Hasta La Gadget!

The future of humanity is assured. Assuredly doomed, that is. That blur you see up above is one of our familiar foes, the GRASP Lab’s autonomous quadrocopter, flying through a thrown hoop without the assistance of a human director. Yes, it’s downright insane that we’re allowing this so-called research to continue our descent toward the robot uprising — where’s the FBI, the CIA, hell, why is DARPA sleeping on this thing? The lethal precision of these quadrotor helis doesn’t end there, however, as they’ve now been enhanced with the ability to recover from “extreme” starting conditions. In simpler terms that just means you can toss one up into the air and it’ll right itself into a steady hovering position. From where it can strike upon the unsuspecting and complacent humanoid populace.

Continue reading Quadrocopters can now fly through thrown hoops, the end really is nigh (video)

Quadrocopters can now fly through thrown hoops, the end really is nigh (video) originally appeared on Engadget on Thu, 16 Sep 2010 04:58:00 EDT. Please see our terms for use of feeds.

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Researchers and engineers have been toiling on synthetic skins for years now, but most of ’em have run into one major problem: the fact that organic materials are poor semiconductors. In other words, older skins have required high levels of power to operate, and those using inorganic materials have traditionally been too fragile for use on prosthetics. Thanks to a team of researchers at UC Berkeley, though, we’re looking at a new “pressure-sensitive electronic material from semiconductor nanowires.” The new ‘e-skin’ is supposedly the first material made out of inorganic single crystalline semiconductors, and at least in theory, it could be widely used in at least two applications. First off, robots could use this skin to accurately determine how much force should be applied (or not applied, as the case may be) to hold a given object. Secondly, this skin could give touch back to those with artificial hands and limbs, though that would first require “significant advances in the integration of electronic sensors with the human nervous system. Dollars to donuts this gets tested on the gridiron when UCLA and / or Stanford comes to town.

UC Berkeley researchers craft ultra-sensitive artificial skin, robots dream of holding eggs originally appeared on Engadget on Mon, 13 Sep 2010 12:37:00 EDT. Please see our terms for use of feeds.

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Ready to get swept away into the wild, wild abyss known as quantum computing? If not, we’re certain there’s a less mentally taxing post above or below, but for those who answered the call, researchers at the University of California Santa Cruz have a doozie to share. A team of whiz kids at the institution have developed a minuscule optical device that’s built into a silicon chip, and it’s capable of reducing the speed of light by a factor of 1,200. If you’re wondering why on Earth humans would be interested in doing such a thing, here’s the long and short of it: the ability to control light pulses on an integrated chip-based platform “is a major step toward the realization of all-optical quantum communication networks, with potentially vast improvements in ultra-low-power performance.” Today, data transmitted along optical fibers must still eventually be converted to electronic signals before they’re finally understood, but the promise of an all-optical data processing system could obviously reduce inefficiencies and create communication networks that are far quicker and more robust. There’s still no telling how far we are from this becoming a reality — after all, we’ve been hearing similar since at least 2006 — but at least these folks seem to be onto something good… even if it’s all too familiar.

All-optical quantum communication networks nearly realized, ‘Answers to Life’ airing at 9PM originally appeared on Engadget on Tue, 07 Sep 2010 23:04:00 EDT. Please see our terms for use of feeds.

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For as spectacular as hydrogen fuel cells are on paper, they haven’t been able to replace combustion engines in vehicles. Or much of anything else, really. But thanks to Signe Kjelstrup at the Norwegian Academy of Science and Letters in Oslo, the tried-and-true fuel cell is getting a serious boost. Kjelstrup’s crew determined that by using less platinum in a cell, a substantial increase in efficiency and a significant decrease in cost could be achieved. The new design relies on an architecture that’s “modeled on the bronchial structure of the lungs to supply hydrogen and oxygen gas to their respective electrodes,” which is said to help “spread the gases more uniformly across the catalyst than current channel designs and provides a greater surface area so less platinum is needed.” It’s still early on in the discovery process, though, and there’s certainly no solid word on when this will reach a point where widespread implementation is feasible. Seventh-generation Prius, perhaps?

Lung-inspired hydrogen fuel cell skimps on platinum, sees efficiency boost originally appeared on Engadget on Tue, 24 Aug 2010 09:38:00 EDT. Please see our terms for use of feeds.

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Micro electromechanical systems, or MEMS, aren’t anything new. But Purdue University’s Jason Vaughn Clark has ideas that are far grander than those we’ve seen already. Mr. Clark has purportedly developed a new take on an old spin, with electro micro metrology (EMM) enabling engineers to “account for process variations by determining the precise movement and force that’s being applied to, or sensed by, a MEMS device.” These self-calibrating machines are the first to do so without any external references, which would allow nanotechnologists, crime forensics researchers and a whole host of others to determine what actually happens at a microscopic level. In theory, the gurus working on this stuff long to improve the accuracy of atomic force microscopes and to eventually create a diminutive AFM-on-a-chip, which — according to Clark — could “open the door to the nanoworld to a much larger number of groups or individuals.” We’re waiting.

Purdue’s ‘self-calibrating’ MEMS could produce the most accurate sensors yet originally appeared on Engadget on Thu, 12 Aug 2010 11:02:00 EDT. Please see our terms for use of feeds.

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