Electrical engineering researchers at the University of Tokyo have developed a flexible, stretchable OLED that acts something like rubber, and does not tear or break when stretched. The material is produced by spraying a layer of carbon nanotubes with a fluoro-rubber compound, creating a rubbery, conducive material. The current, monochrome display prototype has a resolution of just 256 pixels, is 10-centimeters square, and can apparently be folded about 1,000 times with out falling apart, tearing, or imploding. The team is presenting its findings in the British science journal Nature Materials this month.

[Via Slashgear]

Make no mistake, there are quite a few sophisticated ways to monitor one's glucose levels, but we're pretty certain we've never seen an approach as simple and as bodacious as this. Massachusetts-based Draper Laboratories has stumbled upon a new embeddable nanosensor that could, at least in theory, eliminate those painful pricks endured today by so many diabetics. The so-called "injectable nanotech ink" could be inserted under the skin much like a tattoo, though Draper's Heather Clark notes that it "doesn't have to be a large, over-the-shoulder kind of tattoo." In fact, it can be as small as a few millimeters in size, though if it were us, we'd use it as the perfect excuse in order to plaster our backs with Ice Climbers. Testing of the new approach is expected to begin very soon, though that usually means it won't be ready for humans until at least a few years later. Ah well, plenty of time to dream up the perfect design, right?

[Via medGadget]

We'll be straight up with you -- there's a lot of fancy work going on with this one that laypeople will have a tough time grasping, but the long and short of it is this: a team from Rice University (Krishna Palem pictured) and Nanyang Technological University have created a microchip that "uses 30 times less electricity while running seven times faster than today's best technology." Already crying snake oil? Not so fast. By trashing the traditional set of mathematical rules (that'd be Boolean logic) and instead applying probabilistic logic, researchers have figured out how to deliver similar results with a fraction of the energy. The tech is being dubbed PCMOS (probabilistic CMOS), and could eventually end up in embedded systems and even cellphones. In the case of the latter, this type of chip will be able to display streaming video on a minuscule display with more artifacts than usual, but due to the small screen size and the human brain's ability to piece together nearly-perfect images, the errors involved would be all but forgotten. Meanwhile, your battery bar would still be nearly full. We always heard there was beauty in imperfections -- now, at long last, we finally get it.

A team of scientists at the University of Glasgow just came into all sorts of cash, and they'll be using it to advance imaging. If you're looking for specifics (and we're assuming you are), a £489,234 grant from the Engineering & Physical Sciences Research Council will be used to study a certain phenomenon called surface plasmon resonance, "which is an effect exhibited by certain metals when light waves fall onto their surfaces." In short, the gurus behind the research are hoping to discover a method of "creating patterns or small nanostructures in the metal film on the CMOS, which should increase the sensitivity of the sensor and result in higher quality images." The bad news? The project is expected to last until 2012, which is like, forever from now.

[Image courtesy of Photo]

We're hard pressed to think of a display-related story that has lingered on longer than SED (well over four years at last count), and believe it or not, this still isn't apt to be the last you hear of it. If you'll recall, Canon recently declared victory after winning a lawsuit against Applied Nanotech that was previously holding it back from making progress, and now Applied Nanotech has waved the final white flag by giving up its right to appeal. Comically enough, it may actually be too late for Canon to even salvage the win, with president Tsuneji Uchida noting that "at times like this, new display products are not introduced much because people would laugh at them." Shh... nobody tell him the world's been laughing at SED for years.

[Via OLED-Display]

Our inevitable incorporation into the gray goo inches ever closer today, as researchers in Japan have developed a chemical brain that can control up to eight nanomachines -- and one day could control thousands. The "brain" is actually a ring of 17 duroquinone molecules, which together measure just two nanometers across. Each molecule can be rotated to four different positions, controlled by the state of the center molecule. In tests, researchers were able to simultaneously control eight nanomachines using the brain, compelling them to dock and undock from the brain. The structure of the brain also means up to 4 billion possible configurations can be switched simply by manipulating one molecule, which may eventually give rise to computing applications -- but those are limited for now, since issuing instructions involves the use of scanning tunnel microscopy. That's a relief -- gray was never really our color anyway.

Why is Nokia always trying to outdo everyone with its fancy-schmancy concepts and designs? Why can't they just get in line and keep it simple? We may never know the answer to those questions, but what we do know is that the company is presenting a new concept device called the Morph that would be right at home... in the year 3000. The unit is included in the MoMA's "Design and the Elastic Mind" exhibition catalog, and boasts the ability to stretch and flex to almost any shape a user could think of. The nanotechnology-based device would deliver transparent electronics, self-cleaning surfaces, and the malleability to transform into any number of configurations. Of course, the actual technology required to put this together is years or even decades away, though Nokia expects to see some of these innovations making their way into high-end products within seven years. See the device doing its thing in some photos after the break.

Update: Tipster Pdexter pointed us to a video of the Morph in "action" -- check it out after the break.

[Thanks to everyone who sent this in]