Close Menu
    Facebook X (Twitter) Instagram
    SciTechDaily
    • Biology
    • Chemistry
    • Earth
    • Health
    • Physics
    • Science
    • Space
    • Technology
    Facebook X (Twitter) Pinterest YouTube RSS
    SciTechDaily
    Home»Biology»Biologists Grow a Living Organ from Lab-Created Cells
    Biology

    Biologists Grow a Living Organ from Lab-Created Cells

    By University of EdinburghAugust 25, 2014No Comments3 Mins Read
    Facebook Twitter Pinterest Telegram LinkedIn WhatsApp Email Reddit
    Share
    Facebook Twitter LinkedIn Pinterest Telegram Email Reddit

    Scientists from the MRC Center for Regenerative Medicine at the University of Edinburgh have grown a fully functional organ from scratch in a living animal by transplanting cells that were originally created in a laboratory. The research could aid in the future development of ‘lab-grown’ replacement organs.

    Scientists have grown a fully functional organ from transplanted laboratory-created cells in a living animal for the first time.

    The researchers have created a thymus – an organ next to the heart that produces immune cells known as T cells that are vital for guarding against disease. They hope that, with further research, the discovery could lead to new treatments for people with a weakened immune system.

    The team from the MRC Center for Regenerative Medicine at the University of Edinburgh took cells called fibroblasts from a mouse embryo. They turned the fibroblasts into a completely different type of cell called thymus cells, using a technique called reprogramming.

    The reprogrammed cells changed shape to look like thymus cells and were also capable of supporting development of T cells in the lab – a specialized function that only thymus cells can perform.

    When the researchers mixed reprogrammed cells with other key thymus cell types and transplanted them into a mouse, the cells formed a replacement organ. The new organ had the same structure, complexity, and function as a healthy adult thymus.

    It is the first time that scientists have made an entire living organ from cells that were created outside of the body by reprogramming.

    Doctors have already shown that patients with thymus disorders can be treated with infusions of extra immune cells or transplantation of a thymus organ soon after birth. The problem is that both are limited by a lack of donors and problems matching tissue to the recipient.

    With further refinement, the researchers hope that their lab-grown cells could form the basis of a thymus transplant treatment for people with a weakened immune system.

    The technique may also offer a way of making patient-matched T cells in the laboratory that could be used in cell therapies.

    Such treatments could benefit bone marrow transplant patients, by helping speed up the rate at which they rebuild their immune system after transplant.

    The discovery offers hope to babies born with genetic conditions that prevent the thymus from developing properly. Older people could also be helped as the thymus is the first organ to deteriorate with age.

    The study is published today in the journal Nature Cell Biology.

    Reference: “An organized and functional thymus generated from ​FOXN1-reprogrammed fibroblasts” by Nicholas Bredenkamp, Svetlana Ulyanchenko, Kathy Emma O’Neill, Nancy Ruth Manley, Harsh Jayesh Vaidya and Catherine Clare Blackburn, 24 August 2014, Nature Cell Biology.
    DOI: 10.1038/ncb3023

    Image: University of Edinburgh

    Never miss a breakthrough: Join the SciTechDaily newsletter.
    Follow us on Google and Google News.

    Cell Biology University of Edinburgh
    Share. Facebook Twitter Pinterest LinkedIn Email Reddit

    Related Articles

    Scientists Unravel Key to the Centromere’s Eternal Life, Solving Decades-Old Mystery

    Why Do Some Men Not Produce Sperm?

    Optogenetics Regulates Metabolic Activity in the Membranes of Cells

    New Imaging Technique Reveals Possible Plan of Attack for Bacterial Diseases

    Beige Fat May Have Therapeutic Potential for Treating Obesity

    Ajuba Regulates Stem Cell Activity in the Heart

    The Mechanics of Cellular Wound Healing

    Researchers Identify BAD as Key Seizure-Suppressing Protein

    DNA Jumps Directly From the Cell’s Chloroplasts Into Its Nucleus

    Leave A Reply Cancel Reply

    • Facebook
    • Twitter
    • Pinterest
    • YouTube

    Don't Miss a Discovery

    Subscribe for the Latest in Science & Tech!

    Trending News

    First-of-Its-Kind Discovery: Homer’s Iliad Found Embedded in a 1,600-Year-Old Egyptian Mummy

    Beyond Inflammation: Scientists Uncover New Cause of Persistent Rheumatoid Arthritis

    A Simple Molecule Could Unlock Safer, Easier Weight Loss

    Scientists Just Built a Quantum Battery That Charges Almost Instantly

    Researchers Unveil Groundbreaking Sustainable Solution to Vitamin B12 Deficiency

    Millions of People Have Osteopenia Without Realizing It – Here’s What You Need To Know

    Researchers Discover Boosting a Single Protein Helps the Brain Fight Alzheimer’s

    World-First Study Reveals Human Hearts Can Regenerate After a Heart Attack

    Follow SciTechDaily
    • Facebook
    • Twitter
    • YouTube
    • Pinterest
    • Newsletter
    • RSS
    SciTech News
    • Biology News
    • Chemistry News
    • Earth News
    • Health News
    • Physics News
    • Science News
    • Space News
    • Technology News
    Recent Posts
    • Mezcal “Worm” in a Bottle Mystery: DNA Testing Reveals a Surprise
    • Scientists Turn Red Lettuce Green, Unlocking Hidden Nutrients
    • Researchers Discover Natural Compound That Disarms Deadly Superbug
    • New Research Reveals That Your Morning Coffee Activates an Ancient Longevity Switch
    • Researchers Identify the Most Common Recessive Neurodevelopmental Disorder Ever Discovered
    Copyright © 1998 - 2026 SciTechDaily. All Rights Reserved.
    • Science News
    • About
    • Contact
    • Editorial Board
    • Privacy Policy
    • Terms of Use

    Type above and press Enter to search. Press Esc to cancel.