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Biophysical physiology of phosphoinositide rapid dynamicsandregulationinlivingcells

Title
Biophysical physiology of phosphoinositide rapid dynamicsandregulationinlivingcells
Author(s)
Jensen, Jill B.Falkenburger, Bjoern H.Dickson, Eamonn J.de la Cruz, LizbethDai, GucanMyeong, JongyunJung, Seung-RyoungKruse, MartinVivas, OscarSuh, Byung-ChangHille, Bertil
Issued Date
2022-05
Citation
Journal of General Physiology, v.154, no.6
Type
Article
Keywords
RECEPTOR-MEDIATED INHIBITIONPLASMA-MEMBRANEBETA-ARRESTINMUSCARINIC RECEPTORPOTASSIUM CHANNELSPHOSPHOLIPASE-CPHOSPHATIDYLINOSITOL 4,5-BISPHOSPHATEINOSITOL 1,4,5-TRISPHOSPHATEDIFFERENTIAL REGULATIONQUANTITATIVE PROPERTIES
ISSN
0022-1295
Abstract
Phosphoinositide membrane lipids are ubiquitous low-abundance signaling molecules. They direct many physiological processes that involve ion channels, membrane identification, fusion of membrane vesicles, and vesicular endocytosis. Pools of these lipids are continually broken down and refilled in living cells, and the rates of some of these reactions are strongly accelerated by physiological stimuli. Recent biophysical experiments described here measure and model the kinetics and regulation of these lipid signals in intact cells. Rapid on-line monitoring of phosphoinositide metabolism is made possible by optical tools and electrophysiology. The experiments reviewed here reveal that as for other cellular second messengers, the dynamic turnover and lifetimes of membrane phosphoinositides are measured in seconds, controlling and timing rapid physiological responses, and the signaling is under strong metabolic regulation. The underlying mechanisms of this metabolic regulation remain questions for the future. © 2022 Jensen et al.
URI
http://hdl.handle.net/20.500.11750/17400
DOI
10.1085/jgp.202113074
Publisher
Rockefeller University Press
Related Researcher
  • 서병창 Suh, Byung-Chang
  • Research Interests Molecular mechanisms of epilepsy and sensory pain transmission; Signaling mechanism of ion channel regulation and membrane excitability; 분자전기생리; 간질 및 통증의 분자적 기전 연구
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Department of Brain Sciences Laboratory of Brain Signal and Synapse Research 1. Journal Articles

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