Octopus suckers are like stretchy hands that can hold onto anything. These are made of living tissue, allowing them to adjust their shape and strength to suit the object they’re handling.

“What is just as interesting, though, is that the octopus controls over 2,000 suckers across eight arms by processing information from diverse chemical and mechanical sensors.

The glove reimagines an octopus’s sucker that can reliably latch on to objects using light pressure, ... “It makes handling wet or underwater objects much easier and more natural.

Scientists inspired by the octopus's nervous system have developed a robot that can decide how to move or grip objects by sensing its environment. The team from the University of Bristol's Faculty ...

Scientists have developed a glove for gripping underwater objects that takes its design cues from an octopus, featuring rubber suckers and a sophisticated sensing capability that mimic the sea ...

The researchers then connected the suckers and LIDAR through a microcontroller for real-time object detection and adhesion control. Glove with synthetic suckers and sensors. Underwater, an octopus ...

The suckers and LIDAR were then connected through a microcontroller to pair the object sensing with the sucker engagement, thus mimicking the nervous and muscular systems of an octopus.

Bristol Robotics Laboratory have unveiled an innovative adaptive robot suction mechanism inspired by the octopus sucker. ... to even greater adaptability and precision in robotic handling tasks.

This wetsuit glove equipped with octopus-inspired suckers can stick to both curved and flat objects made of different materials. Photo by Alex Parrish for Virginia Tech. Share this: ...

And, of course, each arm is studded with suckers, all of which an octopus can control independently—to the extent of changing individual suckers’ shape as required—and all of which can also ...

The architecture of the octopus nervous system, showing (f) the arm, (g) the nerves of the suckers, (h) the axial nerve cord and (i) the neuronal segmentation. (Olson et al., Nat. Commun. , 2025) ...

Scientists inspired by the octopus's nervous system have developed a robot that can decide how to move or grip objects by sensing its environment.