De novo DNA-based catch bonds

All primary chemical interactions weaken under mechanical stress, which imposes fundamental mechanical limits on the materials constructed from them. Biological materials combine plasticity with strength, for which nature has evolved a unique solution—catch bonds, supramolecular interactions that strengthen under tension. Biological catch bonds use force-gated conformational switches to convert weak bonds into strong ones. So far, catch bonds remain exclusive to nature, leaving their potential as mechanoadaptive elements in synthetic systems untapped. Here we report the design and realization of artificial catch bonds. Starting from a minimal set of thermodynamic design requirements, we created a molecular motif capable of catch bonding. It consists of a DNA duplex featuring a cryptic domain that unfolds under tension to strengthen the interaction. We show that these catch bonds recreate force-enhanced rolling adhesion, a hallmark feature of biological catch bonds in bacteria and leukocytes. This Article introduces catch bonds into the synthetic domain, and could lead to the creation of artificial catch-bonded materials. (Figure presented.).

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Main Authors: van Galen, Martijn, Bok, Annemarie, Peshkovsky, Taieesa, van der Gucht, Jasper, Albada, Bauke, Sprakel, Joris
Format: Article/Letter to editor biblioteca
Language:English
Subjects:Life Science,
Online Access:https://research.wur.nl/en/publications/de-novo-dna-based-catch-bonds
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spelling dig-wur-nl-wurpubs-6330662024-12-04 van Galen, Martijn Bok, Annemarie Peshkovsky, Taieesa van der Gucht, Jasper Albada, Bauke Sprakel, Joris Article/Letter to editor Nature Chemistry 16 (2024) 12 ISSN: 1755-4330 De novo DNA-based catch bonds 2024 All primary chemical interactions weaken under mechanical stress, which imposes fundamental mechanical limits on the materials constructed from them. Biological materials combine plasticity with strength, for which nature has evolved a unique solution—catch bonds, supramolecular interactions that strengthen under tension. Biological catch bonds use force-gated conformational switches to convert weak bonds into strong ones. So far, catch bonds remain exclusive to nature, leaving their potential as mechanoadaptive elements in synthetic systems untapped. Here we report the design and realization of artificial catch bonds. Starting from a minimal set of thermodynamic design requirements, we created a molecular motif capable of catch bonding. It consists of a DNA duplex featuring a cryptic domain that unfolds under tension to strengthen the interaction. We show that these catch bonds recreate force-enhanced rolling adhesion, a hallmark feature of biological catch bonds in bacteria and leukocytes. This Article introduces catch bonds into the synthetic domain, and could lead to the creation of artificial catch-bonded materials. (Figure presented.). en application/pdf https://research.wur.nl/en/publications/de-novo-dna-based-catch-bonds 10.1038/s41557-024-01571-4 https://edepot.wur.nl/670957 Life Science https://creativecommons.org/licenses/by/4.0/ https://creativecommons.org/licenses/by/4.0/ Wageningen University & Research
institution WUR NL
collection DSpace
country Países bajos
countrycode NL
component Bibliográfico
access En linea
databasecode dig-wur-nl
tag biblioteca
region Europa del Oeste
libraryname WUR Library Netherlands
language English
topic Life Science
Life Science
spellingShingle Life Science
Life Science
van Galen, Martijn
Bok, Annemarie
Peshkovsky, Taieesa
van der Gucht, Jasper
Albada, Bauke
Sprakel, Joris
De novo DNA-based catch bonds
description All primary chemical interactions weaken under mechanical stress, which imposes fundamental mechanical limits on the materials constructed from them. Biological materials combine plasticity with strength, for which nature has evolved a unique solution—catch bonds, supramolecular interactions that strengthen under tension. Biological catch bonds use force-gated conformational switches to convert weak bonds into strong ones. So far, catch bonds remain exclusive to nature, leaving their potential as mechanoadaptive elements in synthetic systems untapped. Here we report the design and realization of artificial catch bonds. Starting from a minimal set of thermodynamic design requirements, we created a molecular motif capable of catch bonding. It consists of a DNA duplex featuring a cryptic domain that unfolds under tension to strengthen the interaction. We show that these catch bonds recreate force-enhanced rolling adhesion, a hallmark feature of biological catch bonds in bacteria and leukocytes. This Article introduces catch bonds into the synthetic domain, and could lead to the creation of artificial catch-bonded materials. (Figure presented.).
format Article/Letter to editor
topic_facet Life Science
author van Galen, Martijn
Bok, Annemarie
Peshkovsky, Taieesa
van der Gucht, Jasper
Albada, Bauke
Sprakel, Joris
author_facet van Galen, Martijn
Bok, Annemarie
Peshkovsky, Taieesa
van der Gucht, Jasper
Albada, Bauke
Sprakel, Joris
author_sort van Galen, Martijn
title De novo DNA-based catch bonds
title_short De novo DNA-based catch bonds
title_full De novo DNA-based catch bonds
title_fullStr De novo DNA-based catch bonds
title_full_unstemmed De novo DNA-based catch bonds
title_sort de novo dna-based catch bonds
url https://research.wur.nl/en/publications/de-novo-dna-based-catch-bonds
work_keys_str_mv AT vangalenmartijn denovodnabasedcatchbonds
AT bokannemarie denovodnabasedcatchbonds
AT peshkovskytaieesa denovodnabasedcatchbonds
AT vanderguchtjasper denovodnabasedcatchbonds
AT albadabauke denovodnabasedcatchbonds
AT sprakeljoris denovodnabasedcatchbonds
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