Engineering the vasculature with additive manufacturing
Engineering the vasculature with additive manufacturing
Additive manufacturing encompasses a group of 3D printing technologies enabling the generation of complex, biomimetic 3D structures for tissue engineering and regenerative medi- cine. The ability of 3D printing to pattern multiple materials, cell types and biomolecules provides a unique tool to create tissue constructs closely resembling the composition, architecture and function of biological tissues. Advances in printable bio- materials and 3D printing strategies allow the fabrication of vascularised tissue constructs composed of multiple cells embedded within suitable extracellular matrix components and supplied by functional vasculature. Thick and perfusable vascular tissue constructs can now be designed, printed and in vitro cultured for relevant time periods, offering a promising alternative to traditional vascularisation strategies. This review provides a concise overview of recent 3D printing strategies explored to create vascular networks and vascularised tissue constructs, and discusses future perspectives regarding the importance of engineering vascularisation for clinical applications.
Additive manufacturing, 3D bioprinting, Tissue engineering, Vascularisation
1-13
Vyas, Cian
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Pereira, Ruben
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Huang, Boyang
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Liu, Fengyuan
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Wang, Weiguang
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Da Silva Bartolo, Paulo Jorge
2c085472-871d-4ac1-8767-23e5fe9703cf
21 June 2017
Vyas, Cian
d6dde9b5-3361-4052-9aa4-6ef750b7bd36
Pereira, Ruben
fcb6998a-f9ca-4d5a-acf5-89920cc15a22
Huang, Boyang
c76d64bd-200f-4579-b5d9-671fb9bd91ee
Liu, Fengyuan
34504cf0-2b1a-4b0b-afe3-6e6e7f86a193
Wang, Weiguang
0cc699c0-e7b3-49d0-8c84-1e9d63f747d8
Da Silva Bartolo, Paulo Jorge
2c085472-871d-4ac1-8767-23e5fe9703cf
Vyas, Cian, Pereira, Ruben, Huang, Boyang, Liu, Fengyuan, Wang, Weiguang and Da Silva Bartolo, Paulo Jorge
(2017)
Engineering the vasculature with additive manufacturing.
Current Opinion in Biomedical Engineering, 2, .
(doi:10.1016/j.cobme.2017.05.008).
Abstract
Additive manufacturing encompasses a group of 3D printing technologies enabling the generation of complex, biomimetic 3D structures for tissue engineering and regenerative medi- cine. The ability of 3D printing to pattern multiple materials, cell types and biomolecules provides a unique tool to create tissue constructs closely resembling the composition, architecture and function of biological tissues. Advances in printable bio- materials and 3D printing strategies allow the fabrication of vascularised tissue constructs composed of multiple cells embedded within suitable extracellular matrix components and supplied by functional vasculature. Thick and perfusable vascular tissue constructs can now be designed, printed and in vitro cultured for relevant time periods, offering a promising alternative to traditional vascularisation strategies. This review provides a concise overview of recent 3D printing strategies explored to create vascular networks and vascularised tissue constructs, and discusses future perspectives regarding the importance of engineering vascularisation for clinical applications.
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Published date: 21 June 2017
Keywords:
Additive manufacturing, 3D bioprinting, Tissue engineering, Vascularisation
Identifiers
Local EPrints ID: 497711
URI: http://eprints.soton.ac.uk/id/eprint/497711
ISSN: 2468-4511
PURE UUID: 3bdac9e2-081a-4e1e-9046-d8025bf28326
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Date deposited: 29 Jan 2025 18:38
Last modified: 30 Jan 2025 03:32
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Contributors
Author:
Cian Vyas
Author:
Ruben Pereira
Author:
Boyang Huang
Author:
Fengyuan Liu
Author:
Weiguang Wang
Author:
Paulo Jorge Da Silva Bartolo
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