |
Application of MR imaging methods to understand emotional processing and cognitive changes associated with behavioral disorders |
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