A convenient protocol for establishing a human cell culture model of the outer retina.
A convenient protocol for establishing a human cell culture model of the outer retina.
The retinal pigment epithelium (RPE) plays a key role in the pathogenesis of several blinding retinopathies. Alterations to RPE structure and function are reported in Age-related Macular Degeneration, Stargardt and Best disease as well as pattern dystrophies. However, the precise role of RPE cells in disease aetiology remains incompletely understood. Many studies into RPE pathobiology have utilised animal models, which only recapitulate limited disease features. Some studies are also difficult to carry out in animals as the ocular space remains largely inaccessible to powerful microscopes. In contrast, in-vitro models provide an attractive alternative to investigating pathogenic RPE changes associated with age and disease. In this article we describe the step-by-step approach required to establish an experimentally versatile in-vitro culture model of the outer retina incorporating the RPE monolayer and supportive Bruch's membrane (BrM). We show that confluent monolayers of the spontaneously arisen human ARPE-19 cell-line cultured under optimal conditions reproduce key features of native RPE. These models can be used to study dynamic, intracellular and extracellular pathogenic changes using the latest developments in microscopy and imaging technology. We also discuss how RPE cells from human foetal and stem-cell derived sources can be incorporated alongside sophisticated BrM substitutes to replicate the aged/diseased outer retina in a dish. The work presented here will enable users to rapidly establish a realistic in-vitro model of the outer retina that is amenable to a high degree of experimental manipulation which will also serve as an attractive alternative to using animals. This in-vitro model therefore has the benefit of achieving the 3Rs objective of reducing and replacing the use of animals in research. As well as recapitulating salient structural and physiological features of native RPE, other advantages of this model include its simplicity, rapid set-up time and unlimited scope for detailed single-cell resolution and matrix studies.
Retinal Pigment Epithelium (RPE), In-vitro, Cell culture, Disease modelling, Retinopathy
Lynn, Savannah A.
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Keeling, Eloise
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Dewing, Jennifer
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Johnston, David
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Page, Anton M.
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Cree, Angela
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Tumbarello, David
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Newman, Tracey
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Lotery, Andrew
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Ratnayaka, J. Arjuna
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18 July 2018
Lynn, Savannah A.
177ed471-999b-4420-b6f6-d24a85b72524
Keeling, Eloise
3207bbdb-d391-44af-8abc-a60c08dce45b
Dewing, Jennifer
868fbf01-7b6e-499f-abf9-47409278373f
Johnston, David
b41163c9-b9d2-425c-af99-2a357204014e
Page, Anton M.
e315d159-536f-4d3d-83eb-5684ee42ada0
Cree, Angela
6724b71b-8828-4abb-971f-0856c2af555e
Tumbarello, David
75c6932e-fdbf-4d3c-bb4f-48fbbdba93a2
Newman, Tracey
322290cb-2e9c-445d-a047-00b1bea39a25
Lotery, Andrew
5ecc2d2d-d0b4-468f-ad2c-df7156f8e514
Ratnayaka, J. Arjuna
002499b8-1a9f-45b6-9539-5ac145799dfd
Lynn, Savannah A., Keeling, Eloise, Dewing, Jennifer, Johnston, David, Page, Anton M., Cree, Angela, Tumbarello, David, Newman, Tracey, Lotery, Andrew and Ratnayaka, J. Arjuna
(2018)
A convenient protocol for establishing a human cell culture model of the outer retina.
F1000Research, 7, [1107].
(doi:10.12688/f1000research.15409.1).
Abstract
The retinal pigment epithelium (RPE) plays a key role in the pathogenesis of several blinding retinopathies. Alterations to RPE structure and function are reported in Age-related Macular Degeneration, Stargardt and Best disease as well as pattern dystrophies. However, the precise role of RPE cells in disease aetiology remains incompletely understood. Many studies into RPE pathobiology have utilised animal models, which only recapitulate limited disease features. Some studies are also difficult to carry out in animals as the ocular space remains largely inaccessible to powerful microscopes. In contrast, in-vitro models provide an attractive alternative to investigating pathogenic RPE changes associated with age and disease. In this article we describe the step-by-step approach required to establish an experimentally versatile in-vitro culture model of the outer retina incorporating the RPE monolayer and supportive Bruch's membrane (BrM). We show that confluent monolayers of the spontaneously arisen human ARPE-19 cell-line cultured under optimal conditions reproduce key features of native RPE. These models can be used to study dynamic, intracellular and extracellular pathogenic changes using the latest developments in microscopy and imaging technology. We also discuss how RPE cells from human foetal and stem-cell derived sources can be incorporated alongside sophisticated BrM substitutes to replicate the aged/diseased outer retina in a dish. The work presented here will enable users to rapidly establish a realistic in-vitro model of the outer retina that is amenable to a high degree of experimental manipulation which will also serve as an attractive alternative to using animals. This in-vitro model therefore has the benefit of achieving the 3Rs objective of reducing and replacing the use of animals in research. As well as recapitulating salient structural and physiological features of native RPE, other advantages of this model include its simplicity, rapid set-up time and unlimited scope for detailed single-cell resolution and matrix studies.
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Accepted/In Press date: 18 July 2018
e-pub ahead of print date: 18 July 2018
Published date: 18 July 2018
Additional Information:
© 2018 Lynn SA et al
Keywords:
Retinal Pigment Epithelium (RPE), In-vitro, Cell culture, Disease modelling, Retinopathy
Identifiers
Local EPrints ID: 422619
URI: http://eprints.soton.ac.uk/id/eprint/422619
ISSN: 1759-796X
PURE UUID: 29be5a65-919f-4c51-8b23-e4eea729eb3e
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Date deposited: 26 Jul 2018 16:30
Last modified: 16 Mar 2024 04:40
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Author:
Savannah A. Lynn
Author:
Eloise Keeling
Author:
Jennifer Dewing
Author:
David Johnston
Author:
Anton M. Page
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