Hasta La Gadget!

It’s certainly not a revolutionary new concept — whiz kids have been tinkering with brain-controlled interfaces for years on end — but a collaboration between UCLA scientists and colleagues from the California Institute of Technology has taken the idea one leap closer to commercialization. Itzhak Fried, a professor of neurosurgery at UCLA, kept a close watch (via embedded electrodes) on how a dozen humans reacted to certain images, and eventually, Fried and co. were able to show that Earthlings can “regulate the activity of their neurons to intentionally alter the outcome of stimulation.” In other words, they were able to move a mouse cursor with just their mind, and brighten a test image with a 70 percent success rate. By honing the process of controlling what actions occur when focused on a given subject (or input peripheral), it opens up the possibility for paralyzed individuals to not only check their email, but also control prosthetic limbs. It’s hard to say when this stuff will be put to good use outside of a hospital, but the video after the break definitely makes us long for “sooner” rather than “later.”

Continue reading UCLA / Caltech researchers help patients move mouse cursors with their brains

UCLA / Caltech researchers help patients move mouse cursors with their brains originally appeared on Engadget on Tue, 02 Nov 2010 04:12:00 EDT. Please see our terms for use of feeds.

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We’re guessing that most Wolfpackers in the greater Raleigh area are in full-on tailgate mode right now, but aside from laying a beating on the Seminoles this evening, NC State faithful are also trumpeting a new DNA discovery that could one day make it easy to get vital drugs to hard-to-reach places within you. Researchers from the university have purportedly discovered the ‘Goldilocks’ of DNA self-assembly, which holds promise for technologies ranging from drug delivery to molecular sensors. The concept, known as DNA-assisted self-assembly, has been vastly improved by using “computer simulations of DNA strands to identify the optimal length of a DNA strand for self-assembly.” You see, perfection occurs when strands aren’t long enough to intertwine with each other, yet not short enough to simply fold over on each other. We know, it’s a lot to wrap your brain around with half a hot dog shoved in your mouth, but hit the video after the break for a… shall we say, more visual explanation.

Continue reading NC State gurus find ‘Goldilocks’ of DNA self-assembly, look to improve drug-delivery vehicles

NC State gurus find ‘Goldilocks’ of DNA self-assembly, look to improve drug-delivery vehicles originally appeared on Engadget on Thu, 28 Oct 2010 15:35:00 EDT. Please see our terms for use of feeds.

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LED lights are cool, you’re cool, why not combine the two, right? We doubt that’s quite the reasoning that led to this international research project, but it’s certainly an appealing way to look at it. Our old buddy John Rogers from the University of Illinois at Urbana-Champaign has headed up a research team with participants from the US, China, Korea, and Singapore, who have together produced and demonstrated a new flexible and implantable LED array. Bettering previous efforts at inserting lights under the human skin, this approach allows for stretching and twisting by as much as 75 percent, while the whole substrate is encased in thin silicon rubber making it waterproof. Basically, it’s a green light to subdermal illumination, which could aid such things as monitoring the healing of wounds, activating light-sensitive drug delivery, spectroscopy, and even robotics. By which we’re guessing they mean our robot overlords will be able to color-code us more easily. Yeah, that must be it.

Flexible, implantable LEDs look set to start a new body modification craze originally appeared on Engadget on Mon, 18 Oct 2010 10:53:00 EDT. Please see our terms for use of feeds.

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Want to know where the next breakthrough in mobile technology will come from? Well, if Elpida and Sharp have their way, the answer will be the usual suspect of Japan, where they’re working away on new memory chips said to be capable of four orders of magnitude faster performance than the ordinary NAND flash storage of today. Dubbed ReRAM, or Resistive Random Access Memory, this project targets a 2013 date for commercialization and counts the University of Tokyo and Japan’s National Institute of Advanced Industrial Science and Technology among its development team. Details on how such blinding speeds will be reached aren’t readily available, but the Nikkei reports power consumption will be down to “virtually zero” when the memory’s not in use. So with ReRAM and HP’s memristors both set for three years from now, can we schedule NAND’s funeral for 2014 or what?

Elpida and Sharp team up for ReRAM in 2013: 10,000x the speed of current NAND flash chips originally appeared on Engadget on Wed, 13 Oct 2010 04:47:00 EDT. Please see our terms for use of feeds.

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Bold words coming from a program that choked in epic fashion this past Saturday in front of 58,000+, don’t you think? Thankfully for those who are actually involved in the global energy and communications infrastructure (not to mention depressed alumni), NC State‘s athletics department is far removed from its research labs, and the university’s latest development was born and bred in the latter. A team of researchers have managed to patent a new technology that is expected to enable the development of “high-power, high-voltage and high-current devices that are critical for the development of energy distribution devices, such as smart grid technology and high-frequency military communications.” The secret? Integrating gallium nitride (GaN) sensors and devices directly into silicon-based computer chips, a feat that hasn’t been accomplished by any team prior. According to Dr. Jay Narayan, this newfangled integration has “enabled the creation of multifunctional smart sensors, high-electron mobility transistors, high-power devices, and high-voltage switches for smart grids,” and it also makes a broader range of radio frequencies available — something that’ll obviously be beneficial in the advancement of communications. Best of all, a US-based corporation is already in the process of licensing the technology, so it’s likely that we’ll see this in use in the not-too-distant future. An ACC championship, however, remains far more elusive.

NC State patents multifunctional smart sensors, looks to ‘revolutionize energy and communications infrastructure’ originally appeared on Engadget on Mon, 04 Oct 2010 12:41:00 EDT. Please see our terms for use of feeds.

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