<![CDATA[Gizmodo: medgadgets]]> http://tags.gizmodo.com/assets/base/img/thumbs140x140/gizmodo.com.png <![CDATA[Gizmodo: medgadgets]]> http://gizmodo.com/tag/medgadgets http://gizmodo.com/tag/medgadgets <![CDATA[Amazing DSI Brain Scanning Visualizes Your Mind's Inner Workings In 3D]]> What's that monkey thinking about when he's mushing down that banana or tossing feces at you? Well, you're looking at it—this is a map of where a macaque's thoughts live. It's made possible by new 3D visualization algorithms developed by neuroscientists at Massachusetts General Hospital and Boston which render a brain's billions of individual neuron connections in full-color 3D, with each visible strand representing several tens of thousands of the too-small-to-image neural pathways. It's all done by simply applying new processing to existing MRI scan data, and thankfully, it works on human brains too.

The tech, called diffusion spectrum imaging, takes current data from MRI scans and analyzes it for the passage of water molecules along the individual neuron connections in the brain. It then processes it to spit out the 3D maps. It's possible to do on live subjects (like the human brain image above), but more detail can be achieved by scanning non-living samples for up to 24 hours.

Doctors are using the new images to better understand our brain's infinitely complicated wiring, and to avoid important neural nets during surgeries. More including 3D model animations (awesome) at: [Technology Review]

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<![CDATA[New Flexible Image Sensors Could Enable Eyeball-Cams, More Realisitc Cyborgs]]> Traditional camera lenses have to have beefier optics to make up for the fact that the sensor is flat—but one reason why the human eye is such an efficient little cam at (576 megapixels! ISO 800!) is because our image sensors (err, retinas) are rounder to better capture the light transmitted by the lens on the other side of the sphere. Researchers at Northwestern and the University of Illinois have found a way to create a traditional photo sensor that flexes without breaking, which means your cyborg glass eye of the future will be all the more lifelike.

The system works by linking the individual pixels of the sensor with flexible wires, which allow the sensor itself to take any shape necessary. This will result in more efficient and compact lenses for endoscopes and, potentially, the aforementioned artificial eyes. Right now the biggest sensor they've made only has 256 pixels, but apparently the manufacturing process is similar to current sensors so the researchers are confident they can scale it up quickly. [Medgadgets]

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<![CDATA[Swallowable Camera Pill Robots Now Anchor To Your Intestines Safely]]> What wonderful times we live in. If you've got some funky stuff going on down below, a good way to diagnose exactly what's happening is to swallow a pill-sized camera robot to have a looksie. Only problem is, those things have trouble swimming upstream, if you will, to stay near the specific trouble spot. Carnegie Mellon university researchers have potentially solved that problem with a new capsule bot that uses tiny feet covered in hairlike adhesive projections to anchor the 'bot at a specific point, without damaging sensitive tissues when it's time to get unstuck. All the same, I really just don't know if I want anything anchoring to my intestines, ever. More including a quick video over at: [Technology Review]

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<![CDATA[Sensor-Packed Pajama Pants Analyze Grandpa's Walk For Potential Falls]]> Researchers at Virginia Tech hope to combat injuries suffered from elderly falls with these teched-out pants, which employ multiple sensors sewn into your standard flannel jams (aka blogging pants) to monitor the gait of the wearer for early diagnosis potential problems. So long as he doesn't shuffle out of Bluetooth range.

The pants are equipped with multiple e-TAGs—sensor packages that include accelerometers, gyroscopes, and a microcontroller to send their information to a PC via the Bluetooth module mounted on the waist. Piezoelectric pads also monitor weight distribution at the heel, and the whole thing runs on a single 9-volt battery. The data is then analyzed to spot potential problems early and treat them. The VT researchers hope to bring the tech to a commercial product in a few years. But until then, I'm seeing this as a pretty good guideline for DIY mo-cap loungewear. [Physorg]

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