Power/Performance Bits: Jan. 14


Disorderly conduct With a significant ability to store power per a given weight, lithium batteries have been a major focus of research to enable use in everything from portable electronics to electric cars and now researchers at MIT and Brookhaven National Laboratory have found the use of disordered materials – generally considered unsuitable for batteries – can be used in a new avenue for... » read more

What’s After Silicon?


As discussed in the first article in this series, germanium is one of the leading candidates to succeed silicon as the channel material for advanced transistors, and has been for several years. The fundamental challenges of germanium integration were detailed at length in 2007. Unfortunately, knowing what the issues are does not necessarily lead to a solution. When a MOSFET transistor turns ... » read more

Manufacturing Bits: Dec. 31


Bringing Graphene Down To Earth For years, the semiconductor industry has been looking at graphene as a next-generation technology for a multitude of applications. One potential application, the graphene field-effect transistor (GFET), has been developed by various companies and universities. There are several advantages and disadvantages with GFETs. On one hand, GFETs have a higher mobilit... » read more

System Bits: Dec. 17


Simple, Inexpensive Graphene Treatment Could Unleash New Uses To help realize the promise of graphene in electronics, solar power, and sensors, researchers from MIT and UC Berkeley have created what they said is a simple, inexpensive treatment that they believe may help realize the potential of the material. While pure graphene lacks some key properties needed for electronic devices, modify... » read more

Flawed Research?


Soft errors were first talked about a long time ago and [getkc id="22" kc_name="memories"], which are the most susceptible to this type of error due to their finer geometries and tighter packing, have long included protection from such errors. But the scare has proven to be larger than the real problem. However, as geometries shrink, we are again hearing about the potential problems. Researc... » read more

System Bits: Nov. 19


Practical Invisibility Anyone who has read Harry Potter or watched Star Trek knows how powerful invisibility can be—at least in science fiction or the world of magic. But now, two researchers in The Edward S. Rogers Sr. Department of Electrical & Computer Engineering at the University of Toronto have demonstrated an effective invisibility cloak that is thin, scalable and adaptive to diff... » read more

System Bits: Nov. 5


Silicon Photonics And Graphene The industry is looking towards silicon photonics that will increase the rate at which electronic systems can communicate with each other and reduce power consumption. Researchers at MIT, Columbia University and IBM’s T. J. Watson Research Center are already a few steps beyond the traditional attempts to build optical components using materials such as Gallium ... » read more

Manufacturing Bits: Nov. 5


Nano Bulletproof Suit Luxury tailoring house Garrison Bespoke has developed a bulletproof suit based on carbon nanotubes. The Garrison Bespoke bulletproof suit is made with carbon nanotubes, which were originally developed to protect the U.S. 19th Special Forces in Iraq. The patented material is thinner and 50% lighter than Kevlar, which is traditionally used for bulletproof gear. Th... » read more

System Bits: Oct. 29


Coupling photons with electrons With the potential to lead to the creation of materials whose electronic properties could be “tuned” in real time simply by shining precise laser beams at them, researchers at MIT have produced and measured a coupling of photons and electrons on the surface of an unusual type of material called a topological insulator. This type of coupling had been predicte... » read more

Manufacturing Bits: Oct. 8


X-Ray Vision Researchers led by the University of Manchester have developed a new type of X-ray vision. The technology can look inside objects and map the properties in 3D and in real time. This technology is called pair distribution function-computed tomography. Applications include materials science, biomaterials, geology, environmental science and palaeontology. The technology enable... » read more

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