In this episode, we discuss how CalTech researchers have created bionic jellyfish to help us explore the oceans and better understand the impacts of climate change.
Researchers in Maastricht and Leuven used ProbeFix Dynamic for a pioneering study using dynamic ultrasound imaging and 3D motion tracking in Nordic hamstring curl, single-leg Roman chair, and single-leg deadlift.
The sophisticated artificial skin sweats where and how much the researchers want it to. This was reported in an Angewandte Chemie article by Danqing Liu and first author Yuanyuan Zhan.
In the latest of a series of innovative designs for wearable sensors that use sweat to identify and measure physiological conditions, Caltech's Wei Gao has devised an "electronic skin" that continuously monitors nine different markers that characterize a stress response.
Barani Raman, professor of biomedical engineering in the McKelvey School of Engineering, is leading a multidisciplinary team to study how the locust brain transforms sensory input into behavior with a four-year, $4.3 million grant from the National Science Foundation’s Integrative Strategies for Understanding Neural and Cognitive Systems (NCS) program.
Textiles are tactile, sensorial and visual. Qualities can be modified or even expanded when technology is added, transforming passive textiles into active and interactive devices, monitoring and detecting bodily functions due to their constant contact with our skin.
In this episode, we discuss the accidental discovery of how amputees can sense temperature in their phantom limbs and how EPFL researchers have exploited this to develop the first generation of prosthetics that can feel.
Innovations such as biomimicry, software inspired by insect brains, smart skin, neuromorphic computing, and other emerging technologies further expand robots' capabilities and push the boundaries of robotics hardware.
Columbia University devising a way to grow engineered skin in complex, three-dimensional shapes, making it possible to construct, for example, a seamless “glove” of skin cells that can be easily slipped onto a severely burned hand.
Boston Dynamics’ Spot, bionic kangaroos and even ants – biomimetics allows us to replicate almost any living thing. But why do roboticists look to animals for inspiration, what do they do at ITMO, and how do you make a robot act “natural”?
In general, silicone based conductive pastes are rare and the versions with AgCl fillers- needed for many medical wearable applications- are even rarer!
The sophisticated artificial skin sweats where and how much the researchers want it to. This was reported in an Angewandte Chemie article by Danqing Liu and first author Yuanyuan Zhan.
In this episode, we talk about how engineers inspired by some of biology’s most miniature wonders (like dandelions' seeds and microorganisms' cilia) are using their knowledge to make major breakthroughs in biosensing, robotics, biomedical engineering, and more.
Robot arms could become safer in industrial settings by applying an artificial skin containing proximity heat sensors to detect humans in all directions.
Researchers in Maastricht and Leuven used ProbeFix Dynamic for a pioneering study using dynamic ultrasound imaging and 3D motion tracking in Nordic hamstring curl, single-leg Roman chair, and single-leg deadlift.