The 5th International Conference on Biomimetic and Biohybrid Systems will be held this year in beautiful Edinburgh, Scotland,18 -22 July. The three-day event, organised by the Convergent Science Network, will be hosted at a fantastic venue consistent with the spirit of the conference, the Dynamic Earth: a 5 stars visitor experience with incredible interactive technology to learn about natural events and much more….
More then ever scientists are using a nature-inspired approach to build biomimimetic robots. Developed after through investigation of biological systems, these robots are a wonder of engineering and artificial intelligence research.
A new marine robot, called Sepios, has recently joined the ever-growing robotic animal kingdom. Built by a group of students from Switzerland’s ETH Zurich, this biomimetic robot was inspired by yet another marine creature, namely a cuttlefish. The interesting thing is that Sepios can actually do better than the creature that inspired it.
Several decades ago, Earth observation satellites transformed how we keep track of changes on our planet. Now we are rapidly crossing a new technological threshold that will allow us to pick up even the most subtle variations in the environment.
Imagine swarms of autonomous robots roaming the globe by land, sea and air, together producing the ultimate picture of what is going on on our planet. This great vision is already becoming a reality – or at least with respect to the sea.
With the official Ebola death toll approaching 5,000, scientists are increasingly concerned with exploiting all possible ways of fighting this deadly disease. While the biggest labs around the world are working on a vaccine that will hopefully exterminate Ebola once and for all, roboticists are developing more unconventional ways of preventing the spread of the disease.
A new breed of muscle-powered robots can walk on command
Robots can be very strong, fast and enduring. However, unlike in animals, none of this strength comes from muscle, instead robots mainly rely on electrical motors and other hard and generally inflexible parts. But with all the advantages that conventional robot hardware can deliver, it still does not match the ability of muscle-powered animals to provide an accurate response to different physical environments. To address this downside of robotics, a group of researchers, led by Professor Rashid Bashir, at the University of Illinois at Urbana-Campaign developed tiny walking bio-robots powered by engineered muscle tissue.
A new European project hopes to make robots more trustworthy
Year by year, robots become better and better at negotiating each time more complex social interactions with humans. However, much as their social intelligence has improved, these interactions still suffer from a lack of transparency. In other words, unlike humans, robots are not capable of understanding and explaining their actions in intentional terms, which prevents them from having more effective communication with humans. To the joy of robots and humans alike, this challenge is now addressed by the What You Say Is What You Did (WYSIWYD) project, launched earlier this year.
The 3rd Conference on Biomimetic and Biohybrid Systems will be held this year from 30 July to 1 August in Milan. As has become a tradition, the three-day event, organised by the Convergent Science Network, will be hosted at a fantastic venue consistent with the spirit of the conference: the Da Vinci Museum of Science and Technology, one of the largest technology museums in Europe.
Crabs know their way around the ocean floor. These crawling creatures live in all the waters of the world, so if we want to learn something new about underwater exploration, it might be a good idea to take some cues from them. And this is precisely what a research team at the Korean Institute of Ocean Science and Technology did.
After two years of investigation, the team, led by Bong-Huan Jun, developed Crabster CR 200, a car-sized robot inspired by crustaceans and designed to survey shipwrecks and other areas of scientific interest.
What do a bat, a jellyfish and a humpback whale have in common? For one thing, these animals use their natural propulsors, such as wings, bells and flukes, to move through their environment, be it air or water. Last week a group of researchers published a study in Nature Communications that indicates that these and many other animals from distantly related groups seem to have attended the same school of propulsion. And one of the subjects they studied there was all about being flexible.