Page 3: Research news on Bioinspired soft robotics

Bioinspired soft robotics investigates compliant robotic systems that emulate the mechanics, morphology, and control strategies of animals and other biological organisms. The field develops artificial muscles, soft actuators, and mechanical metamaterials using polymers, hydrogels, liquid crystal elastomers, and textile or origami-based structures to achieve muscle-like motion, shape morphing, and adaptive stiffness. It spans scales from sub-millimeter microrobots to larger soft-bodied platforms, integrating sensing, flexible electronics, and biohybrid components for autonomous locomotion, manipulation, and interaction in complex environments, particularly in aquatic and terrestrial settings.

Robotics

How fish muscles became blueprints for smarter underwater robots

Researchers at the Intelligent Biomimetic Design Lab at Peking University have developed a bio-signal framework showing that fish muscles do far more than generate swimming motion. In a series of studies led by Xie Guangming, ...

Robotics

Tiny, knotted robots jump, fly and plant seeds

When a knot lets go, it doesn't just fall apart. It snaps. That simple observation led Penn Engineers to rethink what a knot can do. Instead of treating it as something that holds tension, they asked a different question: ...

Robotics

Simple robots inspired by ants collectively build and excavate

When it comes to teamwork, we could all learn something from ants. These relatively simple, small-brained animals are famous for their ability to collectively build massive, intricate, climate-controlled structures, despite ...

Robotics

Electrofluidic fiber muscles could enable silent robotic systems

Muscles are remarkably effective systems for generating controlled force, and engineers developing hardware for robots or prosthetics have long struggled to create analogs that can approach their unique combination of strength, ...

Robotics

Magnetic coil setup guides microrobots without seeing them

SMU researchers have created an electromagnetic coil system that can control microrobots without requiring continuous visual tracking of their position—a significant advancement that could enable microrobots to operate inside ...

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