A new system, known as InSight, aims to provide something a little more ambitious than facial recognition. The technology, which is part funded by Google, will work between Glass and a smartphone app and aims to let users spot their friends in a crowd based purely on what they're wearing.
Telepathy has long been a subject of controversy in physical and psychological circles, offering the potential for removing the material and sensory walls between individuals, and allowing the direct transmission of information without using any of our known sensory channels or physical interactions. Although true telepathy still appears to be pseudoscience, futurists have long predicted that some form of technologically-based telepathy would eventually emerge ... and, it would appear, it has.
Quite often, when we hear about brain-machine interfaces, it’s in the context of returning an ability to people who lack it. People who are unable to speak
, for instance, might be able to interface with a machine that could speak for them. Recently, however, scientists at Duke University used such an interface to augment rats with a sort of “sixth sense” – the ability to detect invisible infrared light by sense of touch. The research could have significant implications for the disabled.
Engineers at Duke University have developed a polymer that keeps ships’ bottoms clean by twitching like living skin. The paint-like material combats hull fouling by preventing marine organisms from collecting on hulls by physically moving on the microscopic level and thus dislodging bacteria from the surface without toxic chemicals.
Despite its numerous wondrous properties, a propensity to stick together and be difficult to flatten out once crumpled can make working with graphene
difficult and limit its applications. Engineers at Duke University have now found that by attaching graphene to a stretchy polymer film, they are able to crumple and then unfold the material, resulting in a properties that lend it to a broader range of applications, including artificial muscles.
A study at North Carolina's Duke University has revealed that Stroboscopic training, the performance of physical activity while using eyewear that simulates a strobe-like experience, improves visual short-term memory for up to 24 hours. Participants in the study were taken from the 2010-2011 Duke University men's and women's varsity soccer teams, Duke's 2010-2011 men's basketball team and members of the general Duke community. They were required to engage in physical activities such as playing catch while wearing either the specialized stroboscopic eyewear, designed specifically to limit vision to brief snapshots, or standard clear eyewear that provided uninterrupted vision.
The commercialization of GPS technology has been a boon for those navigating unfamiliar city streets, highways and byways, but head inside out of sight of the GPS satellite signals and the limitations of the technology can quickly become evident. Other efforts to solve the problem involve the use of accelerometers
, sometimes combined with magnetic field sensors
, but a new system developed at Duke University promises to provide precise indoor localization using a different approach – detecting “invisible” landmarks.
While digital cameras such as the Hasselblad H4D-200MS
and Nikon D800
have pushed the megapixel boundary in recent times, and Nokia’s inclusion of a 41-megapixel camera into its 808 PureView
smartphone got plenty of attention, researchers at Duke University and the University of Arizona say the age of consumer gigapixel cameras are just around the corner – and they’ve created a prototype gigapixel camera to prove it.
Imagine a pair of rubber gloves whose surface texture could be altered on demand to provide more grip for climbing. Or maybe gloves with "fingerprints" that can be changed in the blink of an eye. They are just a couple of the many potential applications envisioned by researchers at Duke University for a process they have developed that allows the texture of plastics to be changed at will.
Of all the energy-harvesting technologies presently in development, piezoelectric devices offer some of the most intriguing possibilities. They work by converting mechanical stress, which can take the form of movement-caused vibrations, into an electrical charge. This means that things such as shoes
– or anything else that moves or is subjected to movement – could be outfitted with piezoelectrics, which would produce power. Unfortunately, the range of vibrations that any one device can harness is presently quite limited. Research being conducted at North Carolina’s Duke University, however, could change that.