Stanford Calming Tech Center Wants to Keep Technology from Stressing Us out

One thing that I’ve personally experienced from living the always-connected 21st century lifestyle – your gadgets can stress you out. Whether it’s the pressure that you constantly need to check email, or that your boss might text you at three in the morning, it’s become almost impossible to distance yourself from the stressors of work and life if you’re carrying a smartphone. Now, a group of technologists at Stanford are working on a program to help decrease the stress caused by technology – and by life in general.

calming tech

The Stanford Calming Tech Center is focused on research and development of technologies which can help us better manage our stress, while decreasing the likelihood that gadgets become an added source of stress. I was recently introduced to this budding program while attending Further with Ford, an annual event which shares not only the auto manufacturer’s vision for the future, but provides access to technology and design thought-leaders to share their insights.

The Calming Tech program was founded by Neema Moraveji, who says that the stresses caused by our gadgets can affect your breathing. There’s even evidence that shows that checking your email can cause the same sort of irregular breathing caused by our fight-or-flight mechanism. So how can we decrease our stress levels in the connected world? While you could lock your devices away, that’s not always practical.

What Moraveji proposes is that we leverage our gadgets to help us live more consciously – through practices such as breathing exercises and meditation. His research shows that the introduction of “calmors” such as music, intentional distractions, and moments of mindfulness can make a difference. Among their projects, the Calming Tech team is working on a system called BreathAware, a biofeedback device that pairs with your wireless device to help you manage your breathing throughout the day.

In addition, the team is working on ideas for user interfaces which reduce stress, as well as tools which let users know how frequently they’re performing common tasks like reading emails. The lab also offers a regular course called “d.compress – Designing Calm,” which encourages students to create interactive technologies which reduce, rather than introduce stress.

It’s a very interesting field of study, and one well worth pursuing in my opinion. While I’m all for pervasive technology and connectivity, it is important that we don’t let them add new forms of stress to our lives.

Stanford’s Cookie Clearinghouse adds another layer of security to web browsers

DNP Mozilla Cookie Clearinghouse

People are becoming more vigilant when it comes to online privacy, so Stanford University’s new initiative couldn’t have come at a better time. The project, called Cookie Clearinghouse, will curate catalogues of websites whose cookies browsers should or shouldn’t allow. As designed, it works along with a Safari-like patch Mozilla is testing for Firefox that allows cookies from sites you’ve visited but blocks third-party cookies from sites you haven’t. Theoretically, that’ll prevent advertisers or other entities from tracking you around the web, but the method isn’t foolproof — having a centralized list will prevent your browser from saving the cookies of an ad or a spam website you’ve accidentally clicked on.

To establish which sites are kosher and which aren’t, the folks at Stanford are slated to meet up with an advisory board. It will be comprised of privacy researchers, law pundits, small business experts, as well as reps from Mozilla and Opera. Unlike Do Not Track — another Stanford initiative from which this one later evolved — advertisers don’t have to opt in for inclusion on either list. It’s just up to developers (other than Mozilla) to integrate this more thorough solution into their browsers’ privacy options.

[Image credit: Brian Richardson]

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Via: Ars Technica

Source: Brendan Eich, Stanford

The technology of Stanford’s Laptop Orchestra (video)

The technology of Stanford's Laptop Orchestra video

SLOrk’s not the most elegant name, so far as acronyms go, but Stanford’s weird and wonderful Laptop Orchestra wears it pretty well. The group dates back to 2008, an outgrowth of the school’s Center for Computer Research in Music and Acoustics, culled together from a mishmash of parts, including car speakers, pillows and salad bowls, led by future Smule co-founder Ge Wang. Fittingly, the project made an appearance at a party thrown by the darlings of the music app scene, and we took the opportunity to speak with club member (and computer music doctoral student), Spencer Salazar, who told us how SLOrk transformed a golfing game peripheral into an instrument for strange and ethereal music creation. Check out that video after the break.

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Source: SLORK

New Solar Panels Keep Buildings Cool In Direct Sunlight

Someday your home might be nice and cool in the middle of July without air conditioning. How? Some Stanford researchers have created a solar panel that cools buildings in direct sunlight. More »

Stanford researchers create genetic transistors, make biologic computing possible

Stanford researchers create genetic transistors, make biologic computing possibleWhen constructing computer circuits, most folks start with silicon and metal, but not the researchers at Stanford. The boffins in Palo Alto want to build computers out of living tissue, and to that end they’ve created a biological transistor, called the transcriptor. Transcriptors substitute DNA for semiconductors and RNA for the electrons in traditional transistors — essentially, the transcriptor controls the flow of a specific RNA protein along a DNA strand using tailored combinations of enzymes. Using these transcriptors, researchers built logic gates to derive true/false answers to biochemical questions posed within living cells. Using these bio-transistors, researchers gain access to data not previously available (like whether an individual cell has been exposed to certain external stimuli), in addition to allowing them to control basic functions like cellular reproduction.

This new breakthrough — when combined with the DNA-based data storage and a method to transmit DNA between cells the school’s already working on — means that Stanford has created all the necessary components of a biologic computer. Such computers would allow man to actually reprogram how living systems operate. Of course, they haven’t built a living genetic PC just yet, but to speed up its development, the team has contributed all the transcriptor-based logic gates to the public domain. Looking to build your own biologic computer? A full explanation of the transcriptor awaits below.

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Via: The Verge

Source: Stanford University, Science Magazine

When Every Student Realizes They Can Reply All and Spam Every Other Student It’s Fun for Everyone

When you connect a bunch of young college kids together on the Internet, any meeting eventually devolves into a crying mess of memes, Internet hall of fame pictures and a whole lot of trolling. So when students in Stanford’s computer science program realized that e-mailing one address would contact EVERY student, well, you bet it got real fun real fast. People were dropping tubgirl, rickrolls, meatspin and because it’s Stanford and it’s computer science, offering jobs at startups. More »

How Stanford’s Million-Core, Five Dimensional Super Computer Will Silence Jet Engines

The modern day jet engine may be powerful enough to shuttle travelers across a continent in just six hours but it’s also unbearably loud—for both the ground crews that work around them and residents within earshot of airports. And while aircraft engineers are developing quieter designs, building and testing these hushed prototypes can run into the six figures. But with the help of Livermore National Labs’ supercomputer and some open-source modeling software, commercial airliners may soon be whisper quiet. More »

Stanford seizes 1 million processing cores to study supersonic noise

Stanford commandeers 1 million processing cores to study supersonic noise

In short order, the Sequoia supercomputer and its 1.57 million processing cores will transition to a life of top-secret analysis at the National Nuclear Security Administration, but until that day comes, researchers are currently working to ensure its seamless operation. Most recently, a team from Stanford took the helm of Sequoia to run computational fluid dynamics simulations — a process that requires a finely tuned balance of computation, memory and communication components — in order to better understand engine noise from supersonic jets. As an encouraging sign, the team was able to successfully push the CFD simulation beyond 1 million cores, which is a first of its kind and bodes very well for the scalability of the system. This and other tests are currently being performed on Sequoia as part of its “shakeout” period, which allows its caretakers to better understand the capabilities of the IBM BlueGene/Q computer. Should all go well, Sequoia is scheduled to begin a life of government work in March. In the meantime, you’ll find a couple views of the setup after the break.

Stanford scientists commandeer 1 million processing cores to study supersonic noise

Stanford scientists commandeer 1 million processing cores to study supersonic noise

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Via: TechCrunch, EurekAlert

Source: Stanford

NASA’s Developing Robotic "Hedgehogs" to Explore a Martian Moon

Exploring micro-gravity climates like Mars, which has just 38 percent of the Earth’s force, or its moon, Phobos, which has 1000 times less gravity than that, can be a challenge for rovers that rely on wheels or skittering legs for traction. That’s why Stanford researchers plan to survey the Martian moon with an fleet of bounding, spiked spheres. More »

Stanford self-healing plastic responds to touch, keeps prosthetics and touchscreens in one piece

Stanford selfhealing plastic responds to touch, keeps prosthetics and touchscreens in one piece

Self-healing surfaces are theoretically the perfect solutions to easily worn-out gadgets, but our dreams come crashing down as soon as deliberate contact is involved; as existing materials don’t conduct electricity, they can’t be used in capacitive touchscreens and other very logical places. If Stanford University’s research into a new plastic polymer bears fruit, though, our scratched-up phones and tablets are more likely to become distant memories. The material can heal within minutes of cuts through fast-forming hydrogen bonds, rivaling some of its peers, but also includes nanoscopic nickel particles that keep a current flowing and even respond to flexing or pressure. The material is uniquely built for the real world, too, with resilience against multiple wounds and normal temperatures. While the polymer’s most obvious use would be for mobile devices whose entire surface areas can survive the keys in our pockets, Stanford also imagines wires that fix themselves and prosthetic limbs whose skin detects when it’s bent out of shape. As long as we can accept that possible commercialization is years away, there’s hope that we eventually won’t have to handle our technology with kid gloves to keep it looking pretty.

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Stanford self-healing plastic responds to touch, keeps prosthetics and touchscreens in one piece originally appeared on Engadget on Mon, 12 Nov 2012 01:55:00 EDT. Please see our terms for use of feeds.

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