Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration

Neurodegenerative conditions remain difficult to treat, with the continuing failure to see therapeutic research successfully advance to clinical trials. One of the obstacles that must be overcome is to develop enhanced models of disease. Tissue engineering techniques enable us to create organised ar...

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Main Authors: Caitriona O’Rourke, Charlotte Lee-Reeves, Rosemary AL Drake, Grant WW Cameron, A Jane Loughlin, James B Phillips
Format: Article
Language:English
Published: SAGE Publishing 2017-03-01
Series:Journal of Tissue Engineering
Online Access:https://doi.org/10.1177/2041731417697920
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spelling doaj-ff501ad7604b4a74b032c4b586aa559e2020-11-25T03:15:03ZengSAGE PublishingJournal of Tissue Engineering2041-73142017-03-01810.1177/204173141769792010.1177_2041731417697920Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegenerationCaitriona O’Rourke0Charlotte Lee-Reeves1Rosemary AL Drake2Grant WW Cameron3A Jane Loughlin4James B Phillips5Department of Life, Health and Chemical Sciences, The Open University, Milton Keynes, UKDepartment of Biomaterials and Tissue Engineering, UCL Eastman Dental Institute, University College London, London, UKTAP Biosystems, Royston, UKTAP Biosystems, Royston, UKDepartment of Life, Health and Chemical Sciences, The Open University, Milton Keynes, UKDepartment of Biomaterials and Tissue Engineering, UCL Eastman Dental Institute, University College London, London, UKNeurodegenerative conditions remain difficult to treat, with the continuing failure to see therapeutic research successfully advance to clinical trials. One of the obstacles that must be overcome is to develop enhanced models of disease. Tissue engineering techniques enable us to create organised artificial central nervous system tissue that has the potential to improve the drug development process. This study presents a replicable model of neurodegenerative pathology through the use of engineered neural tissue co-cultures that can incorporate cells from various sources and allow degeneration and protection of neurons to be observed easily and measured, following exposure to neurotoxic compounds – okadaic acid and 1-methyl-4-phenylpyridinium. Furthermore, the technology has been miniaturised through development of a mould with 6 mm length that recreates the advantageous features of engineered neural tissue co-cultures at a scale suitable for commercial research and development. Integration of human-derived induced pluripotent stem cells aids more accurate modelling of human diseases, creating new possibilities for engineered neural tissue co-cultures and their use in drug screening.https://doi.org/10.1177/2041731417697920
collection DOAJ
language English
format Article
sources DOAJ
author Caitriona O’Rourke
Charlotte Lee-Reeves
Rosemary AL Drake
Grant WW Cameron
A Jane Loughlin
James B Phillips
spellingShingle Caitriona O’Rourke
Charlotte Lee-Reeves
Rosemary AL Drake
Grant WW Cameron
A Jane Loughlin
James B Phillips
Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration
Journal of Tissue Engineering
author_facet Caitriona O’Rourke
Charlotte Lee-Reeves
Rosemary AL Drake
Grant WW Cameron
A Jane Loughlin
James B Phillips
author_sort Caitriona O’Rourke
title Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration
title_short Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration
title_full Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration
title_fullStr Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration
title_full_unstemmed Adapting tissue-engineered in vitro CNS models for high-throughput study of neurodegeneration
title_sort adapting tissue-engineered in vitro cns models for high-throughput study of neurodegeneration
publisher SAGE Publishing
series Journal of Tissue Engineering
issn 2041-7314
publishDate 2017-03-01
description Neurodegenerative conditions remain difficult to treat, with the continuing failure to see therapeutic research successfully advance to clinical trials. One of the obstacles that must be overcome is to develop enhanced models of disease. Tissue engineering techniques enable us to create organised artificial central nervous system tissue that has the potential to improve the drug development process. This study presents a replicable model of neurodegenerative pathology through the use of engineered neural tissue co-cultures that can incorporate cells from various sources and allow degeneration and protection of neurons to be observed easily and measured, following exposure to neurotoxic compounds – okadaic acid and 1-methyl-4-phenylpyridinium. Furthermore, the technology has been miniaturised through development of a mould with 6 mm length that recreates the advantageous features of engineered neural tissue co-cultures at a scale suitable for commercial research and development. Integration of human-derived induced pluripotent stem cells aids more accurate modelling of human diseases, creating new possibilities for engineered neural tissue co-cultures and their use in drug screening.
url https://doi.org/10.1177/2041731417697920
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