Flexible Devices Drive New IoT Apps


Printed and flexible electronics are becoming almost synonymous with many emerging applications in the IoT, and as the technologies progress so do the markets that rely on those technologies. Flexible [getkc id="187" kc_name="sensors"] factor into a number of [getkc id="76" kc_name="IoT"] use cases such as agriculture, health care, and structural health monitoring. Other types of flexible de... » read more

Materials For Future Electronics


Examining the research underway in electronics materials provides a keyhole view into what may be possible in future electronics design. Although some of this research will not end up in commercial products, it does provide an indication of the kinds of problems that are being addressed, how they are being approached, and where the research dollars are being spent. Flexible electronics are a... » read more

Power/Performance Bits: May 2


Turning bottles into batteries Researchers at the University of California, Riverside used waste glass bottles and a low-cost chemical process to create nanosilicon anodes for high-performance lithium-ion batteries. Billions of glass bottles end up in landfills every year, prompting the researchers to ask whether silicon dioxide in waste beverage bottles could provide high purity silicon ... » read more

System Bits: March 21


Sensors vulnerable to sonic cyber attacks According to University of Michigan researchers, sound waves could be used to hack into critical sensors in a wide range of technologies including smartphones, automobiles, medical devices and IoT devices. New research calls into question the longstanding computer science tenet that software can automatically trust hardware sensors, which feed auton... » read more

Progress In Flexible Electronics


Flexible electronics have been proposed for a wide variety of applications, from pulse and activity monitoring to electrolyte balance measurements. That makes generalizations difficult, but most proposed devices involve some combination of [getkc id="187" kc_name="sensors"], a power source, onboard data storage and analysis electronics, and some form of communications for configuration and data... » read more

Power/Performance Bits: Sept. 6


Carbon nanotube transistors outperform silicon University of Wisconsin-Madison materials engineers created carbon nanotube transistors that outperform silicon transistors, improving the current 1.9 times. The new transistors are particularly promising for wireless communications technologies that require a lot of current flowing across a relatively small area. "This achievement has been a... » read more

Power/Performance Bits: July 26


Flexible MRAM Researchers from the National University of Singapore, Yonsei University, Ghent University and Singapore's Institute of Materials Research and Engineering embedded a magnetic memory chip on a plastic material, flexible enough to be bent into a tube. The new device operates on magnetoresistive random access memory (MRAM), which uses a magnesium oxide (MgO)-based magnetic tunn... » read more

Power/Performance Bits: June 28


Mimicking roses for solar Scientists from the Karlsruhe Institute of Technology (KIT) and the Center for Solar Energy and Hydrogen Research Baden-W├╝rttemberg (ZSW) reproduced the epidermal cells of rose petals and integrated the transparent replicas into an organic solar cell, with an efficiency gain of 12%. The epidermis of rose petals consists of a disorganized arrangement of densely p... » read more

Power/Performance Bits: May 31


Solar thermophotovoltaics A team of MIT researchers demonstrated a device based on a method that enables solar cells to break through a theoretically predicted ceiling on how much sunlight they can convert into electricity. Since 1961 it has been known that there is an absolute theoretical limit, called the Shockley-Queisser Limit, to how efficient traditional solar cells can be in their ... » read more

Power/Performance Bits: Dec. 1


Hiding wires from the sun There's a problem with most solar cells: the electricity-carrying metal wire grid on top prevents sunlight from reaching the semiconductor below. A team from Stanford University tackled this problem, discovering a way to hide the reflective upper contact and funnel light directly to the semiconductor below. For the study, the researchers placed a 16-nanometer-thi... » read more

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