Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states

Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states

Gels exhibit very slow dynamics, for which a structural reason remains elusive. Here, Kohl et al. show the gel formation is accompanied by a succession of continuous and directed percolation, with only the latter found to lead to the arrested dynamics.

Bibliographic Details
Main Authors: M. Kohl, R. F. Capellmann, M. Laurati, S. U. Egelhaaf, M. Schmiedeberg
Format: Article
Language:English
Published: Nature Publishing Group 2016-06-01
Series:Nature Communications
Online Access:https://doi.org/10.1038/ncomms11817
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spelling doaj-6f89986a95394495895b6b9ef421165a2021-05-11T11:23:29ZengNature Publishing GroupNature Communications2041-17232016-06-01711810.1038/ncomms11817Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel statesM. Kohl0R. F. Capellmann1M. Laurati2S. U. Egelhaaf3M. Schmiedeberg4Institute for Theoretical Physics II: Soft Matter, Heinrich Heine UniversityCondensed Matter Physics Laboratory, Heinrich Heine UniversityCondensed Matter Physics Laboratory, Heinrich Heine UniversityCondensed Matter Physics Laboratory, Heinrich Heine UniversityInstitute for Theoretical Physics II: Soft Matter, Heinrich Heine UniversityGels exhibit very slow dynamics, for which a structural reason remains elusive. Here, Kohl et al. show the gel formation is accompanied by a succession of continuous and directed percolation, with only the latter found to lead to the arrested dynamics.https://doi.org/10.1038/ncomms11817
collection DOAJ
language English
format Article
sources DOAJ
author M. Kohl
R. F. Capellmann
M. Laurati
S. U. Egelhaaf
M. Schmiedeberg
spellingShingle M. Kohl
R. F. Capellmann
M. Laurati
S. U. Egelhaaf
M. Schmiedeberg
Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
Nature Communications
author_facet M. Kohl
R. F. Capellmann
M. Laurati
S. U. Egelhaaf
M. Schmiedeberg
author_sort M. Kohl
title Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
title_short Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
title_full Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
title_fullStr Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
title_full_unstemmed Directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
title_sort directed percolation identified as equilibrium pre-transition towards non-equilibrium arrested gel states
publisher Nature Publishing Group
series Nature Communications
issn 2041-1723
publishDate 2016-06-01
description Gels exhibit very slow dynamics, for which a structural reason remains elusive. Here, Kohl et al. show the gel formation is accompanied by a succession of continuous and directed percolation, with only the latter found to lead to the arrested dynamics.
url https://doi.org/10.1038/ncomms11817
work_keys_str_mv AT mkohl directedpercolationidentifiedasequilibriumpretransitiontowardsnonequilibriumarrestedgelstates
AT rfcapellmann directedpercolationidentifiedasequilibriumpretransitiontowardsnonequilibriumarrestedgelstates
AT mlaurati directedpercolationidentifiedasequilibriumpretransitiontowardsnonequilibriumarrestedgelstates
AT suegelhaaf directedpercolationidentifiedasequilibriumpretransitiontowardsnonequilibriumarrestedgelstates
AT mschmiedeberg directedpercolationidentifiedasequilibriumpretransitiontowardsnonequilibriumarrestedgelstates
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