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Piezo1 mechanosensitive channels: what are they and why are they important

Articolo
Data di Pubblicazione:
2019
Abstract:
Mechanosensitive (MS) ion channels are integral membrane proteins which play a crucial role in fast signaling during mechanosensory transduction processes in living cells. They are ubiquitous and old in the evolutionary sense, given their presence in cells from all three kingdoms of life found on Earth, including bacterial, archaeal, and eukaryotic organisms. As molecular transducers of mechanical force, MS channels are activated by mechanical stimuli exerted on cellular membranes, upon which they rapidly and efficiently convert these stimuli into electrical, osmotic, and/or chemical intracellular signals. Most of what we know about the gating mechanisms of MS channels comes from the work carried out on bacterial channels. However, recent progress resulting from identification and structural information of eukaryotic K2P-type TREK and TRAAK as well as Piezo1 and Piezo2 MS channels has greatly contributed to our understanding of the common biophysical principles underlying the gating mechanism and evolutionary origins of these fascinating membrane proteins. Using Piezo1 channels as an example, we briefly describe in this review what we have learned about their biophysics, physiological functions, and potential roles in "mechanopathologies."
Tipologia CRIS:
01.01 Articolo in rivista
Keywords:
cadherin; chlorpromazine; cholesterol; collagen type 4; filamin A; gentamicin; glycosphingolipid; integrin; ion channel; lanthanide; lipid; mechanosensitive ion channel; methyl beta cyclodextrin; phosphatidylinositide; phospholipid; piezo 1; piezo 2; polyunsaturated fatty acid; potassium channel; proteoliposome; ruthenium red; stomatin; streptomycin; tropomyosin; unclassified drug; bacterial cell; biophysics; blood flow; cell compartmentalization; channel gating; cytoskeleton; desensitization; electrophysiological procedures; erythrocyte volume; extracellular matrix; force; gain of function mutation; hereditary hemolytic anemia; human; hydrophilicity; hydrophobicity; lipid bilayer; lipid raft; mechanical stimulus test; mechanotransduction; membrane invagination; membrane potential; nuclear magnetic resonance spectroscopy; osmoregulation; patch clamp technique; physiology; priority journal; proprioception; Review; tensile strength; turgor pressure; xerocytosis
Elenco autori:
Vassalli, Massimo
Link alla scheda completa:
https://iris.cnr.it/handle/20.500.14243/415464
Pubblicato in:
BIOPHYSICAL REVIEWS
Journal
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https://www.scopus.com/inward/record.uri?eid=2-s2.0-85073959774&doi=10.1007%2fs12551-019-00584-5&partnerID=40&md5=4709d1cff93e878d286efd8d6199098a
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