A tiny robot caterpillar which can walk through the body delivering drugs has been designed by scientists.
The little silicon robot has hundreds of legs which are just 1mm long and is embedded with magnetic particles so it can be guided to a specific site using an electromagnet.
Fiberglass is a double-edged sword. It’s an excellent building material because it’s strong and durable, plus it’s easy to mold into pretty much any shape. But fiberglass’ thin strands often cause skin irritation, vision issues, and breathing problems for humans that come into contact with it.
How can we take advantage of fiberglass’ excellent structural properties without putting human health at risk? Why, robots of course!
At least now you don't have to complete that ridiculous New Year's resolution you set yourself...
US engineers believe a material called MXene could unlock the potential of smart, connected technology.
In research published in the journal Science Advances, a team from Drexel University College of Engineering in Philadelphia, US, reports on a method for spraying invisibly thin antennas made from a two-dimensional metallic material called MXene, which, the researchers say, perform as well as those currently used in mobile devices, wireless routers and portable transducers.
ellyfish float through the ocean like drones of the sea. Their simple nature makes them a natural muse for robot engineers building devices that can squeeze through tight spaces, check the ocean’s health, and eventually, explore the human body.
When you think of robotics, you likely think of something rigid, heavy, and built for a specific purpose. New “Robotic Skins” technology developed by Yale researchers flips that notion on its head, allowing users to animate the inanimate and turn everyday objects into robots.
A research project from the Delft University of Technology in the Netherlands created the latest iteration of the DelFly robot called the Nimble. It’s a super agile robot with a quad-wing flapping system, and it’s capable of flying just as nimbly as a real winged insect.
A team of semiconductor researchers based in France has used a boron nitride separation layer to grow indium gallium nitride (InGaN) solar cells that were then lifted off their original sapphire substrate and placed onto a glass substrate.
By combining the InGaN cells with photovoltaic (PV) cells made from materials such as silicon or gallium arsenide, the new lift-off technique could facilitate fabrication of higher efficiency hybrid PV devices able to capture a broader spectrum of light. Such hybrid structures could theoretically boost solar cell efficiency as high as 30 percent for an InGaN/Si tandem device.
Lockheed Martin and Drone Racing League (DRL) announced an innovation competition, challenging teams to develop artificial intelligence (AI) technology that will enable an autonomous drone to race a pilot-operated drone – and win. Participating teams will compete in a series of challenges for their share of over $2 million in prizes.
Lockheed Martin Chief Technology Officer Keoki Jackson announced the challenge at TechCrunch Disrupt San Francisco, kicking off a multi-year partnership with DRL, the global professional circuit for drone racing. The AlphaPilot Innovation Challenge will enlist university students, technologists, coders and drone enthusiasts to push the boundaries of AI, machine learning (ML) and fully autonomous flight.
Fisker recently started another eponymous car company — this time called Fisker, Inc. — that is focused on all-electric vehicles. And while he flirted with using LG’s automotive lithium-ion batteries to power his forthcoming electric supercar, dubbed “Emotion,” Fisker tells The Verge his new company is now just a few months away from putting the finishing touches on the final design for a scalable solid-state battery that will power the sedan instead.