F. Laezza, University of Texas Medical Branch

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Event date: 21/09/2015
seminars_2015

Tuesday, 22th September - h 14:00
Seminars room, NICO

Intracellular FGF signaling in the CNS: 
implications for normal brain function and neuropsychiatric disorders

Fernanda Laezza 
Department of Pharmacology & Toxicology, University of Texas Medical Branch

The primary focus of our research is on voltage-gated Na+ (Nav) channels, a family of nine (Nav1.1-1.9) transmembrane proteins abundantly expressed in the brain. Through a complex network of protein:protein interactions (PPI), the Nav channel complex provides the basis for electrical excitability of neurons, enabling transmission, processing and storing of electrochemical signals at single synaptic connections.

The Nav channel complex is a vulnerable target of genetic modifications and environmental agents. Mutations targeting the pore-forming α subunit of the Nav channel or its accessory proteins, such as intracellular FGFs, ankyrin-G, bIV spectrin and neurofascin, are recognized causes or risk factors for epilepsy, mood disorder, autism, depression, schizophrenia, pain and neurodegeneration, making the Nav channel complex one of the most appealing targets for drug development.

Yet, the mechanisms underlying modulation of the Nav channel macromolecular complex in the brain are still poorly understood limiting our ability of molecular interventions against these relevant proteins. Current projects in our laboratory aim at filling knowledge gaps in this area of research with an emphasis on the intracellular fibroblast growth factors (iFGFs; FGF11-14), a group of versatile and potent regulators of the Nav channel biophysics, trafficking and function in the brain.

Host:   Filippo Tempia

Events & Meetings

26 february 2020

GLIAL CELLS-NEURON CROSSTALK IN CNS HEALTH AND DISEASE

University of Turin, Italy   
The Workshop is aimed at PhD students and young Postdocs with the goal to promote a thorough understanding of the functions of glial cells in health and disease. The program includes lectures on the newest conceptual advancements and methodological approaches in the study of glial cells in synaptic functions, development and CNS diseases.

Deadline for registration: December 23, 2019.