TI's OMAP-DM5x coprocessors promise 20MP cameraphones, 720p recording and freedom from heartache
[Via LetsGoDigital]
imaging posts
Man, the mad scientists are really on a roll of late. First we hear that Li-ion cells are set to magically double in capacity, and now we're learning that a new form of invisibility cloak is totally gearing up for its Target debut. As the seemingly endless quest to bend light in such a way as to create a sheath of invisibility continues, the University of Illinois at Urbana-Champaign's Nicholas Fang has reportedly developed a metamaterial that acts as a type of acoustic superlens. In theory, at least, this approach would rely on phreaking with sound rather than light in order to intensely focus ultrasound waves; by doing so, one could hypothetically "hide ships from sonar." To be fair, this all sounds entirely more believable than hiding massive vessels from human sight, but we're still not taking our skeptic hat off until we see (er, don't see?) a little proof.
We're not too sure what's up with New England-based institutions and inspiration from the depths, but the two seem to have some kind of intrinsic connection. The latest company to prove such a wacky assertion true is Boston's own Scallop Imaging, a Tenebraex subsidiary that has developed a "low-cost" security camera that sees 180 degrees of view without fisheye distortion or the lag present in pan-and-tilt alternatives. Additionally, the multi-eyed cam automatically stitches and downsamples images, and can capture a new 7-megapixel still to transmit over Ethernet "every second or two." It's small enough to be placed into a light socket-sized hole, and it's powered by the same Ethernet cable that links it into a building's surveillance system. Of course, the fun won't stop there, as the outfit is already looking at automotive applications of the Digital Window, including "distortion-free backup cameras for the rear ends" of vehicles.
We don't envision very many people enjoying the idea of having TSA employees seeing every curve their body has to offer, but unfortunately for those who fail the primary metal detector test at Phoenix Sky Harbor International Airport, you could be in for such a treat. While airport shoe scanners have already garnered sufficient criticism for holding up the show rather than helping things out, the "backscatter" X-ray machine is officially being trialed in Arizona as a means of snuffing out hidden "explosives and other weapons" that can't be detected by other means. While the technology allows the viewer to see just about every follicle on your body (and any stray .500 Magnums adorning your person), there is still currently a workaround if you're not entirely comfortable with going full-frontal before boarding your flight. A TSA spokesperson proclaimed that the process is completely voluntary, as folks who get dinged by the metal detector can opt for a standard pat-down in order to clear things up. Interestingly, the officials operating the machine have reportedly "adjusted the equipment to make the image look something like a line drawing" rather than detailing all your 2,000 parts, but critics suggest that altering the image also hampers the chance of discovering contraband in the first place. Still, unless this causes some serious uproar in the near future, it looks like it's there to stay, and folks traveling through LAX and New York's Kennedy Airport will likely face a similar beast (if they so choose) before the year's end.
Although improvements on the typical X-ray are being made quite frequently of late, a team of researchers at the University of Colorado at Boulder is hoping to make a huge leap forward in the way we're forced to handle these traditionally burdensome machines. In an effort to reduce the size required to install and utilize your average X-ray machine, the crew has purportedly developed a new technique to "generate laser-like X-ray beams" that avoid the existing need for such a "monstrous power source." The end goal is, of course, a tabletop device that can handle uber-high resolution imaging at a fraction of the cost and size of current units. It all starts by using "a powerful laser to pluck an electron from an atom of argon and then slam it back into the same atom," which then bypasses the typical problem of X-ray waves "not marching in step" by sending "weak pulses of visible laser light into the gas in the opposite direction of the laser beam generating the X-rays." The feeble beam reportedly "manipulates the electrons plucked from the argon atoms" in order to perfectly intensify the strength of the process by "over a hundred times." Essentially, the researchers have devised a more controlled way to perfect the timing of X-ray blasts, and are utilizing light to focus the process rather than using gobs of energy as it hopes enough undirected beams strike the intended area. Per usual, we've no idea just how close this idea is to becoming ready for the commercial world, but considering all the competition that's currently out there, we don't envision these Buffs wasting any precious time.
Thankfully, it looks like Sony has come through yet again, and while it wasn't exactly in the timeliest of manners, the high-speed CMOS sensor that it promised would deliver 60fps of video output is finally upon us. The 1/1.8-inch IMX017CQE sensor boasts 6.4-megapixels of resolution and the uncanny ability to "output this resolution at 60 frames per second (a data rate of around 384 megapixels per second)." In layman's terms, this chip has the ability to capture full motion video and grab high-quality stills without dropping a single frame, giving users a seamless transition between the two. Additionally, the 1/1.8-inch size and its ability to deliver 300 frames per second at lower resolutions moves it a bit further from the pack, not to mention the 12-bit A/D converter for each column. No word just yet on when these video-centric chips will hit Sony's CyberShot lineup, but it's an awful lot closer to reality than the last time we caught wind of it. [Warning: PDF read link]
We're all about giving golf claps where they're due, and a healthy round is certainly in order for Mr. Brian Schulkin. The doctoral student in physics developed a breakthrough terahertz imaging device, dubbed a T-ray, that has already demonstrated its ability to "detect cracks in space shuttle foam, image tumors in breast tissue, and spot counterfeit watermarks on paper currency." The Mini-Z marks the first time such a powerful device has become portable in nature, weighing just five pounds and taking up about as much space as your average laptop. Taking home the first Lemelson-Rensselaer Student Prize ($30,000), Schulkin explained that this device didn't pose the same health risks as typical X-rays, and unlike ultrasound, terahertz waves can provide images and spectroscopic information without contacting an object. As expected, the patent-pending technology is already up for licensing, and has already received quite a bit of fanfare and commercial interest from larger companies. So while you may never personally encounter Brian's earth-shattering invention, we're fairly sure this young lad's working days are already drawing nigh if he so chooses.









