The way bugs and birds flap their wings may look effortless, but the dynamics that keep them aloft are dizzyingly complex and difficult to quantify. Cornell researchers have created a computational ...

As an emerging frontier in biomimetic intelligent microsystems, insect-scale flapping-wing micro aerial vehicles (FWMAVs) demonstrate significant application potential due to their exceptional ...

Particle guidance by the flapping of flightless silkworm moths was quantified by computational fluid dynamic analyses. (a) The flapping silkworm moths were filmed by two high-speed cameras (1,000 fps) ...

Bio-inspired wind sensing using strain sensors on flexible wings could revolutionize robotic flight control strategy. Researchers have developed a method to detect wind direction with 99% accuracy ...

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 ...

A research team at Cornell University has developed a computer model that maps the complex physical influences on the stable flight of birds and insects. The model can be used to build flapping robots ...

The Hindu’s weekly Science for All newsletter explains all things Science, without the jargon. They are vital for the yield of food crops and for the reproduction of wild flowering plants. But ...