Manufacturing Bits: Feb. 25


Diamond finFETs HRL Laboratories has made new and significant progress to develop diamond finFETs. HRL, a joint R&D venture between Boeing and General Motors, has developed a new ohmic regrowth technique for diamond FETs. This in turn could pave the way towards commercial diamond FETs. Applications include spacecraft, satellites and systems with extreme temperatures. Still in R&D, diamo... » read more

Power/Performance Bits: Feb. 25


Thinner, flexible touchscreens Researchers from RMIT University, University of New South Wales, and Monash University developed a thin, flexible electronic material for touchscreens. The material is 100 times thinner than current touchscreen materials. The new screens are still based on indium-tin oxide (ITO), a common touchscreen material. However, a liquid metal printing approach was used... » read more

Manufacturing Bits: Feb. 18


Molecular layer etch The U.S. Department of Energy’s Argonne National Laboratory has made new advances in the field of molecular layer etching or etch (MLE). MLE is related to atomic layer etch (ALE). Used in the semiconductor industry, ALE selectively removes targeted materials at the atomic scale without damaging other parts of the structure. ALE is related to atomic layer deposition... » read more

Power/Performance Bits: Feb. 18


Cryogenic memory Researchers at Oak Ridge National Laboratory demonstrated a new cryogenic memory cell circuit design based on coupled arrays of Josephson junctions. Such a memory could help enable exascale and quantum computing. The cells are designed to operate in super cold temperatures and were tested at just 4 Kelvin above absolute zero, about minus 452 degrees Fahrenheit. At these col... » read more

Manufacturing Bits: Feb. 10


Accelerating and cooling muons Using a novel particle accelerator, a group for the first time have observed a phenomenon called muon ionization cooling–an event that could give researchers a better understanding of matter and the universe. Muons are obscure sub-atomic particles. This experiment could pave the way towards the development of new and powerful muon particle accelerators. Thes... » read more

Power/Performance Bits: Feb. 10


Balancing battery capacity and stability Researchers at Rice University are working to develop batteries that are better geared toward electric cars and more robust off-grid energy storage by digging into why lithium gets trapped in batteries, thus limiting the number of times it can be charged and discharged at full power. The team found that by not maxing out a battery's storage capacity,... » read more

Manufacturing Bits: Feb. 4


Non-targeted analysis Using a technology called machine learning, the Southwest Research Institute has introduced a software tool that detects known and unknown chemical components in food, air and drugs. It detects compounds in products we are exposed to every day using both machine learning and metrology techniques. A subset of artificial intelligence (AI), machine learning uses advanced ... » read more

Power/Performance Bits: Feb. 4


Infrared nanoantenna Researchers at the University of Würzburg built a nanoantenna capable of generating directed infrared light. The Yagi-Uda antenna is the smallest of its type yet created. "Basically, it works in the same way as its big brothers for radio waves ," said René Kullock, a member of the nano-optics team at Würzburg. An AC voltage is applied that causes electrons in the met... » read more

Manufacturing Bits: Jan. 28


Fast photography The California Institute of Technology has developed a high-speed camera that can take pictures of transparent objects. The technology, called phase-sensitive compressed ultrafast photography (pCUP), can take up to 1 trillion pictures per second of transparent objects. Potentially, the technology from Caltech could be used in several applications, such as taking photos of s... » read more

Power/Performance Bits: Jan. 28


Accelerator-on-chip Researchers at Stanford University and SLAC National Accelerator Laboratory created an electron-accelerator-on-chip. While the technique is much less powerful than standard particle accelerators, it can be much smaller. It relied upon an infrared laser to deliver, in less than a hair’s width, the sort of energy boost that takes microwaves many feet. The team carved ... » read more

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