Scaling up biohybrid robots has been difficult due to the weak contractile force of lab-grown muscles, the risk of necrosis in thick muscle tissues, and the challenge of integrating biological ...
Now, a team at Johns Hopkins University has recreated these perks in a life-like prosthetic robot hand. At its core is a 3D-printed skeleton. Each finger has three independently controlled joints made ...
The findings were published in Science Robotics, showcasing the potential of integrating biological systems with robotic frameworks. The biohybrid hand operates using “MuMuTAs” (multiple muscle tissue ...
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