In the Media

A research team from the Singapore-MIT Alliance for Research and Technology including Jongyoon Han, professor of electrical engineering and computer science at MIT, has developed a new way to diagnose malaria using magnetic resonance relaxometry (MRR) — a technology that the group is adapting for inexpensive field deployable usage. Read more.

Professor Qing Hu and graduate students in his research group, the Millimeter-wave and Terahertz Devices Group in the Research Laboratory of Electronics (RLE) and researchers from several outside research labs have published their breakthrough research on terahertz laser frequency combs, and are featured as the cover story of the June 2014 issue of Nature Photonics (June 2014, Volume 8 No 6). This research has applications from cancer detection to explosives sensing. Read more about this research on the RLE website.

Working with members of the Quantum Photonics Laboratory (QPL) under the direction of EECS assistant professor Dirk Englund, principal author Hannah Clevenson, EECS graduate student and Pierre Desjardins and Xuetao Gan have developed an optical gas sensor that provides an extremely sensitive and compact way to detect very small amounts of target molecules of gas before they disperse. Read more.

Marc Baldo, MIT professor of electrical engineering has teamed with MIT’s Troy Van Voorhis, professor of chemistry and other researchers to understand the theory behind singlet excitonic fission -- a process by which extra electrons are produced by incoming photonic energy -- first observed in the 1960s. This new understanding of what materials will generate this added energy has potential for creating solar cells that demonstratew up to 25 per cent increased efficiency. Read more.

Prof. Steven B. Leeb met with Sharon Burke, assistant secretary of Defense for Operational Energy Plans and Programs, about the non-intrusive load monitor developed at MIT, during Burke's visit to the Army Base Camp Integration Laboratory at Fort Devens, Mass. The monitor can look at an energy grid and break down energy use by individual devices plugged into a system. Read more.

Until now the theoretical and much studied quasiparticle known as the exciton — responsible for the transfer of energy within devices such as solar cells, LEDs, and semiconductor circuits — has never been observed in action. Now researchers in the Center for EXcitonics in the Research Laboratory of Electronics (RLE) at MIT including EECS professors Marc Baldo and Vladimir Bulovic, and investigators at the City College of New York have imaged excitons' motions directly. Read more.

Researchers at MIT’s Microsystems Technology Laboratory (MTL) including Anantha Chandrakasan, the Joseph F. and Nancy P. Keithley Professor of Electrical Engineering, recent EECS PhD graduate Marcus Yip, EECS graduate student Rui Jin and research scientist Nathan Ickes, together with physicians from Harvard Medical School and the Massachusetts Eye and Ear Infirmary (MEEI), have developed a new, low-power signal-processing chip that could lead to a cochlear implant that requires no external hardware. The implant would be wirelessly recharged -- taking just two minutes -- and would run for about eight hours on each charge. Read more.

Prof. Mildred Dresselhaus, Institute professor emerita and faculty member in the MIT Electrical Engineering and Computer Science and Physics Departments, received the Materials Research Society Von Hippel Award in recognition of her work and close association with Prof. Von Hippel. Read more.

"There's a very strong need for that computer to turn electrical signals into optical signals very efficiently," Dirk Englund the Jamieson Career Development Assistant Professor in the MIT Electrical Engineering and Computer Science Department explained to Marketplace Tech. Englund was approached to discuss his work in the Quantum Photonics Laboratory, where computer chips made of graphene and silicon are encouraging information to move near the speed of light. Read more.

Mehmet Fatih Yanik, associate professor of electrical engineering and biological engineering at MIT and head of the High-Throughput Neurotechnology Group based in the Research Laboratory of Electronics (RLE) has created his life's work by combining his training in physics and engineering with his passion for understanding the complexities of the human nervous system and how to determine therapeutics for neurological disorders. Read more...

Joel Voldman engineers cutting-edge approaches to stem cell signaling, point of care therapeutics, and neuroengineering. In the never-ending mega study of how biological systems work, Joel Voldman’s mission is to understand the most basic interactions between single cells. To achieve that, he applies the power of microfluidics to isolate the actions and behaviors of single cells and the interactions between cells.