Toggle light / dark theme

Drone successfully flies human organ transplant between hospitals

For the first time, a human organ has been successfully transported between medical facilities by a drone. A team of scientists from the University of Maryland Baltimore used a research-qualified donor kidney as a test subject to shuffle back and forth on a remotely piloted hexacopter, testing the organ for changes throughout 14 flights. Its longest journey was 3 miles at a maximum speed of 40 mph, the duration and distance of which were suitable for demonstrating transportation between inner city hospitals.

Currently, organs have few options for transportation, and the process for moving them involves a network of couriers and commercial aircraft that are dependent on schedules and traffic patterns. When normal commercial schedules aren’t available, the cost of private charter transportation can be prohibitive. Even when cost isn’t a factor, the time involved in the process altogether can prevent a transplant from being completed as organs are very sensitive cargo.

To best ensure a successful transplant procedure, organs must be moved quickly between the donor and the recipient. The amount of time an organ can spend chilled after removal and when it’s warmed up and the blood supply restored, called cold ischemia time (CIT), is very limited. Some organs, such as the heart, only have as few as 4 hours available to be transported before they are no longer eligible for transplant. Up against airplane flight availability and traffic patterns, an improvement like what drone transportation could provide might have life saving implications.

Drone’s high-tech bike theft attempt caught on camera

Nov. 12 (UPI) — A group of shocked cyclists captured video of the moment a drone operator nearly pulled off a high-tech bike theft.

The video, recorded in Hustopece, Moravia, Czech Republic, shows the cyclists climbing a local landmark known as Lookout Tower and taking video of a drone flying nearby.

The cyclists start scrambling down the tower when the drone lowers down to the ground and picks up one of the bicycles.

The Future of Flight: AI in the Cockpit

The U.S. military is investing billions of dollars each year in developing autonomous technologies that could enable planes, helicopters and drones to fly into some of the world’s most dangerous places, without a human pilot.


AI-empowered systems may soon allow autonomous flying machines to reduce the number of pilots and soldiers working in high-risk environments. Could these flying robots also be firing weapons? WSJ’s Jason Bellini reports, in the latest episode of Moving Upstream.

Slightly heavier than a toothpick, the first wireless insect-size robot takes flight

With the rapid advances in drone technology spanning the 20th century, it should come as no surprise that miniature flying robots are on the horizon: Between now and 2020, Goldman Sachs’ forecasts a $100 billion market opportunity for drones, helped by growing demand from the commercial and civil government sectors.

What is surprising is that it has taken researchers more than two decades to finally come up with a fully autonomous version. That’s because the electronics needed to power and control the wings were so heavy that, until now, flying robotic insects had to be tethered to a wire attached to an external power source.

Yet a team of engineers at the University of Washington, led by assistant professor Sawyer Fuller, were able to figure it out. Relying on funding from UW, they created RoboFly, a robo-insect powered by an invisible laser beam that is pointed at a photovoltaic cell, which is attached above the robot and converts the laser light into enough electricity to operate its wings.