Bioinspired robot airdrops into remote waters via morphing wing-sail
Bioinspired robot airdrops into remote waters via morphing wing-sail
Researchers at Singapore University of Technology and Design have developed ALBATROSS, a robotic platform that can be deployed from an aircraft to monitor remote waters. It uses a morphing wing-sail to land and sail autonomously, combining the speed of aerial deployment with the endurance of sailing. The prototype has demonstrated stable descent and autonomous navigation in controlled environments, with future goals including real-world testing and expanded sensor capabilities.
The ALBATROSS platform demonstrates a bioinspired approach to autonomous maritime monitoring, combining aerial deployment with wind-powered sailing to address the limitations of traditional surface and aerial systems.
Source: New Atlas — Robotics · Read original article ↗
Loading article text…
What the source reports
Publisher-reported claims, with original evidence. These results have not been independently verified by RoboSignal.
Reported numbers
deployment altitude
150
View original evidence
rs and three navigation sensors. To test the concept, the researchers released a prototype from an altitude of 150 meters (492 ft). It stabilized during descent, landing on the water with low impact. It then autonomously righted itself and sailed off into the sunset. OK, not into the sunset, but around the test environment. The researchers estimate that a similar platform, without the autorotation system, would exper
Open source S9sailing speed
≈1
View original evidence
ience about 18.5 times more impact energy upon hitting the water. During reservoir trials in Singapore, a larger ALBATROSS prototype reached a peak sailing speed of about 1 km/h (0.62 mph) and operated for about three hours, gathering data on humidity, heat levels, and wind direction using onboard sensors. The researchers see potential applications in environmental monitoring, climate change research, search and resc
Open source S10Reported duration
≈3 hours
View original evidence
ience about 18.5 times more impact energy upon hitting the water. During reservoir trials in Singapore, a larger ALBATROSS prototype reached a peak sailing speed of about 1 km/h (0.62 mph) and operated for about three hours, gathering data on humidity, heat levels, and wind direction using onboard sensors. The researchers see potential applications in environmental monitoring, climate change research, search and resc
Open source S10peak sailing speed
≈1
View original evidence
ience about 18.5 times more impact energy upon hitting the water. During reservoir trials in Singapore, a larger ALBATROSS prototype reached a peak sailing speed of about 1 km/h (0.62 mph) and operated for about three hours, gathering data on humidity, heat levels, and wind direction using onboard sensors. The researchers see potential applications in environmental monitoring, climate change research, search and resc
Open source S10
- paper: not_reported
- code: not_reported
- weights: not_reported
- dataset: not_reported
Source excerpts and review record
Automatically extracted; no manual editorial approval recorded.
ue, and maritime security. The platform’s wind-powered locomotion could allow missions to continue for long periods using relatively little energy. So far, ALBATROSS has lived a sheltered existence in controlled test environments and has yet to prove itself in the grueling real-world conditions of open waters. The researchers describe getting the platform ready for real-world testing as the upcoming stage of the proj
Open source S11
rs and three navigation sensors. To test the concept, the researchers released a prototype from an altitude of 150 meters (492 ft). It stabilized during descent, landing on the water with low impact. It then autonomously righted itself and sailed off into the sunset. OK, not into the sunset, but around the test environment. The researchers estimate that a similar platform, without the autorotation system, would exper
Open source S9
ience about 18.5 times more impact energy upon hitting the water. During reservoir trials in Singapore, a larger ALBATROSS prototype reached a peak sailing speed of about 1 km/h (0.62 mph) and operated for about three hours, gathering data on humidity, heat levels, and wind direction using onboard sensors. The researchers see potential applications in environmental monitoring, climate change research, search and resc
Open source S10
Source：New Atlas — Robotics · newatlas.com