Prof. Ju Li and graduate students Sangtae Kim and Soon Ju Choi have developed a device that harvests human motion for electrical power, reports Krithika Varagur for The Huffington Post. “This device will make it possible to harvest some of this otherwise-wasted potential into electricity,” explains Kim.
BBC News reporter David Gibson writes that MIT researchers have developed a thin, transparent film that can store solar energy for later use. Gibson writes that the polymer could be used to de-ice windshields, “heat seats and steering wheels, or even let you solar charge your socks before a motorcycle ride.”
Researchers at MIT have developed an incandescent light bulb that vastly improves the device’s energy efficiency, The Economist reports. The modified bulb “maintains the technology’s advantages while vastly improving its energy credentials, giving it the potential to trounce CFLs and LEDs.”
Fortune reporter Hilary Brueck writes that MIT researchers have developed a new flexible battery that can harness energy from a range of motions, including walking. Brueck explains that the “bendy battery works best with normal, human-scale activity, like walking, poking, and bending.”
Boston.com reporter Eric Levenson writes that MIT researchers have developed a polymer material capable of storing solar energy and releasing it later as heat. The “polymer being developed would store the sun’s rays in a chemical reaction that is then converted into heat,” explains Levenson.
Jonathan Webb reports for BBC News that MIT researchers have developed a “molten glass sewing machine.” "It does exactly what a sewing machine does," explains applied mathematics instructor Pierre-Thomas Brun. "You go from a thread, to patterns which are tied to each other like stitching patterns - but this time they're made out of glass."
Prof. Donald Sadoway speaks with Miles O’Brien of the PBS NewsHour about how designing better batteries could help make renewable energy more feasible. “The issue is that we don’t have a battery technology that can meet the rigorous performance requirements of the grid, namely, super low-cost and super long service lifetime,” explains Sadoway.
Dana Guth reports for Boston Magazine on a new bandage developed by Prof. Xuanhe Zhao that can deliver medication directly to a wound. “The bandage is filled with tiny pathways, so that drugs can flow through its gel-like material, providing relief for burns and other minor skin conditions,” writes Guth.
MIT researchers have developed a new bandage that can detect infection and automatically release medication, reports Jordan Graham for The Boston Herald. “We are trying to design long-term, high-efficiency interfaces between the body and electronics,” explains Prof. Xunahe Zhao.
NBC News reporter Maggie Fox writes that MIT researchers have developed a stretchy, wet bandage that can deliver medications. The device could “carry a thermometer to continuously measure skin temperature, or tiny devices to keep an eye on blood sugar levels for someone with diabetes.”
Atlantic reporter April Wolfe writes that three MIT materials science and engineering students have developed a washing machine filter that recycles 95% of laundry wastewater. The device filters “the small amount of waste and recycles the clean water and detergent for further cleaning cycles.”
Writing for Popular Science, Lindsey Kratochwill reports that MIT researchers have discovered that the hundreds of eyes on a chiton's shell can see. Kratochwill explains that the researchers hope that by “understanding how these eyes work and the materials that make them up could lead to manmade materials that are both protective and perceptive of their environments.”
Atlantic reporter Ed Yong writes that MIT researchers have found that chitons, a type of mollusk, have a suit of armor dotted with hundreds of eyes that can perceive objects. The researchers found that chitons could “detect the shape of a 20-centimeter fish from a few meters away.”
LiveScience reporter Megan Gannon writes that MIT conservator Jana Dambrogio will virtually unfold a trove of unopened letterlocked notes from the 17th century. The researchers will use techniques like “3D X-ray microtomography to scan the letters and reconstruct the letterlocking strategies,” Gannon explains. “They'll also use scans to detect the ink and reconstruct the text inside.”
MIT researchers have developed a new hydrogel that is 90 percent water, reports Carmen Drahl for Forbes. The new hrydogel “adheres to surfaces like glass, titanium, aluminum, and ceramics with a toughness approximating that of nature’s interfaces between tendons and bone."