Developing a self-healing supramolecular nucleoside hydrogel

Low molecular weight gelator hydrogels provide a viable alternative to traditional polymer based drug delivery platforms, owing to their tunable stability and in most cases inherent biocompatibility. Here we report the first self-healing nucleoside hydrogel using N4-octanoyl-2′-deoxycytidine (0.5% w...

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Main Authors: Skilling, Kathryn J., Kellam, Barrie, Ashford, M., Bradshaw, Tracey D., Marlow, Maria
Format: Article
Published: Royal Society of Chemistry 2016
Online Access:https://eprints.nottingham.ac.uk/37330/
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author Skilling, Kathryn J.
Kellam, Barrie
Ashford, M.
Bradshaw, Tracey D.
Marlow, Maria
author_facet Skilling, Kathryn J.
Kellam, Barrie
Ashford, M.
Bradshaw, Tracey D.
Marlow, Maria
author_sort Skilling, Kathryn J.
building Nottingham Research Data Repository
collection Online Access
description Low molecular weight gelator hydrogels provide a viable alternative to traditional polymer based drug delivery platforms, owing to their tunable stability and in most cases inherent biocompatibility. Here we report the first self-healing nucleoside hydrogel using N4-octanoyl-2′-deoxycytidine (0.5% w/v) for drug delivery. The hydrogel's cross-linked nanofibrillar structure, was characterised using oscillatory rheology and confirmed using SEM and TEM imaging. The potential of this gel for drug delivery was explored in vitro using fluorescently labelled tracers. Cell viability assays were conducted using pancreatic cell lines which tolerated the gels well; whilst no adverse effects on the viability or proliferation of cells were observed for fibroblast cell lines.
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spelling nottingham-373302020-05-04T18:10:21Z https://eprints.nottingham.ac.uk/37330/ Developing a self-healing supramolecular nucleoside hydrogel Skilling, Kathryn J. Kellam, Barrie Ashford, M. Bradshaw, Tracey D. Marlow, Maria Low molecular weight gelator hydrogels provide a viable alternative to traditional polymer based drug delivery platforms, owing to their tunable stability and in most cases inherent biocompatibility. Here we report the first self-healing nucleoside hydrogel using N4-octanoyl-2′-deoxycytidine (0.5% w/v) for drug delivery. The hydrogel's cross-linked nanofibrillar structure, was characterised using oscillatory rheology and confirmed using SEM and TEM imaging. The potential of this gel for drug delivery was explored in vitro using fluorescently labelled tracers. Cell viability assays were conducted using pancreatic cell lines which tolerated the gels well; whilst no adverse effects on the viability or proliferation of cells were observed for fibroblast cell lines. Royal Society of Chemistry 2016-09-21 Article PeerReviewed Skilling, Kathryn J., Kellam, Barrie, Ashford, M., Bradshaw, Tracey D. and Marlow, Maria (2016) Developing a self-healing supramolecular nucleoside hydrogel. Soft Matter . ISSN 1744-6848 http://pubs.rsc.org/en/Content/ArticleLanding/2016/SM/C6SM01779G#!divAbstract doi:10.1039/C6SM01779G doi:10.1039/C6SM01779G
spellingShingle Skilling, Kathryn J.
Kellam, Barrie
Ashford, M.
Bradshaw, Tracey D.
Marlow, Maria
Developing a self-healing supramolecular nucleoside hydrogel
title Developing a self-healing supramolecular nucleoside hydrogel
title_full Developing a self-healing supramolecular nucleoside hydrogel
title_fullStr Developing a self-healing supramolecular nucleoside hydrogel
title_full_unstemmed Developing a self-healing supramolecular nucleoside hydrogel
title_short Developing a self-healing supramolecular nucleoside hydrogel
title_sort developing a self-healing supramolecular nucleoside hydrogel
url https://eprints.nottingham.ac.uk/37330/
https://eprints.nottingham.ac.uk/37330/
https://eprints.nottingham.ac.uk/37330/