A discovery at the Max Planck Institute for Chemical Physics of
Solids could pave the way for further leaps forward in the speed of
electronic systems. The finding that a material called niobium phosphide dramatically
increases its resistance in a magnetic field could lead to faster, higher-capacity hard drives and other electronic
If you’re into electronics as
a hobbyist, technician, or professional engineer, you know that you can spend
many hours designing circuits, sourcing components, and breadboarding or
soldering a project all together before you find out if your creation actually works. Wouldn’t
it make life simpler if you could just start with a basic, multi-function
controller and a few plug and play peripherals to get something – anything – up
and running straight away and then which you could tweak and add to as you go?
The makers of a new electronic design tool thought that this would be a good
idea too and have created Cubit, a make anything platform that allows drag and
drop software control over snap together hardware. Join Gizmag as we try a few builds to test out it out.
The development of 3D printer technology has been rapidly accelerating, boosted in a large part to the open source community and world-wide sharing of information. There are now literally dozens of brands of 3D printers on the market at all price points, but Buzz Technology Limited, out of London, is looking to stand out from the crowd with its Industrial Revolution III printer (or IR3 for short) that can embed wiring within plastic components using conductive material.
In the pursuit of ever-shrinking circuitry for nanotechnology electronics, increasingly smaller devices and components are being developed. Now researchers at the University of Konstanz and the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) claim to have micro-miniaturized the humble electrical switch all the way down to molecule size and proven its operation for the very first time. Unable to flick such a tiny switch mechanically, however, the researchers instead used light to turn it on.
Entrepreneurs in Denmark have taken another step towards improving the general usability of 3D printers with the Diamond Hotend, a single 3D extruder unit that can mix and melt three filaments together and produce items in a rainbow of colors.
Researchers from South Korea have developed a thin, highly-flexible film that could enable a new generation of wearable devices that wrap around your finger or wrist. The multiferroic film even amplified the properties inherent in the bismuth ferrite it was made from, and the enhanced properties were preserved when the film was curved into a cylindrical shape.
If electronic circuits could automatically reconfigure their internal conductive pathways as required, microchips could function as many different circuits on the one device. If many of these devices were then incorporated into larger pieces of equipment, such as robots, it is possible that self-sufficient, self-sustaining machines could change to suit their environment or even reconfigure broken or damaged pathways to repair themselves. Promising applications like these – and more – could one day be made possible if technology resulting from recent research into atomic manipulation at École polytechnique fédérale de Lausanne (EPFL) comes to fruition.
Getting into the Guinness Book of World Records isn't just about who can eat the most hotdogs or fly a paper airplane the highest
. Sometimes it involves technological breakthroughs with huge potential. Guinness has handed DARPA’s Terahertz Electronics program the award for the fastest solid-state amplifier integrated circuit. Developed by Northrop Grumman, the Terahertz Monolithic Integrated Circuit (TMIC) is a ten-stage common-source amplifier that cranks speeds of one terahertz (1012
Hz), or one trillion cycles per second.
In a conventional camera lens, the iris consists of a set of overlapping mechanical blades that control the amount of light entering the camera. As efficient as this mechanical system is, it is too bulky and too difficult to miniaturize to be incorporated in smartphones and other compact devices. To address this, a team of researchers has used "smart glass" to create a micro-sized electronic iris that may bring much greater image quality and flexibility to smartphone cameras.
We literally live in a wired world, with wires snaking hither and yon transmitting electricity and data. Many are visible, while many more are hidden in the walls of buildings, the panels of cars, and the fuselage of aircraft. Now, imagine; what if we were able to turn each and every one of these into a battery that not only transmitted electricity but stored it too? Well, two researchers from the University of Central Florida (UCF) imagined that too, and came up with a way to use nano-technology to make wires with supercapacitance that may eventually also double as batteries.