Some insects can flap their wings so rapidly that it’s impossible for instructions from their brains to entirely control the behaviour. Building tiny flapping robots has helped researchers shed light ...

A computer model from Cornell University makes it easier to develop stably flying flapping robots.

Bio-inspired wind sensing using strain sensors on flexible wings could revolutionize robotic flight control strategy. Researchers at Institute of Science Tokyo have developed a method to detect wind ...

Robots helped achieve a major breakthrough in our understanding of how insect flight evolved. The study is a result of a six-year long collaboration between roboticists and biophysicists. Robots built ...

(Nanowerk News) Engineers have long sought to unlock the secrets behind insects' uncanny flight abilities and agility in hopes of creating a new class of tiny yet capable flying robots. These flapping ...

Inspired by the remarkable flight capabilities of birds, bats, and insects, flapping-wing robotics represents one of the most promising frontiers in bio-inspired aerial systems, demonstrating enhanced ...

Scientists have created a flying robot inspired by how a rhinoceros beetle flaps its wings to take off. The concept is based on how some birds, bats, and other insects tuck their wings against their ...

Different insects flap their wings in different manners. Understanding the variations between these modes of flight may help scientists design better and more efficient flying robots in the future.

A teeny robot designed to replicate the wing dynamics of rhinoceros beetles could be well-suited for search-and-rescue missions, as well as spying on real insects, according to researchers at ...

And while it may look like a flapping-wing robot, it actually flies via a combination of two semi-fixed wings and a propeller. RAVEN's real selling point, though, is its multi-jointed legs. Although ...