Protein domain definition should allow for conditional disorder

: Proteins are often classified in a binary fashion as either structured or disordered. However this approach has several deficits. Firstly, protein folding is always conditional on the physiochemical environment. A protein which is structured in some circumstances will be disordered in others. Seco...

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Veröffentlicht in:Protein science 2013-11, Vol.22 (11), p.1502-1518
Hauptverfasser: Yegambaram, Kavestri, Bulloch, Esther M.M., Kingston, Richard L.
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container_end_page 1518
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container_title Protein science
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creator Yegambaram, Kavestri
Bulloch, Esther M.M.
Kingston, Richard L.
description : Proteins are often classified in a binary fashion as either structured or disordered. However this approach has several deficits. Firstly, protein folding is always conditional on the physiochemical environment. A protein which is structured in some circumstances will be disordered in others. Secondly, it hides a fundamental asymmetry in behavior. While all structured proteins can be unfolded through a change in environment, not all disordered proteins have the capacity for folding. Failure to accommodate these complexities confuses the definition of both protein structural domains and intrinsically disordered regions. We illustrate these points with an experimental study of a family of small binding domains, drawn from the RNA polymerase of mumps virus and its closest relatives. Assessed at face value the domains fall on a structural continuum, with folded, partially folded, and near unstructured members. Yet the disorder present in the family is conditional, and these closely related polypeptides can access the same folded state under appropriate conditions. Any heuristic definition of the protein domain emphasizing conformational stability divides this domain family in two, in a way that makes no biological sense. Structural domains would be better defined by their ability to adopt a specific tertiary structure: a structure that may or may not be realized, dependent on the circumstances. This explicitly allows for the conditional nature of protein folding, and more clearly demarcates structural domains from intrinsically disordered regions that may function without folding. PDB Code(s): 4KYC 4KYD 4KYE
doi_str_mv 10.1002/pro.2336
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Any heuristic definition of the protein domain emphasizing conformational stability divides this domain family in two, in a way that makes no biological sense. Structural domains would be better defined by their ability to adopt a specific tertiary structure: a structure that may or may not be realized, dependent on the circumstances. This explicitly allows for the conditional nature of protein folding, and more clearly demarcates structural domains from intrinsically disordered regions that may function without folding. 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However this approach has several deficits. Firstly, protein folding is always conditional on the physiochemical environment. A protein which is structured in some circumstances will be disordered in others. Secondly, it hides a fundamental asymmetry in behavior. While all structured proteins can be unfolded through a change in environment, not all disordered proteins have the capacity for folding. Failure to accommodate these complexities confuses the definition of both protein structural domains and intrinsically disordered regions. We illustrate these points with an experimental study of a family of small binding domains, drawn from the RNA polymerase of mumps virus and its closest relatives. Assessed at face value the domains fall on a structural continuum, with folded, partially folded, and near unstructured members. Yet the disorder present in the family is conditional, and these closely related polypeptides can access the same folded state under appropriate conditions. Any heuristic definition of the protein domain emphasizing conformational stability divides this domain family in two, in a way that makes no biological sense. Structural domains would be better defined by their ability to adopt a specific tertiary structure: a structure that may or may not be realized, dependent on the circumstances. This explicitly allows for the conditional nature of protein folding, and more clearly demarcates structural domains from intrinsically disordered regions that may function without folding. 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subjects Amino Acid Sequence
coupled binding and folding
Crystallography, X-Ray
Evolution, Molecular
intrinsic protein disorder
Intrinsically Disordered Proteins - chemistry
Magnetic Resonance Spectroscopy
Models, Molecular
Molecular Sequence Data
mumps virus
Mumps virus - enzymology
Phylogeny
Protein Conformation
Protein Folding
Protein Stability
Protein Structure, Tertiary
RNA Replicase - chemistry
RNA Replicase - metabolism
RNA‐dependent RNA polymerase
Rubulavirus - chemistry
rubulaviruses
stabilizing osmolytes
trimethylamine N‐oxide
Viral Proteins - chemistry
Viral Proteins - metabolism
title Protein domain definition should allow for conditional disorder
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