Skip to main content
  1. Home
  2. Emerging Tech
  3. News

Now an F-16 can launch a swarm of 3D-printed carbon fiber drones

Add as a preferred source on Google

While flying over an airfield in Alaska last June, an Air Force F-16 traveling 430 miles per hour casually launched a swarm of miniature drones directly from its flare dispenser. Measuring no bigger than an iPhone 6 Plus and weighing roughly 1 pound, these tiny drones (referred to as Perdix) exited the host fighter jet via small canisters outfitted with parachutes. During the descent, the canisters slowly unleashed the Perdix drones they were carrying, allowing the crafts to spread their wings and begin flying — entirely on their own.

Because this project comes from a secretive wing of the Pentagon, what the UAVs might do next (on a battlefield, that is) remains classified information. What is unclassified, however, is a short video published by the Department of Defense, depicting the action mentioned above. Though relatively brief, the video does provide some insight into the future of Air Force reconnaissance. For as tight-lipped as the Pentagon stands regarding the Perdix drone’s actual assignment, one could speculate they’d be used for inexpensive surveillance or as an anti-aircraft system decoy.

Recommended Videos

Developed by students at MIT, each Perdix drone is 3D-printed using Kevlar and carbon fiber and boasts electronics you’d typically find in an everyday cell phone — a lithium polymer battery, for instance. According to deputy defense secretary Bob Work, the Perdix craft has the ability to carry various payloads in the future and possesses the capability to communicate with its entire swarm while flying.

“Just imagine an airplane going in against an IAD (Integrated Air Defense) system and dropping 30 of these out that form into a network and do crazy things,” Work tells BreakingDefense.com. “We’ve tested this. We’ve tested it and it works.”

Though MIT students invented and created the idea for the Perdix drones, the Pentagon’s secretive Strategic Capabilities Office took the innovative tech and devised a way for it to launch via warplanes. Led by physicist William Roper, the small SCO team began running trials with the Perdix craft back in 2014 before undergoing the full-scale testing seen in Alaska last year. The likely end goal for SCO is to make the Perdix system much more effective and cost-friendly than traditional Miniature Air-Launch Decoys.

The MIT-designed Perdix drone
The MIT-designed Perdix drone MIT

“We don’t have to develop new planes,” Roper says. “We don’t have to develop fundamentally new weapons. But we have to work the integration and the concept of operation. And then you have a completely new capability, but you don’t have to wait long at all.”

Roper’s intention of taking existing technology and applying it in new areas is the backbone of the research conducted by the SCO. Not only has this allowed the organization to develop an innovative way to launch drones via an F-16, but it has dramatically saved the DoD an incredible amount of money. Whereas a typical Miniature Air-Launch Decoy may run $300,000 per unit, two years of testing with swarms of Perdix drones have cost the government just $20 million.

It’s unknown when exactly the Pentagon will deem the tech worthy enough for the U.S. Air Force to deploy full time, but the agency does plan on continued testing during 2016. If the Perdix continues to display a high level of effectiveness while keeping its operating costs relatively low, it’s likely they’ll be as prevalent aboard F-16s as its engine.

Rick Stella
Former Associate Editor, Outdoor
Rick became enamored with technology the moment his parents got him an original NES for Christmas in 1991. And as they say…
Home robots can already walk. The hard part is stopping them from crushing your glassware
1X’s NEO uses tactile sensing and force control to handle fragile objects, aiming at the kind of household work humanoids still struggle to do.
Baby, Person, Electronics

A robot can look convincing while walking across a stage and still be useless in a kitchen. Picking up a wet glass demands precision, quick corrections, and enough restraint to avoid squeezing too hard. 1X is tackling that problem with new tendon-driven hands for NEO, its humanoid home robot.

1X says each hand has 25 degrees of freedom, with 22 across the fingers and palm and another three in the wrist. Its joints can yield when pushed instead of staying rigid, giving NEO a better chance of handling household objects without treating every collision like a wrestling match.

Read more
This tiny gadget called Moodi could save your thumb during long reading sessions
This tiny remote thinks your finger deserves a vacation
DuRoBo Moodi

Digital reading has become more comfortable thanks to larger displays and e-paper screens, but one small annoyance remains: constantly reaching over to tap or swipe every page. DuRoBo believes it has a solution. The company has unveiled Moodi, its first Bluetooth page-turning remote, designed to make reading, browsing, and media control more comfortable across e-readers, tablets, and smartphones.

Unlike conventional page-turners that focus solely on e-books, Moodi doubles as a compact Bluetooth remote for scrolling through articles, controlling multimedia playback, and navigating long-form content. The device looks towards ergonomic accessories that aim to reduce repetitive hand movements during extended screen time.

Read more
Camera sensor breakthrough promises sharper images without hulking up your phone’s thickness
Camera sensors just got thinner. Your excuses for blurry photos didn't.
Representative Image

Researchers at Nagoya University have developed a new type of transparent optical sensor that could significantly reduce the size of camera sensors while improving image quality. Published in the journal ACS Nano, the study demonstrates how gallium-doped zinc oxide (GZO) nanosheets can detect red, green, and blue (RGB) light within a single pixel, potentially replacing the decades-old Bayer filter design used in nearly every digital camera today.

If commercialized, the technology could enable thinner smartphone cameras, higher-resolution medical imaging devices, and more compact sensors for automotive and aerospace applications, all while simplifying manufacturing.

Read more