A new electrofluidics design from the University of Cincinnati and start-up company Gamma Dynamics promises to dramatically reshape the image capabilities of electronic devices.

Researchers at the Georgia Institute of Technology have developed a new "templated growth" technique for fabricating nanometer-scale graphene devices. The method addresses what had been a significant obstacle to the use of this promising material in future generations of high-performance electronic devices.

While refining their novel method for making nanoscale wires, chemists at the National Institute of Standards and Technology (NIST) discovered an unexpected bonus—a new way to create nanowires that produce light similar to that from light-emitting diodes (LEDs). These "nano-LEDs" may one day have their light-emission abilities put to work serving miniature devices such as nanogenerators or lab-on-a-chip systems.

As industries and consumers increasingly seek improved battery power sources, cutting-edge microscopy performed at the Department of Energy's Oak Ridge National Laboratory is providing an unprecedented perspective on how lithium-ion batteries function.

Arizona State University's expanding research, education and entrepreneurial endeavors in photonics engineering and science has led to formation of the Center for Photonics Innovation.

The light, tickling tread of a pesky fly landing on your face may strike most of us as one of the most aggravating of life's small annoyances. But for scientists working to develop pressure sensors for artificial skin for use on prosthetic limbs or robots, skin sensitive enough to feel the tickle of fly feet would be a huge advance. Now Stanford researchers have built such a sensor.

Channels could be used for sensitive detectors or water-desalination systems.

Technological innovation has brought us wonderful new tools for modern life, but some experts believe supply is lagging behind demand for the rare minerals that make them possible.

In what could be a step toward higher efficiency solar cells, an international team including University of Michigan professors has invalidated the most commonly used model to explain the behavior of a unique class of materials called highly mismatched alloys.

Glucose meters and the appropriate test strips for diabetics are expensive. This however might change, since scientists at the Institute of Printing Science and Technology (IDD) at TU Darmstadt are working on a sensor making the electronic devices considerably cheaper. The new sensor is not based on silicon as conducting material, but on plastics.

Graphene, a one-atom-thick layer of graphitic carbon, has great potential to make electronic devices such as radios, computers and phones faster and smaller. But its unique properties have also led to difficulties in integrating the material into such devices.

A new low-cost etching technique developed at the U.S. Department of Energy's National Renewable Energy Laboratory can put a trillion holes in a silicon wafer the size of a compact disc.

University of California, San Diego, and NEI Corporation are designing new types of lithium-ion batteries that could be used in a variety of NASA space exploration projects

Rice University scientists have created the first two-terminal memory chips that use only silicon, one of the most common substances on the planet, in a way that should be easily adaptable to nanoelectronic manufacturing techniques and promises to extend the limits of miniaturization subject to Moore's Law.

The Construction Unit at Tecnalia (in conjunction with the University of Cantabria) has taken part in the Sunglass project. The aim is to develop a new product for the building Sector. This involves a glass that augments the efficiency of photovoltaic solar systems.

The FlexTech Alliance, focused on developing the electronic display and the flexible, printed electronics industry supply chain, today announced a contract award to Nyx Illuminated Clothing Company to develop a foldable display constructed from a panel of multiple e-paper screens. Applications for this type of product are numerous. For consumer electronics, a foldable display can increase the size of e-reader screens without increasing the device foot-print. In military applications, maps may be read and stored more easily in the field. Medical devices can be enhanced with more accessible and convenient patient charts.

A Stanford mechanical engineer is using the biology of a gecko's sticky foot to create a robot that climbs. In the same way the small reptile can scale a wall of slick glass, the Stickybot can climb smooth surfaces with feet modeled on the intricate design of gecko toes.

Using a cutting edge nanotechnology, researchers at MIT have created a robotic prototype that could autonomously navigate the surface of the ocean to collect surface oil and process it on site.

NanoEngineers at the University of California, San Diego are designing new types of lithium-ion (Li-ion) batteries that could be used in a variety of NASA space exploration projects – and in a wide range of transportation and consumer applications. NEI Corporation and UC San Diego recently won a Phase II Small Business Technology Transfer contract from NASA to develop and implement high energy density cathode materials for lithium batteries.

Electronic products pollute our environment with a number of heavy metals before, during and after they're used. In the U.S. alone, an estimated 70% of heavy metals in landfill come from discarded electronics. With flat screen TVs getting bigger and cheaper every year, environmental costs continue to mount.