Some robots are hard and some are soft, but in nature soft and hard structures are commonly mixed. In an effort to emulate this, engineers from Harvard University and the University of California, San Diego, have used multimaterial 3D-printing to create a combustion-powered jumping robot that transitions from a rigid core to a soft exterior.
The deep sea is the new frontier for mining, oil exploration, and other industrial activities as they leave the continental shelves for areas miles beneath the ocean surface. Along with this comes greater dangers to the environment, which will require constant monitoring. To provide the needed eyes, Britain's National Oceanography Centre (NOC) and partners are developing the BRIDGES Glider. As Europe’s first ultra-deep-sea robot glider, the craft is capable of reaching 75 percent of the world's oceans to depths of up to 5,000 meters.
Mention military exoskeletons
and it will likely conjure up visions of something like Iron Man, that
gives a soldier super strength or the ability to march all day with a
pack the size of a piano. However, exoskeletons can provide more than
brute strength. Taking a page from therapy exoskeletons,
Dan Baechle, a mechanical engineer at the US Army Research Laboratory
(ARL), is developing the MAXFAS exoskeleton that doesn't make soldiers
stronger, but better shots instead.
The key to better, tougher and more coordinated robots as well as improved surgical procedures, among other advances, could derive their inspiration from an unlikely source – the odd, square tail of the all-around strange seahorse.
In the exhibition area at the 2015 DARPA Robotics Challenge Finals, a pair of humanoid prototypes built by SRI and Sandia National Laboratories hit the treadmills to demonstrate new technology that allows robots to operate longer on a single battery charge.
The last time we heard from the researchers working on MIT's robotic cheetah project, they had untethered their machine to let it bound freely across the campus lawns. Wireless and with a new spring in its step, the robot hit speeds of 10 mph (16 km/h) and could jump 13 in (33 cm) into the air. The quadrupedal robot has now been given another upgrade in the form of a LIDAR system and special algorithms, allowing it to detect and leap over obstacles in its path.
Biomedical engineering company Össur has announced the successful development of a thought controlled bionic prosthetic leg. The new technology uses implanted sensors sending wireless signals to the artificial limb's built-in computer, enabling subconscious, real-time control and faster, more natural responses and movements.