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Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds

Current standard wound care involves dressings that provide moisture and protection; however, dressings providing active healing are still scarce and expensive. We aimed to develop an ecologically sustainable 3D printed bioactive hydrogel-based topical wound dressing targeting healing of hard-to-hea...

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Autores principales: Stenlund, Patrik, Enstedt, Linnea, Gilljam, Karin Margaretha, Standoft, Simon, Ahlinder, Astrid, Lundin Johnson, Maria, Lund, Henrik, Millqvist Fureby, Anna, Berglin, Mattias
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10301934/
https://www.ncbi.nlm.nih.gov/pubmed/37376274
http://dx.doi.org/10.3390/polym15122627
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author Stenlund, Patrik
Enstedt, Linnea
Gilljam, Karin Margaretha
Standoft, Simon
Ahlinder, Astrid
Lundin Johnson, Maria
Lund, Henrik
Millqvist Fureby, Anna
Berglin, Mattias
author_facet Stenlund, Patrik
Enstedt, Linnea
Gilljam, Karin Margaretha
Standoft, Simon
Ahlinder, Astrid
Lundin Johnson, Maria
Lund, Henrik
Millqvist Fureby, Anna
Berglin, Mattias
author_sort Stenlund, Patrik
collection PubMed
description Current standard wound care involves dressings that provide moisture and protection; however, dressings providing active healing are still scarce and expensive. We aimed to develop an ecologically sustainable 3D printed bioactive hydrogel-based topical wound dressing targeting healing of hard-to-heal wounds, such as chronic or burn wounds, which are low on exudate. To this end, we developed a formulation composed of renewable marine components; purified extract from unfertilized salmon roe (heat-treated X, HTX), alginate from brown seaweed, and nanocellulose from tunicates. HTX is believed to facilitate the wound healing process. The components were successfully formulated into a 3D printable ink that was used to create a hydrogel lattice structure. The 3D printed hydrogel showed a HTX release profile enhancing pro-collagen I alpha 1 production in cell culture with potential of promoting wound closure rates. The dressing has recently been tested on burn wounds in Göttingen minipigs and shows accelerated wound closure and reduced inflammation. This paper describes the dressings development, mechanical properties, bioactivity, and safety.
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spelling pubmed-103019342023-06-29 Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds Stenlund, Patrik Enstedt, Linnea Gilljam, Karin Margaretha Standoft, Simon Ahlinder, Astrid Lundin Johnson, Maria Lund, Henrik Millqvist Fureby, Anna Berglin, Mattias Polymers (Basel) Article Current standard wound care involves dressings that provide moisture and protection; however, dressings providing active healing are still scarce and expensive. We aimed to develop an ecologically sustainable 3D printed bioactive hydrogel-based topical wound dressing targeting healing of hard-to-heal wounds, such as chronic or burn wounds, which are low on exudate. To this end, we developed a formulation composed of renewable marine components; purified extract from unfertilized salmon roe (heat-treated X, HTX), alginate from brown seaweed, and nanocellulose from tunicates. HTX is believed to facilitate the wound healing process. The components were successfully formulated into a 3D printable ink that was used to create a hydrogel lattice structure. The 3D printed hydrogel showed a HTX release profile enhancing pro-collagen I alpha 1 production in cell culture with potential of promoting wound closure rates. The dressing has recently been tested on burn wounds in Göttingen minipigs and shows accelerated wound closure and reduced inflammation. This paper describes the dressings development, mechanical properties, bioactivity, and safety. MDPI 2023-06-09 /pmc/articles/PMC10301934/ /pubmed/37376274 http://dx.doi.org/10.3390/polym15122627 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Stenlund, Patrik
Enstedt, Linnea
Gilljam, Karin Margaretha
Standoft, Simon
Ahlinder, Astrid
Lundin Johnson, Maria
Lund, Henrik
Millqvist Fureby, Anna
Berglin, Mattias
Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds
title Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds
title_full Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds
title_fullStr Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds
title_full_unstemmed Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds
title_short Development of an All-Marine 3D Printed Bioactive Hydrogel Dressing for Treatment of Hard-to-Heal Wounds
title_sort development of an all-marine 3d printed bioactive hydrogel dressing for treatment of hard-to-heal wounds
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10301934/
https://www.ncbi.nlm.nih.gov/pubmed/37376274
http://dx.doi.org/10.3390/polym15122627
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