High‐Performance Dopamine‐Based Supramolecular Bio‐Adhesives

The need for wound closure or surgical procedures has been commonly met by the application of sutures. Unfortunately, these are often invasive or subject to contamination. Alternative solutions are offered by surgical adhesives that can be applied and set without major disruption; a new class of sup...

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Veröffentlicht in:Macromolecular rapid communications. 2024-12, Vol.45 (23), p.e2400345-n/a
Hauptverfasser: Hagemann, Maximilian J. L., Chadwick, Lewis, Drake, Marcus J., Hill, Darryl J., Baker, Benjamin C., Faul, Charl F. J.
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container_issue 23
container_start_page e2400345
container_title Macromolecular rapid communications.
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creator Hagemann, Maximilian J. L.
Chadwick, Lewis
Drake, Marcus J.
Hill, Darryl J.
Baker, Benjamin C.
Faul, Charl F. J.
description The need for wound closure or surgical procedures has been commonly met by the application of sutures. Unfortunately, these are often invasive or subject to contamination. Alternative solutions are offered by surgical adhesives that can be applied and set without major disruption; a new class of supramolecular‐based adhesives provides potential solutions to some of these challenges. In this study, a series of polymers utilizing dopamine as a self‐assembling unit are synthesized. It is found that these motifs act as extremely effective adhesives, with control over the mechanical strength of the adhesion and materials’ tensile properties enabled by changing monomer feed ratios and levels of cross‐linking. These materials significantly outperform commercially available bio‐adhesives, showing yield strengths after adhesion at least two times higher than that of BioGlue and Tisseel, as well as the ability to re‐adhere with significant recovery of adhesion strength. Promisingly, the materials are shown to be non‐cytotoxic, with cell viability > 90%, and able to perform in aqueous environments without significant loss in strength. Finally, the removal of the materials, is possible using benign organic solvents such as ethanol. These properties all demonstrate the effectiveness of the materials as potential bio‐adhesives, with potential advantages for use in surgery. In this study, a series of carefully designed polymers, utilizing dopamine as a hydrogen‐bonding self‐assembling unit, are synthesized. It is found that these motifs act as extremely effective single‐component adhesives, with control over the strength of adhesion and materials’ tensile properties enabled by changing monomer feed ratios and levels of cross‐linking.
doi_str_mv 10.1002/marc.202400345
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These materials significantly outperform commercially available bio‐adhesives, showing yield strengths after adhesion at least two times higher than that of BioGlue and Tisseel, as well as the ability to re‐adhere with significant recovery of adhesion strength. Promisingly, the materials are shown to be non‐cytotoxic, with cell viability &gt; 90%, and able to perform in aqueous environments without significant loss in strength. Finally, the removal of the materials, is possible using benign organic solvents such as ethanol. These properties all demonstrate the effectiveness of the materials as potential bio‐adhesives, with potential advantages for use in surgery. In this study, a series of carefully designed polymers, utilizing dopamine as a hydrogen‐bonding self‐assembling unit, are synthesized. 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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Adhesion
Adhesive strength
Adhesives
Aqueous environments
biocompatible adhesives
Biocompatible Materials - chemical synthesis
Biocompatible Materials - chemistry
Cell adhesion
Cell Survival - drug effects
Cell viability
Cytotoxicity
Dopamine
Dopamine - chemistry
Effectiveness
Ethanol
Humans
Materials recovery
Materials Testing
Mechanical properties
Molecular Structure
Organic solvents
Polymers
Polymers - chemical synthesis
Polymers - chemistry
Self-assembly
Supramolecular glue
surgical adhesives
Tensile properties
Tensile Strength
Tissue Adhesives - chemistry
Wound healing
title High‐Performance Dopamine‐Based Supramolecular Bio‐Adhesives
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