Biomedical engineers have grown living skeletal muscle that looks a lot like the real thing. It contracts powerfully and rapidly, integrates into mice quickly, and for the first time, demonstrates the ...

Researchers in Japan have taken a major step forward in biohybrid robotics by developing a hand powered by lab-grown muscle tissue. A collaborative effort between the University of Tokyo and Waseda ...

Lab-grown muscle isn’t new. In 2013, a group of researchers created enough muscle to make a burger that they could eat. But until recently, researchers weren’t able to grow muscle that could contract ...

In a laboratory first, Duke researchers have grown human skeletal muscle that contracts and responds just like native tissue to external stimuli such as electrical pulses, biochemical signals and ...

Duke University researchers have grown a contracting human muscle in a lab and captured it on video. The muscle acts like one found inside the body would, responding to drugs, electrical pulses and ...

A team of researchers out of Duke University recently announced they’ve grown human skeletal muscle in a dish. The muscle responds to electrical impulses, biochemical signals, and drugs just like ...

The engineered muscle fibres were strong and could self-repair Scientists have grown living muscle in the lab that not only looks and works like the real thing, but also heals by itself - a ...

Serious sports injuries and disease can damage people's muscles and affect their quality of life. But now there is new hope as scientists have created living muscle that not only functions like the ...

WINSTON-SALEM, N.C. – July 16, 2012 – New research shows that exercise is a key step in building a muscle-like implant in the lab with the potential to repair muscle damage from injury or disease. In ...

Duke University researchers create living skeletal muscle that looks and acts very much like the real thing -- even down to repairing itself. Then they attack it. Freelancer Michael Franco writes ...

Researchers identified a molecular pathway that can limit muscle repair, a finding that may guide future muscular dystrophy treatments.