Tethered Membrane Architectures—Design and Applications

Membrane proteins perform a large number of essential biological tasks, but the understanding of these proteins has progressed much more slowly than that of globular proteins. The study of membrane proteins is hindered by the inherent complexity of the cellular membrane. Membrane proteins cannot be...

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Main Authors: Jakob Andersson, Ingo Köper, Wolfgang Knoll
Format: Article
Language:English
Published: Frontiers Media S.A. 2018-09-01
Series:Frontiers in Materials
Subjects:
Online Access:https://www.frontiersin.org/article/10.3389/fmats.2018.00055/full
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spelling doaj-c2ba77882a0b42f78bc0c013c5885e0e2020-11-24T21:00:36ZengFrontiers Media S.A.Frontiers in Materials2296-80162018-09-01510.3389/fmats.2018.00055415827Tethered Membrane Architectures—Design and ApplicationsJakob Andersson0Ingo Köper1Wolfgang Knoll2Wolfgang Knoll3Austrian Institute of Technology, Vienna, AustriaFlinders Institute for Nanoscale Science and Technology, College of Science and Engineering, Flinders University, Adelaide, SA, AustraliaAustrian Institute of Technology, Vienna, AustriaCEST Kompetenzzentrum für elektrochemische Oberflächentechnologie, Wiener Neustadt, AustriaMembrane proteins perform a large number of essential biological tasks, but the understanding of these proteins has progressed much more slowly than that of globular proteins. The study of membrane proteins is hindered by the inherent complexity of the cellular membrane. Membrane proteins cannot be studied outside their native environment because their natural structure and function is compromised when the protein does not reside in the cell membrane. Model membranes have been developed to provide a controlled, membrane-like environment in which these proteins can be studied in their native form and function without interference from other membrane components. Traditionally used model membranes such as bimolecular or black lipid membranes and floating lipid membranes suffer from several disadvantages including complex assembly protocols and limited stability. Furthermore, these membranes can only be studied with a narrow range of methodologies, severely restricting their use. To increase membrane stability, simplify the assembly process and increase the number of analytical tools that can be used to study the membranes, several strategies of covalently tethering the bilayer to its solid support have been developed. This review provides an overview of the methods used to assemble various membrane architectures, the properties of the resulting membranes and the tools used to study them.https://www.frontiersin.org/article/10.3389/fmats.2018.00055/fullmodel membranestethered membraneslipid bilayersolid-supported membranesmembrane biophysicsprotein-tethered membrane
collection DOAJ
language English
format Article
sources DOAJ
author Jakob Andersson
Ingo Köper
Wolfgang Knoll
Wolfgang Knoll
spellingShingle Jakob Andersson
Ingo Köper
Wolfgang Knoll
Wolfgang Knoll
Tethered Membrane Architectures—Design and Applications
Frontiers in Materials
model membranes
tethered membranes
lipid bilayer
solid-supported membranes
membrane biophysics
protein-tethered membrane
author_facet Jakob Andersson
Ingo Köper
Wolfgang Knoll
Wolfgang Knoll
author_sort Jakob Andersson
title Tethered Membrane Architectures—Design and Applications
title_short Tethered Membrane Architectures—Design and Applications
title_full Tethered Membrane Architectures—Design and Applications
title_fullStr Tethered Membrane Architectures—Design and Applications
title_full_unstemmed Tethered Membrane Architectures—Design and Applications
title_sort tethered membrane architectures—design and applications
publisher Frontiers Media S.A.
series Frontiers in Materials
issn 2296-8016
publishDate 2018-09-01
description Membrane proteins perform a large number of essential biological tasks, but the understanding of these proteins has progressed much more slowly than that of globular proteins. The study of membrane proteins is hindered by the inherent complexity of the cellular membrane. Membrane proteins cannot be studied outside their native environment because their natural structure and function is compromised when the protein does not reside in the cell membrane. Model membranes have been developed to provide a controlled, membrane-like environment in which these proteins can be studied in their native form and function without interference from other membrane components. Traditionally used model membranes such as bimolecular or black lipid membranes and floating lipid membranes suffer from several disadvantages including complex assembly protocols and limited stability. Furthermore, these membranes can only be studied with a narrow range of methodologies, severely restricting their use. To increase membrane stability, simplify the assembly process and increase the number of analytical tools that can be used to study the membranes, several strategies of covalently tethering the bilayer to its solid support have been developed. This review provides an overview of the methods used to assemble various membrane architectures, the properties of the resulting membranes and the tools used to study them.
topic model membranes
tethered membranes
lipid bilayer
solid-supported membranes
membrane biophysics
protein-tethered membrane
url https://www.frontiersin.org/article/10.3389/fmats.2018.00055/full
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AT ingokoper tetheredmembranearchitecturesdesignandapplications
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