Seminar: Deciphering the brain lipidome: From fats to functions

Su Mo Tu We Th Fr Sa
27 28 29 30 31 1 2
3 4 5 6 7 8 9
10 11 12 13 14 15 16
17 18 19 20 21 22 23
24 25 26 27 28 29 30
Date/Time:Tuesday, 19 Nov 2024 from 1:00 pm to 1:50 pm
Location:1414 Molecular Biology
Cost:Free
Contact:Danise Jones
Phone:515-294-6821
Channel:Research
Categories:Lectures
Actions:Download iCal/vCal | Email Reminder
Join this Genetics, Development and Cell Biology seminar to hear Dr. John Vaughen, Sandler Fellow and assistant professor of anatomy at University of California, San Francisco, discuss research that combines genetics, lipidomics, microscopy, behavior and biophysical modeling to prove the developing brain lipidome. This research aims to identify the enzymes and signaling cascades that generate appropriate brain lipidomes and more!

Description: John Vaughen is captivated by lipids, amphiphilic macromolecules that dynamically signal and organize biochemical reactions across organelles. While we are unearthing a large combinatorial diversity of lipids across myriad cells, our understanding of lipid functions remains fragmentary. Lipid metabolism first ensnared him during his Ph.D. at Stanford University (developmental biology). Under Tom Clandinin's mentorship, Vaughen used Drosophila to dissect novel functions for a lipid hydrolase frequently mutated in Parkinson's disease. These studies revealed that balanced sphingolipid metabolism tuned a diurnal pattern of extensive neurite growth and retraction in a circadian circuit by coupling glial catabolism with neural biosynthesis. His ongoing work combines genetics, lipidomics, microscopy, behavior, and biophysical modeling to probe the developing brain lipidome. Beginning in August 2024, John and his lab aim to Identify the enzymes and signaling cascades that generate appropriate brain lipidomes; Determine why and how specific lipids are deployed, such as in synaptic vesicles and glial ensheathments; and Develop genetic and mass-spectrometry tools to better quantitate and manipulate lipids in the brain, which often dysregulates its lipids during aging and disease