Synthetic, multi-dynamic hydrogels by uniting stress-stiffening and supramolecular polymers

Nature uses discrete molecular building blocks to form polymers that assemble into multicomponent, multi-dynamic networks, inside (cytoskeleton) and outside (extracellular matrix) the cell. Both the intra-fibrous molecular dynamics and interactions between fibers dictate (non)linear mechanics, such as stress stiffening and relaxation, and ultimately biological function. Current synthetic systems capture only one dynamic process. Here, we present multi-dynamic hydrogels by uniting a stress-stiffening polymer with supramolecular polymers. Crucial is the molecular dynamics of the supramolecular polymers: They dictate the interaction strength with the stress-stiffening polymer and the subsequent dynamic mechanical properties of the mixed networks. The biological relevance of our multi-dynamic hydrogels is demonstrated by their ability to support fibroblast cell spreading. Future work may address the display of various dynamically presented bioactive cues to cells.

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Publication Details

Journal
Science Advances
Published
2024-11-20
DOI
https://doi.org/10.1126/sciadv.adr3209
Citations
28
Primary Topic
Cellular Mechanics and Interactions
Type
article
Field-Weighted Citation Impact
9.13

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article

Synthetic, multi-dynamic hydrogels by uniting stress-stiffening and supramolecular polymers

Paul H. J. Kouwer, Susana Rocha, Emanuela Del Gado, Patricia Y. W. Dankers et al.
28 citations
Science Advances
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article

Synthetic, multi-dynamic hydrogels by uniting stress-stiffening and supramolecular polymers

Paul H. J. Kouwer, Susana Rocha, Emanuela Del Gado, Patricia Y. W. Dankers, Mauro L. Mugnai, Martin G. T. A. Rutten, Laura Rijns, Hongbo Yuan, Riccardo Bellan
article en
28 citations

Abstract

Nature uses discrete molecular building blocks to form polymers that assemble into multicomponent, multi-dynamic networks, inside (cytoskeleton) and outside (extracellular matrix) the cell. Both the intra-fibrous molecular dynamics and interactions between fibers dictate (non)linear mechanics, such as stress stiffening and relaxation, and ultimately biological function. Current synthetic systems capture only one dynamic process. Here, we present multi-dynamic hydrogels by uniting a stress-stiffening polymer with supramolecular polymers. Crucial is the molecular dynamics of the supramolecular polymers: They dictate the interaction strength with the stress-stiffening polymer and the subsequent dynamic mechanical properties of the mixed networks. The biological relevance of our multi-dynamic hydrogels is demonstrated by their ability to support fibroblast cell spreading. Future work may address the display of various dynamically presented bioactive cues to cells.

Science AdvancesVol. 10(47)
Radboud University Nijmegen (NL), Georgetown University (US), Hebei University of Technology (CN), Radboud University Medical Center (NL), Radboud Institute for Molecular Life Sciences (NL), Eindhoven University of Technology (NL), KU Leuven (BE)
Nederlandse Organisatie voor Wetenschappelijk Onderzoek
Openalex Percentile: Top 1%
Cellular Mechanics and Interactions
9.13
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