Kindle DX called "poor excuse of an academic tool" in Princeton pilot program
[Thanks, Tom]
princeton posts

Trying to circumvent the need to choose between getting a wide-angle shot and zooming in for details, a team of researchers at Princeton led by electric engineer Jason Fleischer have developed a new method to get the best of both worlds, by passing the light through a "nonlinear crystal" that would normally distorts the picture. A computer algorithm then pieces together the data and, as they claim, produces a wide-view image that also manages to capture the finer points otherwise missing when using conventional techniques. The goal is to build "super-resolution" microscopes for better medical diagnostics, but the group also sees uses in the fields of data encryption and lithography / microchip production. Is it too much to ask that our next Canon or Nikon have this a standard feature?
We haven't seen all that many OLED lighting options, but a group of researchers from the University of Michigan and Princeton University say they could be on the verge of changing that situation, with them now boasting of a new breakthrough that could greatly increase the efficiency of OLEDs. The key to that, it seems, is a combination of an organic grid and some tiny dome-shaped micro lenses that guide the trapped light out of the devices. As the researchers point out, with current OLEDs, only 20% of the light generated is actually released, but they say this new method could boost the efficiency by a full 60%, or about 70 lumens per watt of power. Of course, they're also quick to point out that all of this is still quite a ways away from becoming practical for commercial purposes, although they seem to be optimistic that the eventual production cost for these new and improved OLEDs will be competitive with existing ones.
Amazon's Kindle ebook reader has been doing pretty well as a consumer device, but we've always thought it had amazing potential as a textbook reader -- especially coupled iTunes-style with Amazon's online distribution system. Apparently Princeton University (Jeff Bezos's alma mater) agrees with us, because it's just announced plans to publish Kindle version of its textbooks this fall, joining Yale, Oxford, and Berkeley in supporting the device. It's not clear how many books are due to be published on the device or how content like photographs and full-color diagrams will be handled (what's a bio book without red mitochondria? They're the "powerhouse" of the cell!), but we're certain students will gladly make the tradeoff to reduce their backpack loads just a little bit.
Normally we get excited when a slab of silicon makes our games run at 60 frames per-second, but in this case we're impressed with a new chip that filters out cancer cells. The device, created by some impressive souls at Princeton and Boston University, directs and focuses streams of cells in a liquid. Like a change sorter, it then separates regular cells form unusual ones. The silicon wafer is tacked with tiny pillars that catch abnormal cells that are, in the end, potentially cancerous. The device hasn't been used to any major extent, but we'll keep an eye on this promising discovery.
Yes sir, you're looking at a tiny 4.5 x 23 x 14-mm USB Bluetooth adapter with a hearty 100-meter range. It's also Bluetooth 2.0+EDR so you can expect to push a data rate of up to 3Mbps. Princeton's 10-meter adapter released in August now looks like school on Sundays -- no Class 1. Look for the PTM-UBT4 to hit Japan and beyond for ¥2,980 (about $28) later this month.
Remember that crazy small, RF receiver used with Logitech's VX Nano? Meet the Bluetooth 2.0+EDR equiv, the Princeton's PTM-UBT3S which measures just 19-mm (0.75-inches) long. So yeah, it's small, in fact, it's claimed to be the smallest available in Japan when it ships in September. Whether or not it's the world's smallest is irrelevant as it's surely suitable for full-time laptop or handheld bunging without concern for sheering it off. Yours for ¥2,480 or $21 beans.
Researchers at Harvard and Princeton have announced that they've made a "crucial step" in the development of so-called "biocomputers," which could one day be implanted in patients to directly attack diseased cells or tissues Fantastic Voyage-style. According to Physorg, the computers are actually constructed entirely out of DNA, RNA, and proteins, and are able to translate complex cellular signatures like the activities of multiple genes into a form that can be more readily observed. Currently, the researchers have demonstrated that the biocomputers can work in human kidney cells in culture, although they seem confident that they'll eventually find a wind range of uses, including working in conjunction with biosensors or medicine delivery systems to target, for instance, only cancerous or diseased cells, without causing any harm to the patient's healthy cells.







