PCMag editors select and review products independently. If you buy through affiliate links, we may earn commissions, which help support our testing.

MIT System Simplifies DIY Drone Building

A new program allows users to design, simulate, and build their own custom UAV.

 & Stephanie Mlot Contributor

Our team tests, rates, and reviews more than 1,500 products each year to help you make better buying decisions and get more from technology.

Our Expert
LOOK INSIDE PC LABS HOW WE TEST
65 EXPERTS
43 YEARS
41,500+ REVIEWS

It is easier than ever to operate a drone in the US. But off-the-shelf UAVs don't always fit different pilots' needs.

The MIT Computer Science and Artificial Intelligence Laboratory (CSAIL), however, has a solution.

A new system allows users to design, simulate, and build their own custom drone based on specific requirements including payload, cost, flight time, battery usage, and other factors.

Change the size, shape, and structure of the vehicle to create a personalized flying machine; check out the video below to see CSAIL researchers' unusual-looking five-rotor "pentacopter" or rabbit-shaped "bunnycopter."

"This system opens up new possibilities for how drones look and function," MIT professor and CSAIL project supervisor Wojciech Matusik said in a statement. "It's no longer a one-size-fits-all approach for people who want to make and use drones for particular purposes."

The Federal Aviation Administration in June released long-awaited regulations for the commercial use of drones—for things like crop monitoring, bridge inspections, rescue operations, aerial photography, and maybe even deliveries.

A task typically left up to the experts, developing multicopters involves a lot of trial and error, and is "more or less impossible for an amateur user," PhD student Tao Du said.

But CSAIL's program makes it easy for anyone, even without a computer-science background, to design a UAV. Pick and choose from a database of parts, and let the system do the rest: compute size of elements, analyze metrics, optimize flight plans.

Future versions, according to MIT, could proactively give design suggestions, recommending where a rotor should go to accommodate the desired payload.

Drone rules have been in the works for several years. In 2012, President Obama signed the FAA Air Transportation Modernization and Safety Improvement Act, which included a mandate to loosen restrictions and integrate commercial drones into the National Airspace System.

In 2013, the Transportation Department revealed its long-term plan for making that a reality, and has since been granting waivers and setting up test sites throughout the US.

Last year, the FAA took the first step toward allowing the expanded use of commercial drones in the US with a proposal that garnered 4,600 public comments, and helped inform the summer's final rules.

According to the White House, the expansion of commercial drones could add $82 billion in economic value and 100,000-plus jobs in the US by 2025.

MIT CSAIL's project was supported, in part, by the National Science Foundation, the Air Force Research Laboratory, and the European Union's Horizon 2020 research and innovation program.

About Our Expert

Stephanie Mlot

Stephanie Mlot

Contributor

My Experience

  • B.A. in Journalism & Public Relations with minor in Communications Media from Indiana University of Pennsylvania (IUP)
  • Reporter at The Frederick News-Post (2008-2012)
  • Reporter for PCMag and Geek.com (RIP) (2012-present)

My Areas of Expertise

  • Science & Space
  • Video Streaming Services
  • Social Media
  • Cars & Auto
  • Education

The Tech I Use

  • iPhone 12 Pro
  • MacBook Air (hooked up to a 23-inch Dell monitor)
  • Google Chrome
  • Google Drive
  • Soundcore Life P3 earbuds
  • Various Amazon Echo devices

Read full bio