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Scientists Grow World’s First Fully Functioning Human Skin with Blood Supply in Lab

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In a groundbreaking development, scientists at the University of Queensland have grown the world’s first fully functioning human skin in the laboratory—complete with its own blood supply, hair follicles, nerves, immune cells, and layered tissue. This breakthrough promises to transform our understanding and treatment of skin diseases, grafts, and wound healing


What Makes This Skin Extraordinary?

Research led by Dr. Abbas Shafiee and Professor Kiarash Khosrotehrani at UQ’s Frazer Institute achieved a highly realistic 3D skin organoid by reprogramming human skin cells into stem cells and engineering vascular networks.
This organoid replicates multiple skin components—blood vessels, capillaries, hair follicles, pigmentation, nerves, immune cells, and full tissue layers—far surpassing previous models that only mimicked a single cell layer.


Why This Matters

  • Better Disease Modeling: The lab-grown skin allows for more accurate study of rare genetic disorders like epidermolysis bullosa, psoriasis, atopic dermatitis, and scleroderma.
  • Improved Grafts for Burns and Wounds: While use in human patients remains a future goal, this tissue could dramatically improve outcomes—especially for burn victims and skin cancer survivors.
  • Safe Drug Development: Having vascularized, immune-equipped skin in the lab means medications and therapies can be tested more safely and effectively, minimizing risk for real patients.

Next Steps and Caution

  • The model took six years to develop and is currently confined to lab use. Clinical applications—including grafting—are still “down the track.”
  • Experts like Professor Allison Cowin caution that while the development is a powerful tool, there’s still much work before it becomes applicable to patients.

Conclusion

This lab-grown human skin with its own vasculature and functional components marks a historic breakthrough in regenerative medicine. It represents a critical stepping stone toward improved treatments for skin disorders, safer drug testing, and future personalized grafts—though more work lies ahead to translate this innovation to clinical practice.

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