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Military & Aerospace Electronics April 2007 Gurnett & Adams |
Merging the Functionalities of Silicon, and III-Vs: Two Promising Approaches One of the least flexible rules in electronic design is the need to keep silicon devices, and compound semiconductor devices separate. Two new developments are now threatening to make this rule partly or entirely obsolete. |
Military & Aerospace Electronics March 2005 Tom Adams |
The shrinking-package approach to low-cost, robust sensor arrays One potential benefit of shrinking the sizes of microelectronics components is the potential to scatter a large number of sensors arranged as a distributed array over an area for surveillance. |
IEEE Spectrum February 2005 Singh & Thakur |
Chip Making's Singular Future Beleaguered chip makers are counting on single-wafer manufacturing, which makes ICs on one wafer at a time, to cut costs and get chips to market faster. |
Chemistry World October 9, 2011 Phillip Broadwith |
Growing gallium nitride LEDs on glass Korean researchers have grown crystalline gallium nitride on the surface of amorphous glass. The idea could lead to new, scalable ways of making semiconductor devices that don't need to be grown on silicon or sapphire wafers. |
IEEE Spectrum March 2013 Joachim N. Burghartz |
Make Way for Flexible Silicon Chips We need them because thin, pliable organic semiconductors are too slow to serve in tomorrow's chips. Seamless integration of computing into everyday objects isn't quite here yet. |
IEEE Spectrum August 2008 Neil Savage |
Cheaper LEDs Possible by Growing Gallium Nitride on Silicon Engineers take a step toward cheaper solid-state lighting. |
Military & Aerospace Electronics June 2005 John McHale |
RF and Microwave Technology Enable Networking on the Move Designers of RF and microwave technology say low power and small size remain the trend in product designs. Meanwhile, integrators adapt and combine RF and microwave technologies to enable networking on the move. |
IEEE Spectrum October 2011 Ozpinec & Tolbert |
Silicon Carbide: Smaller, Faster, Tougher Meet the material that will supplant silicon in hybrid cars and the electric grid |
Chemistry World January 30, 2009 Phillip Broadwith |
White LEDs to Plummet in Price Home and office lighting using white LEDs is one step closer to becoming reality now that researchers in Cambridge have developed technology which could slash the cost of their production. |
Military & Aerospace Electronics October 2009 Adams & Gurnett |
The Coming CMOS Imaging Revolution CMOS image sensors (common in video and digital cameras) are undergoing a qualitative change that will provide a stunning range of new products for consumers, as well as for military and aerospace users. |
Military & Aerospace Electronics February 2010 Chris Sanders |
3D IC Integration is Poised to Drive the Next Generation of Military Imaging Sensors As military and aerospace design engineers develop imaging systems for the wired battlefield of tomorrow, they face the challenge of providing high-resolution imaging arrays that are light, small, and cheap. |
IEEE Spectrum October 2005 Paniccia & Koehl |
The Silicon Solution In the future, ordinary silicon chips will move data using light rather than electrons, unleashing nearly limitless bandwidth and revolutionizing computing |
IEEE Spectrum January 2010 Richard Stevenson |
Winner: NanoGaN's Crystal Method NanoGaN's substrates will grow better, cheaper lasers |
IEEE Spectrum June 2011 Richard Stevenson |
Silicon Is Key to Quest for $5 LED Lightbulb Bridgelux process grows gallium-nitride on high-volume silicon wafers |
IEEE Spectrum October 2006 Brian R. Santo |
Acronym Addiction When you live on the cutting edge of technology, there are, literally, no words to describe it. Instead we have acronyms. Lots and lots of acronyms. ABT... BEOL... CSP... etc. |
IEEE Spectrum May 2006 Harry Goldstein |
GaAsing Up Cellphones Gallium arsenide transistors could power tiny, blazingly fast multimedia handsets. |
IEEE Spectrum October 2005 Salvatore Coffa |
Light From Silicon For decades, silicon was a semiconducting dim bulb, but now we can make it into LEDs that match the best made from more exotic materials |
Military & Aerospace Electronics May 2007 |
Silicon Wafer Shipments Experience Growth for the Fifth Consecutive Year Worldwide silicon wafer area shipments increased by 20 percent in 2006 when compared to 2005 area shipments according to the SEMI Silicon Manufacturers Group (SMG). |
Military & Aerospace Electronics June 2005 Lee, Hillman & Kim |
Industry News: How to Predict Failure Mechanisms in LED and Laser Diodes Optical circuits provide an opportunity for meeting military and avionics performance needs. But predicting the reliability of these products can be difficult for the reliability engineer with little experience in optoelectronic technology. Here's where an engineer can start. |
Technology Research News August 10, 2005 Eric Smalley |
Ice transforms chipmaking Spraying water vapor onto cold silicon could be a simple way to make computer chips. The key is etching nanoscale lines into the resulting ice to make microscopic computer circuits. The process is environmentally friendly to boot. |
The Motley Fool October 11, 2005 Dan Bloom |
Intel's Optical Breakthrough The chipmaker may open new tech frontiers by teaching silicon and light to cooperate. |
IndustryWeek September 1, 2008 Jill Jusko |
Low-Cost LED Lighting Advances Breakthrough by Purdue University could help reduce energy consumption. |
Technology Research News February 9, 2005 |
All-silicon chip laser demoed Researchers from Intel have moved a step forward in the push to meld lasers and silicon chips, which could eventually be used in portable biological and chemical sensors, to amplify communications signals, and to convert light to different wavelengths. |
IEEE Spectrum December 2009 Neil Savage |
New Schemes for Powering Processors Building an on-chip high-voltage transmission grid is one way researchers think they could distribute power better |
Technology Research News March 9, 2005 |
Silicon Chip Laser Goes Continuous Useful lasers made from silicon would make it possible to move data between and within computer chips using light rather than electricity. This would make for faster chips that could be more tightly integrated with optical communications equipment. |
Military & Aerospace Electronics April 2007 |
Mimix Broadband Introduces GaAs MMIC Power Amplifier This gallium arsenide (GaAs) monolithic microwave integrated circuit (MMIC) has a three-stage power amplifier with a temperature-compensated output detector. |
IEEE Spectrum March 2007 Michael Riordan |
A New Blue Laser Two groups have just announced a new kind of solid-state laser that emits bright blue-violet light, raising hopes of getting green. |
IEEE Spectrum March 2007 Mouli & Carriker |
Future Fab If a billion transistors on a postage-stamp-size chip impress you, consider the fabrication facilities that put them there. How software is helping Intel go nano -- and beyond. |
Chemistry World February 14, 2010 Simon Hadlington |
Efficient solar cells from silicon wires US researchers have designed a new silicon-based solar cell which uses 100 times less silicon than conventional photovoltaic devices. |
Industrial Physicist Aug/Sep 2004 |
New Products Torque flange... Luminance Detector... High-Speed Camera... Pressure Gauge... Laser Diode... Illumination Source... Wafer-Dicing System... etc. |
PC Magazine October 11, 2006 |
Bits & Bites v25n19 Intel and researchers have developed a silicon chip that can produce laser beams. |
PC Magazine March 14, 2007 Dylan Tweney |
What's Inside Your Laptop? We reveal the components inside a typical notebook PC and explain where they come from. |
InternetNews July 25, 2005 David Needle |
Intel's Arizona Plans Are FABulous Intel is sinking $3 billion into a new chip manufacturing plant, focused on the company's most cutting edge 45 nanometer process technology for future computing platforms. The new technology lowers the cost of chip production. |
Chemistry World November 18, 2015 Nelly Berg |
A bright future for silicon solar cell recycling South Korean scientists have developed a sustainable process to reclaim silicon wafers from old solar panels and used the salvaged silicon to build new solar cells. |