Current electronic devices are becoming faster and denser, but such complex circuitry is prone to reliability problems, and once one tiny circuit within an integrated chip breaks, the whole chip or even whole device is unusable. A team of University of Illinois engineers has developed a self-healing system capable to repair a cracked circuit by ... »
A multi-disciplinary team of researchers, led by researchers from the University of Illinois, came up with epidermal electronic system (EES) – a device platform based on a thin skin-like patch that mounts directly onto the skin with ease and flexibility of a temporary tattoo sticker. The technology could be used in electronic components for sensing, ... »
Previous attempts at making 3D photonic crystals have resulted in devices that are only optically active (they can’t turn electricity to light or vice versa). A group of researchers, led by researchers from the University of Illinois, have managed to develop the first optoelectronically active 3D photonic crystal. The development could enable new advancements for ... »
A group of researchers from University of Illinois developed a three-dimensional nanostructure for battery cathodes that allows dramatically faster charging and discharging without sacrificing energy storage capacity. Aside from quick-charge consumer electronics, batteries that can store a lot of energy, release it fast and recharge quickly are desirable for electric vehicles, medical devices, lasers and ... »
In our previous articles, we sporadically mention the need for breakthroughs in energy storing technology and the folks from the University of Illinois have developed a form of ultra-low-power digital memory that is faster and uses 100 times less energy than a similar memory available today. The technology could give future portable devices much longer ... »
Inspired by geckos, a team of engineers has developed a reversible adhesion method for printing electronics on a variety of tricky surfaces such as clothes, plastic and leather. Researchers from Northwestern University and the University of Illinois at Urbana-Champaign designed a square polymer stamp that allows them to vary its adhesion strength. The stamp can ... »
The lateral line is a hydrodynamic imaging system found in fish and aquatic amphibians enables them to accomplish a variety of underwater activities such as localization of moving prey or predators, detection of stationary objects, schooling without colliding and social communication. It consists of numerous hair cell sensors called neuromasts which are distributed all over ... »
