Toggle light / dark theme

In what can only bode poorly for our species’ survival during the inevitable robot uprisings, an AI system has once again outperformed the people who trained it. This time, researchers at the University of Zurich in partnership with Intel, pitted their “Swift” AI piloting system against a trio of world champion drone racers — none of whom could best its top time.

Swift is the culmination of years of AI and machine learning research by the University of Zurich. In 2021, the team set an earlier iteration of the flight control algorithm that used a series of external cameras to validate its position in space in real-time, against amateur human pilots, all of whom were easily overmatched in every lap of every race during the test. That result was a milestone in its own right as, previously, self-guided drones relied on simplified physics models to continually calculate their optimum trajectory, which severely lowered their top speed.

This week’s result is another milestone, not just because the AI bested people whose job is to fly drones fast, but because it did so without the cumbersome external camera arrays= of its predecessor. The Swift system “reacts in real time to the data collected by an onboard camera, like the one used by human racers,” an UZH Zurich release reads. It uses an integrated inertial measurement unit to track acceleration and speed while an onboard neural network localizes its position in space using data from the front-facing cameras. All of that data is fed into a central control unit — itself a deep neural network — which crunches through the numbers and devises a shortest/fastest path around the track.

At a time in history when too many things seem to be heading in the wrong direction, I believe there is still hope. Lots of it, actually.

Last week I was reminded that the best is still ahead of us, and the people who will lead this increasingly challenging space world are not just those from the Ivy League or historically elite coasts. While they may have extraordinary resources, they haven’t cornered all the best students and ideas to solve our most vexing space problems. Across the country, thousands of students are thinking about how to tackle tomorrow’s challenges – uninhibited by the confines of the traditional military-industrial acquisition process of the last generation and armed with the “why not” attitude propagated by new pioneers in commercial space.

To hone in on the pockets of creative genius found across the United States, this past year the SmallSat Alliance hosted its first annual Collegiate Space Competition. The design challenge, sponsored and staffed by the space companies that comprise the Alliance, is open to every college and university student in the U.S. – technical or non-technical, from junior colleges to traditional universities. The students are presented with real world space problems that could be partially solved with low cost, off the shelf space systems and components, specifically the new generation of commercially available small satellite technologies.

The mission will observe the Sun from a unique vantage point and explore its activity and influence on space weather.

As nations across the world expand their exploratory missions into outer space, India is taking a crucial leap forward by setting its sights on our solar system’s most vital celestial body: the Sun. Slated for launch on September 2nd, India’s first-ever solar mission, Aditya-L1, has arrived at its launch pad at the Sathish Dhawan Space Centre SHAR in Sriharikota, off the eastern coast of India.


Source: ISRO

The announcement.

The Apogee+ exoskeleton aims to help support caregivers in healthcare settings. | Source: German Bionic.

German Bionic has unveiled the Apogee+, a powered exoskeleton for the North American healthcare market. Apogee+ aims to merge cutting-edge robots with research-backed, data-driven insights to better support caregivers.

Apogee+ is designed to provide personal lift assistance to caregivers, and it specifically addresses concerns with care worker safety and job satisfaction. This is German Bionic’s first foray into the healthcare space, and the mover underscores its success in industrial settings.

Crafting organic molecules into a bizarre kind of magnet, physicists from Aalto University and the University of Jyväskylä in Finland have created the perfect space for observing the elusive activity of an electronic state called a triplon.

Where a garden variety magnet is typically best described as having two poles surrounded by a nest of field lines, the curious construct known as a quantum magnet defies such a simple description.

As is the case any time the word ‘quantum’ appears, you can imagine a landscape where nothing is certain. Like spinning roulette wheels in a dimly lit casino, all states are a maybe until the croupier says “no more bets”.