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A refined model of claudin-15 tight junction paracellular architecture by molecular dynamics simulations
by
Benfenati, Fabio
, Maragliano, Luca
, Alberini, Giulio
in
Assembly
/ Atomic structure
/ Biology and Life Sciences
/ Cell walls
/ Chemical bonds
/ Claudins - chemistry
/ Computer applications
/ Computer Simulation
/ Conformation
/ Crosslinking
/ Crystal lattices
/ Crystal structure
/ Crystallography, X-Ray
/ Cysteine
/ Epithelial cells
/ Humans
/ Hydrogen
/ Hydrogen Bonding
/ Hydrogen bonds
/ Marine environment
/ Membrane proteins
/ Membranes
/ Molecular dynamics
/ Molecular Dynamics Simulation
/ Molecular Structure
/ Neurosciences
/ Physical Sciences
/ Pore size
/ Porosity
/ Protein Conformation
/ Protein Domains
/ Protein Multimerization
/ Proteins
/ Research and Analysis Methods
/ Simulation
/ Software
/ Solutes
/ Solvents - chemistry
/ Strands
/ Tight Junctions - chemistry
/ User interface
2017
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A refined model of claudin-15 tight junction paracellular architecture by molecular dynamics simulations
by
Benfenati, Fabio
, Maragliano, Luca
, Alberini, Giulio
in
Assembly
/ Atomic structure
/ Biology and Life Sciences
/ Cell walls
/ Chemical bonds
/ Claudins - chemistry
/ Computer applications
/ Computer Simulation
/ Conformation
/ Crosslinking
/ Crystal lattices
/ Crystal structure
/ Crystallography, X-Ray
/ Cysteine
/ Epithelial cells
/ Humans
/ Hydrogen
/ Hydrogen Bonding
/ Hydrogen bonds
/ Marine environment
/ Membrane proteins
/ Membranes
/ Molecular dynamics
/ Molecular Dynamics Simulation
/ Molecular Structure
/ Neurosciences
/ Physical Sciences
/ Pore size
/ Porosity
/ Protein Conformation
/ Protein Domains
/ Protein Multimerization
/ Proteins
/ Research and Analysis Methods
/ Simulation
/ Software
/ Solutes
/ Solvents - chemistry
/ Strands
/ Tight Junctions - chemistry
/ User interface
2017
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A refined model of claudin-15 tight junction paracellular architecture by molecular dynamics simulations
by
Benfenati, Fabio
, Maragliano, Luca
, Alberini, Giulio
in
Assembly
/ Atomic structure
/ Biology and Life Sciences
/ Cell walls
/ Chemical bonds
/ Claudins - chemistry
/ Computer applications
/ Computer Simulation
/ Conformation
/ Crosslinking
/ Crystal lattices
/ Crystal structure
/ Crystallography, X-Ray
/ Cysteine
/ Epithelial cells
/ Humans
/ Hydrogen
/ Hydrogen Bonding
/ Hydrogen bonds
/ Marine environment
/ Membrane proteins
/ Membranes
/ Molecular dynamics
/ Molecular Dynamics Simulation
/ Molecular Structure
/ Neurosciences
/ Physical Sciences
/ Pore size
/ Porosity
/ Protein Conformation
/ Protein Domains
/ Protein Multimerization
/ Proteins
/ Research and Analysis Methods
/ Simulation
/ Software
/ Solutes
/ Solvents - chemistry
/ Strands
/ Tight Junctions - chemistry
/ User interface
2017
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A refined model of claudin-15 tight junction paracellular architecture by molecular dynamics simulations
Journal Article
A refined model of claudin-15 tight junction paracellular architecture by molecular dynamics simulations
2017
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Overview
Tight-junctions between epithelial cells of biological barriers are specialized molecular structures that regulate the flux of solutes across the barrier, parallel to cell walls. The tight-junction backbone is made of strands of transmembrane proteins from the claudin family, but the molecular mechanism of its function is still not completely understood. Recently, the crystal structure of a mammalian claudin-15 was reported, displaying for the first time the detailed features of transmembrane and extracellular domains. Successively, a structural model of claudin-15-based paracellular channels has been proposed, suggesting a putative assembly that illustrates how claudins associate in the same cell (via cis interactions) and across adjacent cells (via trans interactions). Although very promising, the model offers only a static conformation, with residues missing in the most important extracellular regions and potential steric clashes. Here we present detailed atomic models of paracellular single and double pore architectures, obtained from the putative assembly and refined via structural modeling and all-atom molecular dynamics simulations in double membrane bilayer and water environment. Our results show an overall stable configuration of the complex with a fluctuating pore size. Extracellular residue loops in trans interaction are able to form stable contacts and regulate the size of the pore, which displays a stationary radius of 2.5-3.0 Å at the narrowest region. The side-by-side interactions of the cis configuration are preserved via stable hydrogen bonds, already predicted by cysteine crosslinking experiments. Overall, this work introduces an improved version of the claudin-15-based paracellular channel model that strengthens its validity and that can be used in further computational studies to understand the structural features of tight-junctions regulation.
Publisher
Public Library of Science,Public Library of Science (PLoS)
Subject
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