In an age of increasingly advanced robotics, one team has well and truly bucked the trend, instead finding inspiration within the pinhead-sized brain of a tiny flying insect in order to build a robot ...
AZoRobotics on MSN
Robotic Insects Move Closer to Real-World Pollination
In the future, farmers could grow fruits and vegetables in multilevel warehouses with the help of more efficient methods for ...
The Brighterside of News on MSN
Tiny flapping drone matches insect speed with an AI brain
Tiny drones could one day crawl through collapsed buildings to help find survivors after earthquakes. These micro-robots, ...
One of the most commonly suggested uses for tiny robots is the search for trapped survivors in disaster site rubble. The insect-inspired CLARI robot could be particularly good at doing so, as it can ...
Tiny microrobots are learning to fly with insect-like speed and control, thanks to new AI-driven technology developed at MIT.
TwistedSifter on MSN
The future of warfare may include swarms of robotic insects and other tiny animals according to investments from DARPA
A larger beetle, for example, may be able to transport heavier things like HD cameras, microphones, or possibly even ...
Insects in nature not only possess amazing flying skills but also can attach to and climb on walls of various materials. Insects that can perform flapping-wing flight, climb on a wall, and switch ...
Inspired by nature's adaptability, researchers at CU Boulder have developed CLARI, short for Compliant Legged Articulated Robotic Insect, a versatile robot capable of altering its shape to navigate ...
A tiny micro-robotic insect wing hangs off the front of a circuit board. The idea of being a “fly on the wall” in an enemy headquarters has been a goal of intelligence agencies for as long as there ...
A little bug-inspired robot created by a team of engineers at the University of Colorado Boulder has the potential to someday aid first responders during disasters. The robot’s name is CLARI, which ...
A 301 mg soft robot jumps continuously under constant light without batteries or electronics, using snap-through buckling and self-shadowing to create an autonomous feedback loop.
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.
Some results have been hidden because they may be inaccessible to you
Show inaccessible results