The University of Manchester is to lead a consortium to build the next generation of robots that are more durable and perceptive for use in nuclear sites.
A semiautonomous robot may soon be roaming agricultural fields gathering and transmitting real-time data about the growth and development of crops, information that crop breeders—and eventually farmers—can use to identify the genetic traits in plants likely to produce the greatest yields.
Creating tiny muscle-powered robots that can walk or swim by themselves—or better yet, when prompted—is more complicated than it looks.
When vertebrates run, their legs exhibit minimal contact with the ground. But insects are different. These six-legged creatures run fastest using a three-legged, or "tripod" gait where they have three legs on the ground at all times - two on one side of their body and one on the other. The tripod gait has long inspired engineers who design six-legged robots, but is it necessarily the fastest and most efficient way for bio-inspired robots to move on the ground?
In the operating room of the future, robots will be an integral part of the surgical team, working alongside human surgeons to make surgeries safer, faster, more precise and more automated. In the lab of electrical engineering professor Michael Yip at the University of California San Diego, engineers are developing advanced robotic systems that could make this vision a reality.
If you've been dreaming for years about having your own R2-D2 or BB-8, get ready. Just don't expect your new robot companion to do too much, because you might be disappointed.
Inspired by his belief that human beings are essentially terrified of robots, Ben Russell set about charting the evolution of automatons for an exhibition he hopes will force people to think about how androids and other robotic forms can enhance their lives.
Bats have long captured the imaginations of scientists and engineers with their unrivaled agility and maneuvering characteristics, achieved by functionally versatile dynamic wing conformations as well as more than forty active and passive joints on the wings. However, their wing flexibility and complex wing kinematics pose significant technological challenges for robot modelling, design, and control.
Engineers at MIT have fabricated transparent, gel-based robots that move when water is pumped in and out of them. The bots can perform a number of fast, forceful tasks, including kicking a ball underwater, and grabbing and releasing a live fish.