Artificial muscles enable robotic leg to walk and jump autonomously
Scientists at the Max Planck Institute have developed artificial muscles that allow a robotic leg to walk and jump. These muscles are lightweight, powerful, and flexible, mimicking natural muscle movement. The robotic leg can perform complex actions with efficiency and speed, representing a significant advance in the field of soft robotics and autonomous systems. This breakthrough has potential applications in prosthetics, rehabilitation, and robotics.
https://is.mpg.de/news/artificial-muscles-propel-a-robotic-leg-to-walk-and-jump
Electrohydraulic robotic leg offers agility, adaptability, and energy efficiency
A study published in Nature Communications describes a robotic leg driven by electrohydraulic artificial muscles, mimicking musculoskeletal architecture. The leg demonstrates energy-efficient and adaptive locomotion, including dynamic hopping and self-sensing capabilities. It can adjust stiffness and perform high-frequency motions while consuming minimal energy, offering significant improvements over conventional motor-driven systems. This technology opens up new possibilities for agile, adaptive robots capable of navigating unstructured environments.
https://www.nature.com/articles/s41467-024-51568-3
Researchers have made significant advancements in robotics by developing artificial muscles capable of mimicking human muscle movement. These new muscles are lightweight, powerful, and can be used in various robotic applications, including prosthetics and autonomous machines. This innovation marks a critical step in creating more agile and efficient robots, enhancing their capacity to perform complex tasks with greater precision and flexibility.
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