ICYMI: Computer chips cooled by ‘blood,’ tiny tank and more

Today on In Case You Missed It: IBM Research in Zurich is using fluid to both power and cool computer chips, modeled off of the way the human brain works. University of Southampton scientists created small glass discs for mega data storage that the...

Sharp ‘Moth Eye’ LCD Panel demo shows off future HDTVs with less glare

Sharp Moth eye LCD Panel demo shows off future HDTVs with less glare, reflections

While its high pixel density mobile displays stole much of the attention at CEATEC 2012, Sharp also has tech destined for bigger screens like this "Moth Eye Panel" that Engadget Japanese took a look at during the show. Thanks to nanoscale irregularities on its surface similar to the eye of a moth it claims to give bright colors and high contrast while cutting down glare as seen above (moth eye panel on the left) The technology isn't in use yet, but Sharp says the film has been produced in 60-, 70- and 80-inch sizes already, so if you thought the company's extra large and Elite HDTVs couldn't get any better, next year's model will probably have at least one way to prove you wrong.

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Sharp 'Moth Eye' LCD Panel demo shows off future HDTVs with less glare originally appeared on Engadget on Sun, 07 Oct 2012 02:23:00 EDT. Please see our terms for use of feeds.

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Harvard scientists grow human cells onto nanowire scaffold to form ‘cyborg’ skin

DNP Artificial skin

Growing human tissue is old hat, but being able to measure activity inside flesh is harder -- any electrical probing tends to damage the cells. But a new breakthrough from Harvard researchers has produced the first "cyborg" tissue, created by embedding functional, biocompatible nanowires into lab-grown flesh. In a process similar to making microchips, the wires and a surrounding organic mesh are etched onto a substrate, which is then dissolved, leaving a flexible mesh. Groups of those meshes are formed into a 3D shape, then seeded with cell cultures, which grow to fill in the lattice to create the final system. Scientists were able to detect signals from heart and nerve cell electro-flesh made this way, allowing them to measure changes in response to certain drugs. In the near-term, that could allow pharmaceutical researchers to better study drug interaction, and one day such tissue might be implanted in a live person, allowing treatment or diagnosis. So, would that make you a cyborg or just bionic? We'll let others sort that one out.

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Harvard scientists grow human cells onto nanowire scaffold to form 'cyborg' skin originally appeared on Engadget on Tue, 28 Aug 2012 20:12:00 EDT. Please see our terms for use of feeds.

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UCLA researchers develop nanoscale microwave oscillators, promise better and cheaper mobile devices

UCLA researchers develop nanoscale microwave oscillators, promise better and cheaper mobile devices

At a size of just 100 nanometers, it may not be much to look at, but a new type of microwave oscillator developed by researchers at UCLA could open the door to mobile communication devices that are smaller, cheaper and more efficient. As PhysOrg reports, unlike traditional silicon-based oscillators (the bit of a device that produces radio-frequency signals), these new oscillators rely on the spin of an electron rather than its charge to create microwaves -- a change that apparently bring with it a host of benefits. That includes a boost in signal quality, and a dramatic reduction in size. The new nanoscale system is fully 10,000 times smaller than current silicon-based oscillators, and can even be incorporated into existing chips without a big change in manufacturing processes. As with most such developments, however, it remains to be seen when we'll actually see it put into practice.

UCLA researchers develop nanoscale microwave oscillators, promise better and cheaper mobile devices originally appeared on Engadget on Wed, 27 Jun 2012 05:06:00 EDT. Please see our terms for use of feeds.

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