Biomimetic heterogenous elastic tissue development

3D Printing Artificial Elastic Tissues Solvent-free thermoplastic polyurethanes (TPU) could be used to 3D-print artificial tissues saving time and money. Achala de Mel and colleagues at University College London used open-source 3D-modelling software and commercially available 3D printers to fabrica...

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Main Authors: Kai Jen Tsai, Simon Dixon, Luke Richard Hale, Arnold Darbyshire, Daniel Martin, Achala de Mel
Format: Article
Language:English
Published: Nature Publishing Group 2017-06-01
Series:npj Regenerative Medicine
Online Access:https://doi.org/10.1038/s41536-017-0021-4
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spelling doaj-5e77206a1a7e4dd6abd4569363a3bb372021-04-02T16:21:21ZengNature Publishing Groupnpj Regenerative Medicine2057-39952017-06-01211810.1038/s41536-017-0021-4Biomimetic heterogenous elastic tissue developmentKai Jen Tsai0Simon Dixon1Luke Richard Hale2Arnold Darbyshire3Daniel Martin4Achala de Mel5Division of Surgery and Interventional Science, University College LondonBiomer Technology LtdDivision of Surgery and Interventional Science, University College LondonDivision of Surgery and Interventional Science, University College LondonDivision of Surgery and Interventional Science, University College LondonDivision of Surgery and Interventional Science, University College London3D Printing Artificial Elastic Tissues Solvent-free thermoplastic polyurethanes (TPU) could be used to 3D-print artificial tissues saving time and money. Achala de Mel and colleagues at University College London used open-source 3D-modelling software and commercially available 3D printers to fabricate a bespoke tracheal stent from custom-made TPU. The team was able to control the material’s porosity with 3D-design, which could facilitate its vascularisation if implanted. The trachea was mechanically and structurally similar to that of an adult, showing longitudinal elasticity and radial rigidity. When attached to a ventilator system, it responded well to pressures similar to those of inspiration, forced expiration, coughing or crying. 3D-printed trachea was treated with bioactive molecules so cells could potentially adhere to and proliferate on its surface. This method could be used to fabricate bespoke elastic tissue substitutes, avoiding costly and time-consuming cell-culture techniques.https://doi.org/10.1038/s41536-017-0021-4
collection DOAJ
language English
format Article
sources DOAJ
author Kai Jen Tsai
Simon Dixon
Luke Richard Hale
Arnold Darbyshire
Daniel Martin
Achala de Mel
spellingShingle Kai Jen Tsai
Simon Dixon
Luke Richard Hale
Arnold Darbyshire
Daniel Martin
Achala de Mel
Biomimetic heterogenous elastic tissue development
npj Regenerative Medicine
author_facet Kai Jen Tsai
Simon Dixon
Luke Richard Hale
Arnold Darbyshire
Daniel Martin
Achala de Mel
author_sort Kai Jen Tsai
title Biomimetic heterogenous elastic tissue development
title_short Biomimetic heterogenous elastic tissue development
title_full Biomimetic heterogenous elastic tissue development
title_fullStr Biomimetic heterogenous elastic tissue development
title_full_unstemmed Biomimetic heterogenous elastic tissue development
title_sort biomimetic heterogenous elastic tissue development
publisher Nature Publishing Group
series npj Regenerative Medicine
issn 2057-3995
publishDate 2017-06-01
description 3D Printing Artificial Elastic Tissues Solvent-free thermoplastic polyurethanes (TPU) could be used to 3D-print artificial tissues saving time and money. Achala de Mel and colleagues at University College London used open-source 3D-modelling software and commercially available 3D printers to fabricate a bespoke tracheal stent from custom-made TPU. The team was able to control the material’s porosity with 3D-design, which could facilitate its vascularisation if implanted. The trachea was mechanically and structurally similar to that of an adult, showing longitudinal elasticity and radial rigidity. When attached to a ventilator system, it responded well to pressures similar to those of inspiration, forced expiration, coughing or crying. 3D-printed trachea was treated with bioactive molecules so cells could potentially adhere to and proliferate on its surface. This method could be used to fabricate bespoke elastic tissue substitutes, avoiding costly and time-consuming cell-culture techniques.
url https://doi.org/10.1038/s41536-017-0021-4
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