Product of the Month: Medical Grade Tantalum Capacitors
Posted in Electronics, Manufacturing & Prototyping, Products, Electronic Components, Electronics on Sunday, 01 December 2013
AVX Corporation, Greenville, SC, introduces the TAZ HRC5000 Medical Grade Tantalum Series. Designed for use in implantable medical devices, the new high-reliability, medical-grade tantalum capacitor series is rated for 4V to 50V and -55ºC to +125ºC, has a capacitance range of 0.1μF to 330μF, and features extremely low DC leakage limits well below typical industry values. Available in case sizes ranging from A-H, the TAZ HRC5000 Series capacitors are some of the smallest tantalum chip capacitors currently on the market.
Scientists Invent Self-healing Battery Electrode
Posted in News, Batteries, Electronics, Coatings & Adhesives on Thursday, 28 November 2013
A team of researchers from Stanford University and the Department of Energy’s (DOE) SLAC National Accelerator Laboratory have made the first battery electrode that heals itself, opening a new and potentially commercially viable path for making the next generation of lithium ion batteries.
Robotics Technology Advances Artificial Legs
Posted in News, Electronics, Orthopedics, Surgical Robotics/Instruments, Motors & Drives, Sensors on Wednesday, 20 November 2013
Recent advances in robotics technology enables prosthetics that can dramatically improve the mobility of lower-limb amputees, allowing them to negotiate stairs and slopes and uneven ground, and significantly reducing their risk of falling, say a team of engineers at Vanderbilt University’s Center for Intelligent Mechatronics, Nashville, TN.
Soluble Polymer Allows Writing in Liquid with Light
Posted in News, Electronics, Optics on Thursday, 14 November 2013
Researchers from the Laboratory of Polymer Chemistry in the University of Helsinki’s Department of Chemistry in Finland have managed to draw in an alcohol-based solution using laser light. The research was published in the journal, Macromolecules.
Printing Inkjet-Based Circuits
Posted in News, Board-Level Electronics, Electronics on Wednesday, 13 November 2013
A team of researchers from Georgia Tech, the University of Tokyo, and Microsoft Research have developed a novel method to rapidly and inexpensively make electrical circuits by printing them with commodity inkjet printers and off-the-shelf materials. For about $300 in equipment costs, anyone can produce working electrical circuits in the 60 seconds it takes to print them.
Thermally Optimized Medical Devices Improve Patient Outcomes
Posted in Features, Electronics, Manufacturing & Prototyping, Features, Electronic Components, Electronics, Thermal Management on Tuesday, 12 November 2013
Today’s medical device and equipment designs are highly influenced by continuous technological advances that affect their size, power consumption, and communication capabilities. But patient safety and comfort are also critical considerations, forcing designers to balance the demands of new technology with the demands of new forms of patient care. From addressing industry-wide concerns over bioburden to adhering to strict noise limitations and biocompatibility needs, the list of requirements is becoming increasingly long. In order to provide the best possible solutions, medical device designers need a working knowledge of the thermal management technologies available to them. Armed with a thorough understanding of both passive and active thermal management systems, including their components, benefits, and applications, designers can more effectively address all the needs of the medical industry.
Metamaterial May Improve Depression
Posted in News, Electronics, Rehabilitation & Physical Therapy on Friday, 08 November 2013
A new headpiece for brain stimulation technique, designed by engineers at the University of Michigan, Ann Arbor, may considerably improve treatment of tough cases of depression. Computer simulations have shown that the device—a square array of 64 circular metallic coils—could help researchers and doctors hit more precise targets in the brain that are twice as deep as they can currently reach without causing pain.