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PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models

The PDMS-based microfluidic organ-on-chip platform represents an exciting paradigm that has enjoyed a rapid rise in popularity and adoption. A particularly promising element of this platform is its amenability to rapid manufacturing strategies, which can enable quick adaptations through iterative pr...

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Autores principales: Cameron, Tiffany C., Randhawa, Avineet, Grist, Samantha M., Bennet, Tanya, Hua, Jessica, Alde, Luis G., Caffrey, Tara M., Wellington, Cheryl L., Cheung, Karen C.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9609846/
https://www.ncbi.nlm.nih.gov/pubmed/36295926
http://dx.doi.org/10.3390/mi13101573
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author Cameron, Tiffany C.
Randhawa, Avineet
Grist, Samantha M.
Bennet, Tanya
Hua, Jessica
Alde, Luis G.
Caffrey, Tara M.
Wellington, Cheryl L.
Cheung, Karen C.
author_facet Cameron, Tiffany C.
Randhawa, Avineet
Grist, Samantha M.
Bennet, Tanya
Hua, Jessica
Alde, Luis G.
Caffrey, Tara M.
Wellington, Cheryl L.
Cheung, Karen C.
author_sort Cameron, Tiffany C.
collection PubMed
description The PDMS-based microfluidic organ-on-chip platform represents an exciting paradigm that has enjoyed a rapid rise in popularity and adoption. A particularly promising element of this platform is its amenability to rapid manufacturing strategies, which can enable quick adaptations through iterative prototyping. These strategies, however, come with challenges; fluid flow, for example, a core principle of organs-on-chip and the physiology they aim to model, necessitates robust, leak-free channels for potentially long (multi-week) culture durations. In this report, we describe microfluidic chip fabrication methods and strategies that are aimed at overcoming these difficulties; we employ a subset of these strategies to a blood–brain-barrier-on-chip, with others applied to a small-airway-on-chip. Design approaches are detailed with considerations presented for readers. Results pertaining to fabrication parameters we aimed to improve (e.g., the thickness uniformity of molded PDMS), as well as illustrative results pertaining to the establishment of cell cultures using these methods will also be presented.
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spelling pubmed-96098462022-10-28 PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models Cameron, Tiffany C. Randhawa, Avineet Grist, Samantha M. Bennet, Tanya Hua, Jessica Alde, Luis G. Caffrey, Tara M. Wellington, Cheryl L. Cheung, Karen C. Micromachines (Basel) Article The PDMS-based microfluidic organ-on-chip platform represents an exciting paradigm that has enjoyed a rapid rise in popularity and adoption. A particularly promising element of this platform is its amenability to rapid manufacturing strategies, which can enable quick adaptations through iterative prototyping. These strategies, however, come with challenges; fluid flow, for example, a core principle of organs-on-chip and the physiology they aim to model, necessitates robust, leak-free channels for potentially long (multi-week) culture durations. In this report, we describe microfluidic chip fabrication methods and strategies that are aimed at overcoming these difficulties; we employ a subset of these strategies to a blood–brain-barrier-on-chip, with others applied to a small-airway-on-chip. Design approaches are detailed with considerations presented for readers. Results pertaining to fabrication parameters we aimed to improve (e.g., the thickness uniformity of molded PDMS), as well as illustrative results pertaining to the establishment of cell cultures using these methods will also be presented. MDPI 2022-09-22 /pmc/articles/PMC9609846/ /pubmed/36295926 http://dx.doi.org/10.3390/mi13101573 Text en © 2022 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
Cameron, Tiffany C.
Randhawa, Avineet
Grist, Samantha M.
Bennet, Tanya
Hua, Jessica
Alde, Luis G.
Caffrey, Tara M.
Wellington, Cheryl L.
Cheung, Karen C.
PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models
title PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models
title_full PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models
title_fullStr PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models
title_full_unstemmed PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models
title_short PDMS Organ-On-Chip Design and Fabrication: Strategies for Improving Fluidic Integration and Chip Robustness of Rapidly Prototyped Microfluidic In Vitro Models
title_sort pdms organ-on-chip design and fabrication: strategies for improving fluidic integration and chip robustness of rapidly prototyped microfluidic in vitro models
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9609846/
https://www.ncbi.nlm.nih.gov/pubmed/36295926
http://dx.doi.org/10.3390/mi13101573
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