In partnership with NASA, [Google] announced the Quantum A.I. Lab, a place where researchers from around the world can experiment with the incredible powers and possibilities of quantum computing.
Dye-coloured nanoparticles, or nanotags, can be added to objects in varnishes or inks. A scanner is then used to detect them and determine their vibrational spectrum, like fingerprints.
Despite our successes at describing the inner workings of the universe (Higgs, anyone?), there are still some gaping holes in our knowledge. Where's our Grand Unified Theory or our Theory of Everything? And why is Einstein's General Relativity still at odds with Quantum Mechanics? Why should we want to unify them anyway?
Physicists at the University of Hamburg managed for the first time to individually write and delete single skyrmions, a knot-like magnetic entity. Such vortex-shaped magnetic structures exhibit unique properties which make them promising candidates for future data storage devices. Skyrmions have been in the focus of active research for the last years; however, up to now these states have been merely investigated, a controlled manipulation has not been achieved.
In a newly published study, engineers from Monash University detail a new strategy to engineer graphene-based supercapacitors, making them viable for widespread use in renewable energy storage, portable electronics and electric vehicles.
Google bought one. And so did Lockheed Martin, one of the planet's largest defense contractors. But we still can't agree on what it is. D-Wave, the company that built the thing, calls it the world's first quantum computer, a seminal creation that foretells the future of mathematical calculation.
...the technique was able to produce a spaceship (from the Wing Commander line of video games) from a CAD file that measures 125µm x 81µm x 26.8µm (on the order of the width of a human hair) in less than 50 seconds.
Silicene is more exciting than graphene because, technically, it should be compatible with silicon-based electronics and the huge, existing semiconductor fabrication processes.
The nanoparticles are packaged to imitate components of cells and nutrients so that the cancer cells are lulled into accepting the dosage.
UCLA researchers demonstrate high-performance graphene-based electrochemical capacitors that maintain excellent electrochemical attributes under high mechanical stress.