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Andre Huard

Industrial Designer
Chip for Quantum Computing The two black squares are the qubits, or processor; the center meandering line is the quantum bus; and the lateral meandering lines are the quantum memory. Erik Lucero

Researchers on two continents are reporting two big breakthroughs in quantum computing today - a quantum system built on the familiar von Neumann processor-memory architecture, and a working digital quantum simulator built on a quantum-computer platform. Although these developments are still constrained to the lab, they're yet another sign that a quantum leap in computing may be just around the corner.

In the first study, researchers at the University of California-Santa Barbara say they've built the first working quantum computer chip based on the von Neumann system. Named for the engineer who designed the concept, the von Neumann architecture combines processors and memory, and it's the basis for every computer out there. (With one notable recent exception.)

This quantum CPU (quCPU?) is a big breakthrough, because quantum computers by definition are difficult to design. They're based on the concept of superposition - that a quantum bit, or qubit, can exist in two different states at once. Put another way, it can be a 0 or a 1 at the same time, and it can therefore perform calculations more quickly than a system based on 0 or 1. But it's hard to keep the qubits in a state in which this is possible, and interfering with them - i.e., reading their data - can destroy their superposition capabilities. So, a system that integrates random access memory into the qubits is a big step toward a working computer.

Researchers at UCSB super-chilled their quCPU to near absolute zero and performed a few calculations. Quantum information traveled back and forth among storage and processing elements, and the system performed pretty well - not perfectly, but it's a start. They also found that the quantum memory can retain information for much longer periods than the qubits, which is also a good sign.

Next, the team is trying to increase the number of quantum devices integrated on a single chip, and they're studying different metallic materials to make this easier, according to Physics World.

In another quantum paper, researchers in Austria report building the first working quantum simulator - kind of like a quantum computer, but different in scope. It can be used to model the behavior of quantum systems, which can potentially help improve quantum computers.

It would be useful for many reasons to model the behavior of quantum systems, but this is impossible with a traditional computer, as Richard Feynman figured out in 1982. It would take exponential time, with the system working more and more slowly as the calculations increased in number. For a general description of a quantum spin system with 300 particles, a computer would need more memory than exists in the world - even if all of the observable matter in the universe was processed into memory, as the Austrian researchers put it last year. But a quantum simulator, which can complete so many more calculations, would not experience this slowdown. To make one of these, you would have to very carefully control the setup of the simulator, and this is what the Austrians have done.

The team used six laser-cooled calcium atoms as qubits, and used laser pulses to initiate calculations. They found the system could simulate several types of interacting spin systems, according to Science magazine, which published both papers today. The simulator can be reprogrammed to simulate any type of quantum system, the researchers say.

Given breakthroughs like these, quantum computers may be closer than ever.

[Science, Physics World]

No one really knows who made the first hanger. Some believe President Thomas Jefferson used the first modern fore runner and others have pointed to more archaic forms that vaguely look like the modern hanger. We’ve seen some novel improvements since then. The Split Hanger continues to improve on this simply by enabling you to fold the hanger making it easier to slip in/out without stretching out the collar.

Designer: System Design Studio

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AMG Performance Series

Having the means to buy a performance automobile does not automatically come with the ability to drive it well. Few are as keenly aware of this correlation (or lack thereof) than Mercedes-Benz and its performance arm, AMG.

In addition to building some of the most capable performance cars on the market, AMG also operates the AMG Driving Academy at locations around the world to show its customers how to get the most out of their cars.

Courses ranges in price from $1,595 for a one-day 'Basic Training' class to $3,695 for a three-day comprehensive 'Pro Training' course. To give us a taste (and then some) of what's on offer, AMG has released a ten-part video series on YouTube covering the basic elements of what a driver needs to know, everything from proper seat adjustment to how to drift.

The series is hosted by experienced racer, television presenter and instructor Tommy Kendall, and it's worth taking the time to watch. Each segment is only three or four minutes long and can be found after the jump. Watch them, and you're sure to learn a thing or two. AMG is also giving away a free day at the academy for you and three friends on its Facebook page.

Continue reading AMG Driving Academy publishes ten-part driving course on YouTube

AMG Driving Academy publishes ten-part driving course on YouTube originally appeared on Autoblog on Wed, 24 Aug 2011 10:31:00 EST. Please see our terms for use of feeds.

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Checking blood glucose levels used to mean a finger prick and a test-strip, but researchers at the University of Tokyo are offering a different approach: a glowing skin implant. After being injected with the 1 mm wide filament, it monitors your blood sugar by glowing when your level changes. Based on existing glowing glucose sensor technology, this hydrogel fiber is considered more accurate and stable than its predecessors, plus it requires no oxygen to function. So far, it's worked in mice for up to 140 days. Note to future human patients: don't eat a candy bar before you go to bed unless you want your arm looking like a nightlight.

Glucose sensor skin implant glows when blood sugar spikes originally appeared on Engadget on Fri, 19 Aug 2011 04:24:00 EDT. Please see our terms for use of feeds.

Permalink meGadget  |  sourceUniversity of Tokyo [PDF in Japanese]  | Email this | Comments
Here's a nice little addition to Google Maps -- current weather conditions. The feature is live now on the site, accessible by clicking the weather layer on the upper right hand corner of a map. Selecting the feature will overlay conditions culled from Weather.com, anywhere in the world. The results include the temperature and icons for the sun, rain, clouds and the moon, when that part of the world goes dark. Also new is cloud coverage from the US Naval Research Lab. Video of new feature after the break for those who like piña coladas but can't stand getting caught in the rain.

Continue reading Google Maps adds current weather conditions for those who hate being rained on (video)

Google Maps adds current weather conditions for those who hate being rained on (video) originally appeared on Engadget on Thu, 18 Aug 2011 12:54:00 EDT. Please see our terms for use of feeds.

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HTV-2 in Flight You can't imagine the shutter speed our photographer had to use to capture this shot (kidding). DARPA

Last week, DARPA's HTV-2 (Hypersonic Technology Vehicle 2) Falcon vehicle launched to near-orbital speeds aboard a Minotaur rocket before beginning what was designed to be a Mach 20 glide back to earth, demonstrating the kind of hypersonic capability needed to deliver a payload anywhere in the world in an hour. Then, a few minutes into its flight, HTV-2's data transmitters went silent and so did the DARPA news stream feeding us the play-by-play.

Now we know what happened to HTV-2. Sort of.

HTV-2 separated from its Minotaur carrier rocket successfully and entered the descent phase of its flight with all systems looking nominal. But somewhere "post-perigee"--where it was supposed to start climbing again--HTV-2 encountered a flight anomaly that caused its autonomous systems to initiate a controlled termination of the flight. That is, the computer took over and crashed the hypersonic vehicle into the Pacific just as it was designed to do. Per DARPA director Regina Dugan via press release:

According to a preliminary review of the data collected prior to the anomaly encountered by the HTV-2 during its second test flight, HTV-2 demonstrated stable aerodynamically controlled Mach 20 hypersonic flight for approximately three minutes. It appears that the engineering changes put into place following the vehicle's first flight test in April 2010 were effective. We do not yet know the cause of the anomaly for Flight 2.

While not ideal news, don't miss the most important message there. HTV-2 achieved stable Mach 20 flight for about three minutes, gathering data all the way through. That's 20 times the speed of sound. And though DARPA isn't sure what the "anomaly" was, HTV-2 also demonstrated that its autonomous systems worked perfectly--at least according to DARPA. You can't have a rogue hypersonic missile out there roaming the skies out of control. When something went awry, HTV-2 offed itself in the controlled manner prescribed by its engineers.

So it wasn't a completely successful flight, but it was a successful crash. No word on where the program goes from here, but its unlikely DARPA is simply going to sit on that valuable hypersonic flight data. Expect something equally cool to be in the works in coming months.

[DARPA]

Flexible circuit pioneer John Rogers and his team are at it again. This time he's developing a wearable, ultra-thin circuit that attaches to your skin just like a temporary tattoo. The Epidermal Electronic System (EES) consists of circuits which could contain electrodes capable of measuring brain, heart and muscle activity in the same way an EEG does now, transmitting this data wirelessly to your doctor. Because it's flexible and bonds to the skin, it can be worn for extended periods, unlike traditional diagnostic pads used in hospitals today. In the lab, the devices were solar-powered with embedded photovoltaic cells -- heavier duty circuits would require inductive charging to be practical. Rogers' team also looked into the tech acting as a game controller (they wired it up to someone's throat and played Sokoban with voice commands, still managing to yield a 90 percent accuracy rate), but it's some way off from replacing your SIXAXIS. One of the problems encountered concerned RF communication -- perhaps they should get on the horn to their friends in Oregon and build those fashionable diagnostic pants we're eagerly waiting for.

EES packs circuits into temporary tattoos, makes medical diagnostics fashionable originally appeared on Engadget on Fri, 12 Aug 2011 23:52:00 EDT. Please see our terms for use of feeds.

Permalink Ars Technica  |  sourceScience Magazine  | Email this | Comments

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Ferrari Alcoa plant

As far as autoworker jobs go, putting together a Ferrari has got to be one of the plum gigs. The company is consistently rated as one of the best places to work in Europe, but if the pleasant atmosphere and long espresso breaks weren't enough, you get to go home at the end of the day knowing that you put together a Ferrari. Not a pickup truck, not an economy hatchback, but a Ferrari.

Unfortunately for most of us, that job isn't really feasible, but to give us a glimpse at what we're missing, Ferrari is apparently releasing a series of videos showing us what it's like inside its factory. Last week it was the engine assembly line, and this time it's the facility where the workers produce the frame.

The factory built in conjunction with aluminum giant Alcoa also happens to be the only Ferrari plant located outside the company's compound in Maranello - situated, as it is, in nearby Modena. Follow the jump to watch the ten-minute video to see the process unfold.

Continue reading How to build a Ferrari 458 Italia's body frame

How to build a Ferrari 458 Italia's body frame originally appeared on Autoblog on Fri, 12 Aug 2011 14:59:00 EST. Please see our terms for use of feeds.

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2012 bmw m5 walkthrough

You don't care about the outer skin. You don't care that it has Bluetooth. You've given a whiff of concern about what sound system it comes equipped with. No, you want to know what's going on under the body work, behind the wheels, beneath the hood and below the interior. You love engineering details, and BMWBlog has put together a trio of videos to feed your fix.

Today's subject: the 2012 BMW M5.

The videos bring you into and under the all new M sedan, and they are waiting for you after the jump. Grab a pencil, some graph paper and take in all of the nitty-gritty details.

Continue reading An engineer's tour of the 2012 BMW M5

An engineer's tour of the 2012 BMW M5 originally appeared on Autoblog 5.0 on Tue, 09 Aug 2011 12:32:00 EST. Please see our terms for use of feeds.

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Small colonies of swimming magnetic particles can self-assemble into micro-machines that can manipulate other particles, scientists report.

The particles can be remotely controlled to grasp and move other objects, which could enable precise and delicate fabrication processes that were previously not possible with machines.

The ferromagnetic particles are sandwiched between layers of water and oil, and they float around aimlessly in the absence of a magnetic field, according to researchers at Argonne National Laboratory. But when an alternating field is applied perpendicular to the liquid, the particles glom together into spiked circular shapes, which the researchers nicknamed asters (after the flower with similar appearance). The star-shaped formations deconstruct when the current is switched off.

Another magnetic field parallel to the surface manipulates the vortices around the asters, which makes the particles swim. Changing this magnetic field alters their movement, according to Alexey Snezhko and Igor Aronson, physicists at ANL. This allows them to be precisely controlled so they can complete certain tasks, Snezhko said - they've dubbed the asters "micro-robots."

The asters can swim around, open wide like Pac-Man and hug another object, transporting it to another spot. Watch the video below, wherein one aster curls up and transports a small glass bead across the field of view, with gracefully organic movement. The glass bead weighed four times that of the self-assembled aster, according to an ANL news release.

Most robots have a hard time gripping delicate objects; the balance between sensitivity and a forceful grasp is a major challenge for roboticists. So the ability to grasp tiny fragile objects could make the asters useful for microscale manufacturing.

The same team previously developed self-organizing filament chains that served as magnetic snakes, which involved magnetic microparticles floating on water. But those were too big, because the density difference between the water and the air above was too great, as Wired Science points out. In this case, the use of two liquids - oil and water - allowed Snezhko and Aronson to create smaller structures.

So far, the researchers can manipulate the asters to carry particles as small as 150 microns and as large as 3 millimeters, within sub-millimeter accuracy, Wired reports. They could someday be used for a wide range of processes, from fabrication to medicine. The research is published in Nature Materials.

[Argonne National Laboratory via Wired Science]