PET PET
  • My Account
  • Subscribe
Become a Friend Donate
  • About Us
    • People
    • Press Office
    • Our History
  • Get Involved
    • Become a Friend of PET
    • Volunteer
    • Campaigns
    • Writing Scheme
    • Partnership and Sponsorship
    • Advertise with Us
  • Donate
    • Become a Friend of PET
  • BioNews
    • News
    • Comment
    • Reviews
    • Elsewhere
    • Topics
    • Glossary
    • Newsletters
  • Events
    • Upcoming Events
    • Previous Events
  • Engagement
    • Policy and Projects
      • Resources
    • Education
  • Jobs & Opportunities
  • Contact Us
  • About Us
    • People
    • Press Office
    • Our History
  • Get Involved
    • Become a Friend of PET
    • Volunteer
    • Campaigns
    • Writing Scheme
    • Partnership and Sponsorship
    • Advertise with Us
  • Donate
    • Become a Friend of PET
  • BioNews
    • News
    • Comment
    • Reviews
    • Elsewhere
    • Topics
    • Glossary
    • Newsletters
  • Events
    • Upcoming Events
    • Previous Events
  • Engagement
    • Policy and Projects
      • Resources
    • Education
  • Jobs & Opportunities
  • Contact Us
  • My Account
  • Subscribe
  • Privacy Statement
  • Advertising Policy
  • Thanks and Acknowledgements
PETBioNewsNewsSkin cells reprogrammed to create retina cells

BioNews

Skin cells reprogrammed to create retina cells

Published 3 September 2009 posted in News and appears in BioNews 524

Author

Dr Will Fletcher

Image by Sílvia Ferreira, Cristina Lopo and Eileen Gentleman via the Wellcome Collection. Depicts a single human stem cell embedded within a porous hydrogel matrix (false colour).
CC BY 4.0
Image by Sílvia Ferreira, Cristina Lopo and Eileen Gentleman via the Wellcome Collection. Depicts a single human stem cell embedded within a porous hydrogel matrix (false-coloured cryogenic scanning electron micrograph).

Light-sensing retinal eye cells have been grown from human skin cells for the first time. This raises the future possibility of restoring vision to patients with retinas damaged by certain degenerative diseases, by growing rescue or repair cells from the patient's skin...

Light-sensing retinal eye cells have been grown from human skin cells for the first time. This raises the future possibility of restoring vision to patients with retinas damaged by certain degenerative diseases, by growing rescue or repair cells from the patient's skin. In the shorter term, the breakthrough will further research on genetically-linked eye disorders. For example, scientists will be able to cultivate retinal cells with a chosen genetic defect and then use them to screen potential new drugs that might treat or cure a given condition. The team, from the University of Wisconsin, US, published their research in the August issue of Proceedings of the National Academy of Sciences.


Many genetic conditions lead to degeneration of the retina resulting in partial or complete loss of vision. Two such conditions are retinitis pigmentosa and macular degeneration (affecting an estimated one million people worldwide), both of which lead to a narrowed visual field, and eventual loss of sight. 'In particular these diseases are quite devastating to the patients who are affected by them,' stated David Gamm, an assistant professor of ophthalmology and visual sciences at the University of Wisconsin and lead researcher on the study. 'They rob them of their vision either when they are younger, in the case of retinitis pigmentosa, or when they are older, in the case of macular degeneration. And there are no cures and very few if any treatments for them.' Gamm says his research could benefit people who have these conditions.


His team successfully grew multiple types of retinal cells from both induced pluripotent stem cells (iPS cells), derived from human skin cells as well as the more traditional embryonic stem cells - both of which have the capability of growing in to almost every kind of cell in the body. 'This is an important step forward for us, as it not only confirms that multiple retinal cells can be derived from human iPS cells using the Wisconsin approach, but also shows how similar the process is to normal human retinal development,' said Gamm. 'That is quite remarkable given that the starting cell is so different from a retinal cell and the whole process takes place in a plastic dish.' These cultivated retinal cells could be used to screen new drugs, or even replace damaged retinal cells, in theory.


Gamm believes the same technique can be used to help scientists find treatments for other genetic diseases that affect different parts of the body. 'Now we could take theoretically any human disease, especially those that have specific gene defects underlying them, and produce cell types of interest in those diseases and test them directly for the efficacy of various drugs or how in fact those cells die in disease,' he said.

Related Articles

Image by Peter Artymiuk via the Wellcome Collection. Depicts the shadow of a DNA double helix, on a background that shows the fluorescent banding of the output from a DNA sequencing machine.
CC BY 4.0
Image by Peter Artymiuk via the Wellcome Collection. Depicts the shadow of a DNA double helix, on a background that shows the fluorescent banding of the sequencing output from an automated DNA sequencing machine.
News
5 March 2013 • 2 minutes read

Single genetic tweak allows scientists to transform skin cells into brain cells

by Dr Vikki Burchell

Skin cells have been transformed into working brain cells thanks to the introduction of a single gene. Previous studies used several genetic factors and chemicals to perform the same feat but scientists in the USA report that just one gene, Sox2, is sufficient...

Image by K Hardy via the Wellcome Collection. Depicts a human embryo at the blastocyst stage (about six days after fertilisation) 'hatching' out of the zona pellucida.
CC BY 4.0
Image by K Hardy via the Wellcome Collection. Depicts a human embryo at the blastocyst stage (about six days after fertilisation) 'hatching' out of the zona pellucida.
News
25 October 2012 • 2 minutes read

Mouse retina grown from stem cells

by Dr Rachael Panizzo

Embryonic stem cells have been used to generate a basic retina, the part of the eye that detects light and is needed for vision. The retinal tissue could be used to treat some forms of blindness, such as retinitis pigmentosa and age-related macular degeneration, and to investigate and screen potential new drugs for a range of eye diseases....

Image by K Hardy via the Wellcome Collection. Depicts a human embryo at the blastocyst stage (about six days after fertilisation) 'hatching' out of the zona pellucida.
CC BY 4.0
Image by K Hardy via the Wellcome Collection. Depicts a human embryo at the blastocyst stage (about six days after fertilisation) 'hatching' out of the zona pellucida.
News
28 October 2009 • 2 minutes read

Scientists demonstrate progress in stem cell therapies to repair damaged sight

by Dr Antony Starza-Allen

Clinical studies presented at the annual meeting of the Society for Neuroscience in the United States have shown that stem cells may be used effectively in the treatment of eye disease and other retinal damage. As reported by Science Daily, in separate trials researchers demonstrated that fetal cells and retinal precursor cells derived from embryonic stem cells and also those developed using iPS (induced pluripotent stem) cells can help regenerate damaged areas of...

Image by Sílvia Ferreira, Cristina Lopo and Eileen Gentleman via the Wellcome Collection. Depicts a single human stem cell embedded within a porous hydrogel matrix (false colour).
CC BY 4.0
Image by Sílvia Ferreira, Cristina Lopo and Eileen Gentleman via the Wellcome Collection. Depicts a single human stem cell embedded within a porous hydrogel matrix (false-coloured cryogenic scanning electron micrograph).
News
27 July 2009 • 2 minutes read

iPS stem cells repair damaged mouse hearts

by Dr Will Fletcher

Induced pluripotent stem (iPS) cells have been used to repair damaged heart tissue in mice by a team from the Mayo Clinic in Rochester, Minnesota, US. iPS cells are adult cells that are reprogrammed to act like embryonic stem cells - in this case the iPS cells were derived from ordinary fibroblasts (cells that contribute to scars such as those resulting from a heart attack). When the cells were injected into mice whose hearts had been damaged by a heart attack they improved both...

Image by Sílvia Ferreira, Cristina Lopo and Eileen Gentleman via the Wellcome Collection. Depicts a single human stem cell embedded within a porous hydrogel matrix (false colour).
CC BY 4.0
Image by Sílvia Ferreira, Cristina Lopo and Eileen Gentleman via the Wellcome Collection. Depicts a single human stem cell embedded within a porous hydrogel matrix (false-coloured cryogenic scanning electron micrograph).
News
24 July 2009 • 3 minutes read

Reprogrammed mouse skin cells yield mice that can breed

by Dr Will Fletcher

Chinese scientists have created 27 healthy mice from reprogrammed cells known as induced pluripotent stem (iPS) cells. The iPS cells were reprogrammed from adult mouse skin cells by modifying four key genes using retroviruses, turning them into an embryo-like state. iPS cells are a hot research topic at present as they offer the prospect of a limitless supply of an individual's own stem cells if the technique is replicated in humans, potentially avoiding the pitfal...

Image by Alan Handyside via the Wellcome Collection. Depicts a human egg soon after fertilisation, with the two parental pronuclei clearly visible.
CC0 1.0
Image by Alan Handyside via the Wellcome Collection. Depicts a human egg soon after fertilisation, with the two parental pronuclei clearly visible.
News
9 June 2009 • 2 minutes read

Adult stem cells may lead to new infertility treatment

by Dr Will Fletcher

A special class of adult stem cells, known as human induced pluripotent stem (iPS) cells, has for the first time been reprogrammed into cells that develop into human eggs and sperm. The research, carried out by members of the University of California, Los Angeles (UCLA)'s Broad...

Leave a Reply Cancel reply

You must be logged in to post a comment.

« First baby conceived from screened egg is born

Data-Label The UK's Leading Supplier Of Medical Labels & Asset Labels

RetiringDentist.co.uk The UK's Leading M&A Company.
easyfundraising
amazon

This month in BioNews

  • Popular
  • Recent
13 June 2022 • 2 minutes read

Drop in diversity of blood stem cells leads to old-age health issues

27 June 2022 • 2 minutes read

UK report reveals public attitudes to fertility, genomics and embryo research

27 June 2022 • 2 minutes read

Shortage of sperm donors despite men willing to donate

27 June 2022 • 2 minutes read

North East London CCG proposes offering three funded IVF cycles

27 June 2022 • 2 minutes read

Fibrosis drugs reverse ovarian ageing in mice

27 June 2022 • 2 minutes read

Gene implicated in motor neurone diseases discovered

Subscribe to BioNews and other PET updates for free.

Subscribe
  • Twitter
  • Facebook
  • Instagram
  • LinkedIn
  • YouTube
  • RSS
Wellcome
Website redevelopment supported by Wellcome.

Website by Impact Media Impact Media

  • Privacy Statement
  • Advertising Policy
  • Thanks and Acknowledgements

© 1992 - 2022 Progress Educational Trust. All rights reserved.

Limited company registered in England and Wales no 07405980 • Registered charity no 1139856

Subscribe to BioNews and other PET updates for free.

Subscribe
PET PET

PET is an independent charity that improves choices for people affected by infertility and genetic conditions.

  • Twitter
  • Facebook
  • Instagram
  • LinkedIn
  • YouTube
  • RSS
Wellcome
Website redevelopment supported by Wellcome.

Navigation

  • About Us
  • Get Involved
  • Donate
  • BioNews
  • Events
  • Engagement
  • Jobs & Opportunities
  • Contact Us

BioNews

  • News
  • Comment
  • Reviews
  • Elsewhere
  • Topics
  • Glossary
  • Newsletters

Other

  • My Account
  • Subscribe

Website by Impact Media Impact Media

  • Privacy Statement
  • Advertising Policy
  • Thanks and Acknowledgements

© 1992 - 2022 Progress Educational Trust. All rights reserved.

Limited company registered in England and Wales no 07405980 • Registered charity no 1139856