IARPA in the News


Fast control of a strong optical beam by a few photons is an outstanding challenge that limits the performance of quantum sensors and optical processing devices. We report that a fast and efficient optical gate can be realized in an optical fiber that has been engineered with molecular-scale accuracy.

Federal Computer Week

The Intelligence Advanced Research Projects Activity (IARPA) is looking for ways to measure brainpower, with an eye to understanding how an individual might adapt to future job demands.


One time I drove five hours out of my way on a road trip to Monument Valley, only to be devastated when I arrived. Instead of the bright red buttes I'd envisioned against a clear blue sky, a gray haze had settled into the valley, rendering the landscape flat and lifeless. My photographs could have been saved by a new app that can add sun and light to images with simple text commands.


Have you ever found yourself overlooking a stunning vista or landscape, only to find that Instagrams bundle of filters don't do the beautiful scene justice? A group of researchers want to change that.


After analyzing thousands of webcam snapshots of landscapes in various weather conditions, computer scientists at Brown University have developed a system that can automatically change the appearance of weather in nearly any outdoor photo.

SIGNAL Magazine

We’ve all seen those scenes in spy movies where intelligence analysts scrutinize a photograph, looking at the buildings, the plants, vehicles or visible wildlife to deduce where the picture was taken because, of course, doing so is critical to discovering the bad guy’s whereabouts and saving the planet. In real-life, the Intelligence Advanced Research Projects Activity (IARPA) Finder program is designed to help analysts locate non-geotagged imagery, whether photographs or video.


Many quantum phenomena are too complicated to be modelled on conventional computers. Quantum simulations, in which a simple and controllable quantum system models a more complicated one, are emerging as a viable alternative. Here, Andrew Wilson and colleagues describe a new controllable scheme for quantum entanglement that can emulate spin–spin interactions using two trapped ions. Further developments incorporating this technology in arrays of perhaps tens of ions may be sufficiently powerful to achieve quantum simulations of exotic condensed matter phenomena like the quantum Hall effect.