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Defining raft domains in the plasma membrane

Many plasma membrane (PM) functions depend on the cholesterol concentration in the PM in strikingly nonlinear, cooperative ways: fully functional in the presence of physiological cholesterol levels (35~45 mol%), and nonfunctional below 25 mol% cholesterol; namely, still in the presence of high conce...

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Published in:Traffic (Copenhagen, Denmark) Denmark), 2020-01, Vol.21 (1), p.106-137
Main Authors: Kusumi, Akihiro, Fujiwara, Takahiro K., Tsunoyama, Taka A., Kasai, Rinshi S., Liu, An‐An, Hirosawa, Koichiro M., Kinoshita, Masanao, Matsumori, Nobuaki, Komura, Naoko, Ando, Hiromune, Suzuki, Kenichi G. N.
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cited_by cdi_FETCH-LOGICAL-c4988-9b6bcecdd146e23359956fc094a86f02d144991de2cac70ea4dc1a01ad0f086d3
cites cdi_FETCH-LOGICAL-c4988-9b6bcecdd146e23359956fc094a86f02d144991de2cac70ea4dc1a01ad0f086d3
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container_title Traffic (Copenhagen, Denmark)
container_volume 21
creator Kusumi, Akihiro
Fujiwara, Takahiro K.
Tsunoyama, Taka A.
Kasai, Rinshi S.
Liu, An‐An
Hirosawa, Koichiro M.
Kinoshita, Masanao
Matsumori, Nobuaki
Komura, Naoko
Ando, Hiromune
Suzuki, Kenichi G. N.
description Many plasma membrane (PM) functions depend on the cholesterol concentration in the PM in strikingly nonlinear, cooperative ways: fully functional in the presence of physiological cholesterol levels (35~45 mol%), and nonfunctional below 25 mol% cholesterol; namely, still in the presence of high concentrations of cholesterol. This suggests the involvement of cholesterol‐based complexes/domains formed cooperatively. In this review, by examining the results obtained by using fluorescent lipid analogs and avoiding the trap of circular logic, often found in the raft literature, we point out the fundamental similarities of liquid‐ordered (Lo)‐phase domains in giant unilamellar vesicles, Lo‐phase‐like domains formed at lower temperatures in giant PM vesicles, and detergent‐resistant membranes: these domains are formed by cooperative interactions of cholesterol, saturated acyl chains, and unsaturated acyl chains, in the presence of >25 mol% cholesterol. The literature contains evidence, indicating that the domains formed by the same basic cooperative molecular interactions exist and play essential roles in signal transduction in the PM. Therefore, as a working definition, we propose that raft domains in the PM are liquid‐like molecular complexes/domains formed by cooperative interactions of cholesterol with saturated acyl chains as well as unsaturated acyl chains, due to saturated acyl chains' weak multiple accommodating interactions with cholesterol and cholesterol's low miscibility with unsaturated acyl chains and TM proteins. Molecules move within raft domains and exchange with those in the bulk PM. We provide a logically established collection of fluorescent lipid probes that preferentially partition into raft and non‐raft domains, as defined here, in the PM. A working definition of raft domains in the plasma membrane (PM) is proposed, based on cooperative interactions of cholesterol with saturated acyl chains as well as unsaturated acyl chains, found in giant unilamellar vesicles, giant PM vesicles, which resemble the PMs after the removal of the actin‐based membrane skeleton, cold‐detergent‐treated PMs, and single‐molecule imaging data obtained in the PM. Furthermore, we provide a logically established list of fluorescent lipid probes that preferentially partition into raft/non‐raft domains in the PM.
doi_str_mv 10.1111/tra.12718
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In this review, by examining the results obtained by using fluorescent lipid analogs and avoiding the trap of circular logic, often found in the raft literature, we point out the fundamental similarities of liquid‐ordered (Lo)‐phase domains in giant unilamellar vesicles, Lo‐phase‐like domains formed at lower temperatures in giant PM vesicles, and detergent‐resistant membranes: these domains are formed by cooperative interactions of cholesterol, saturated acyl chains, and unsaturated acyl chains, in the presence of &gt;25 mol% cholesterol. The literature contains evidence, indicating that the domains formed by the same basic cooperative molecular interactions exist and play essential roles in signal transduction in the PM. Therefore, as a working definition, we propose that raft domains in the PM are liquid‐like molecular complexes/domains formed by cooperative interactions of cholesterol with saturated acyl chains as well as unsaturated acyl chains, due to saturated acyl chains' weak multiple accommodating interactions with cholesterol and cholesterol's low miscibility with unsaturated acyl chains and TM proteins. Molecules move within raft domains and exchange with those in the bulk PM. We provide a logically established collection of fluorescent lipid probes that preferentially partition into raft and non‐raft domains, as defined here, in the PM. 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In this review, by examining the results obtained by using fluorescent lipid analogs and avoiding the trap of circular logic, often found in the raft literature, we point out the fundamental similarities of liquid‐ordered (Lo)‐phase domains in giant unilamellar vesicles, Lo‐phase‐like domains formed at lower temperatures in giant PM vesicles, and detergent‐resistant membranes: these domains are formed by cooperative interactions of cholesterol, saturated acyl chains, and unsaturated acyl chains, in the presence of &gt;25 mol% cholesterol. The literature contains evidence, indicating that the domains formed by the same basic cooperative molecular interactions exist and play essential roles in signal transduction in the PM. 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ispartof Traffic (Copenhagen, Denmark), 2020-01, Vol.21 (1), p.106-137
issn 1398-9219
1600-0854
language eng
recordid cdi_proquest_miscellaneous_2317955698
source Wiley-Blackwell Read & Publish Collection
subjects Cell Membrane
Cholesterol
circular logic
cooperativity
Fluorescent indicators
fluorescent lipid probes
lipid raft
Lipids
Membrane Microdomains
meso‐scale
nano‐scale
phase separation
saturated acyl chain
Signal transduction
single‐molecule imaging
Unilamellar Liposomes
unsaturated acyl chain
Vesicles
title Defining raft domains in the plasma membrane
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