The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.

The human SnoN is an oncoprotein that interacts with several transcription-regulatory proteins such as the histone-deacetylase, N-CoR containing co-repressor complex and Smad proteins. This study presents the crystal structure of the Dachshund homology domain of human SnoN. The structure reveals a g...

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Main Authors: Tomas Nyman, Lionel Trésaugues, Martin Welin, Lari Lehtiö, Susanne Flodin, Camilla Persson, Ida Johansson, Martin Hammarström, Pär Nordlund
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2010-09-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC2944819?pdf=render
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spelling doaj-265929c6ea3140ae80875e793407209a2020-11-25T01:22:52ZengPublic Library of Science (PLoS)PLoS ONE1932-62032010-09-0159e1290710.1371/journal.pone.0012907The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.Tomas NymanLionel TrésauguesMartin WelinLari LehtiöSusanne FlodinCamilla PerssonIda JohanssonMartin HammarströmPär NordlundThe human SnoN is an oncoprotein that interacts with several transcription-regulatory proteins such as the histone-deacetylase, N-CoR containing co-repressor complex and Smad proteins. This study presents the crystal structure of the Dachshund homology domain of human SnoN. The structure reveals a groove composed of conserved residues with characteristic properties of a protein-interaction surface. A comparison of the 12 monomers in the asymmetric unit reveals the presence of two major conformations: an open conformation with a well accessible groove and a tight conformation with a less accessible groove. The variability in the backbone between the open and the tight conformations matches the differences seen in previously determined structures of individual Dachshund homology domains, suggesting a general plasticity within this fold family. The flexibility observed in the putative protein binding groove may enable SnoN to recognize multiple interaction partners.This article can also be viewed as an enhanced version in which the text of the article is integrated with interactive 3D representations and animated transitions. Please note that a web plugin is required to access this enhanced functionality. Instructions for the installation and use of the web plugin are available in Text S1.http://europepmc.org/articles/PMC2944819?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Tomas Nyman
Lionel Trésaugues
Martin Welin
Lari Lehtiö
Susanne Flodin
Camilla Persson
Ida Johansson
Martin Hammarström
Pär Nordlund
spellingShingle Tomas Nyman
Lionel Trésaugues
Martin Welin
Lari Lehtiö
Susanne Flodin
Camilla Persson
Ida Johansson
Martin Hammarström
Pär Nordlund
The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.
PLoS ONE
author_facet Tomas Nyman
Lionel Trésaugues
Martin Welin
Lari Lehtiö
Susanne Flodin
Camilla Persson
Ida Johansson
Martin Hammarström
Pär Nordlund
author_sort Tomas Nyman
title The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.
title_short The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.
title_full The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.
title_fullStr The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.
title_full_unstemmed The crystal structure of the Dachshund domain of human SnoN reveals flexibility in the putative protein interaction surface.
title_sort crystal structure of the dachshund domain of human snon reveals flexibility in the putative protein interaction surface.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2010-09-01
description The human SnoN is an oncoprotein that interacts with several transcription-regulatory proteins such as the histone-deacetylase, N-CoR containing co-repressor complex and Smad proteins. This study presents the crystal structure of the Dachshund homology domain of human SnoN. The structure reveals a groove composed of conserved residues with characteristic properties of a protein-interaction surface. A comparison of the 12 monomers in the asymmetric unit reveals the presence of two major conformations: an open conformation with a well accessible groove and a tight conformation with a less accessible groove. The variability in the backbone between the open and the tight conformations matches the differences seen in previously determined structures of individual Dachshund homology domains, suggesting a general plasticity within this fold family. The flexibility observed in the putative protein binding groove may enable SnoN to recognize multiple interaction partners.This article can also be viewed as an enhanced version in which the text of the article is integrated with interactive 3D representations and animated transitions. Please note that a web plugin is required to access this enhanced functionality. Instructions for the installation and use of the web plugin are available in Text S1.
url http://europepmc.org/articles/PMC2944819?pdf=render
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