Laptop for gaming

www.designlaunches.com/gadgets/prime_gaming_laptop_is_awesome_for_gamers.php

If this kind of a lappie does go into production, I’m sure many gamers will ditch their regulars and go for this collapsible gaming laptop concept. Called the Prime Gaming Laptop and designed by Kyle Cherry, it’s a goldmine as far as I’m concerned. It features three collapsible screens that offer a wide viewing panel. When open, it has a 32:10 aspect for better in game visibility. It closes to the size of a 13″ notebook and opens to a supper wide aspect 26″ notebook. The main screen is a 10″ concealed OLED screen with 16:10 aspect. Both the left and the right screens are Aux OLED screens with 8:10 aspect.

The Prime laptop boasts of an aluminum body, which provides it strength and cooling. There is plenty of 2 CPUs and GPUs with large vents to prevent over heating.







Source

Shortcut Cheat sheet

http://www.gegeek.com/documents/649546B630371346316B2DAAD5D323C7F7B73A14.html

Sono, a noise cancelation and isolation device that sticks on your window

www.extremetech.com/extreme/170649-sono-a-noise-cancelation-and-isolation-device-that-sticks-on-your-window

If you’re the sort that needs peace and quiet to get anything done, escaping the noise pollution of every day life — regardless of where you’re located — is no easy task. A white noise machine can help, but in the end it’s still electronic noise, and unless you can afford a fancy sound system, the noise often sounds unnatural. A new device that sticks onto your window, Sono, will not only cancel real-world noise, but isolate the noises you’d prefer to hear, if any.
You live in a corner apartment, and your one, meager window faces a beautiful, serene park. However, in front of that park is a major metropolitan road, host to loud traffic throughout the day. If not for the constant stream of cars and barking dogs, the soothing sounds of chirping birds and the wind rustling through trees would make its way across the street and into your bedroom. You could put on some noise-canceling headphones, but then you’ll have a huge pair of headphones tying you down; music doesn’t do the job white noise does, either. With Sono, you can stick the device right on your window, and fiddle with some settings to either cancel out noise entirely, or cancel out the specific noises that are drowning out the peaceful ones.
As you may have guessed, Sono does sound too good to be true within the realm of modern day technology, and it isn’t a product you can go out and purchase at the moment. Rather, it’s a concept created by Australian industrial designer Rudolf Stefanich. Sono works by vibrating a window in a pattern counter to the vibrations caused by the ambient noise, essentially turning the surface into a noise-canceling speaker. During prototype testing, Sono’s transducer used active noise canceling to successfully lower the audio signal by 12 decibels — which would probably do a good job of blocking out quieter sounds in the 30-80 dB range, but you’d still definitely hear traffic and other loud sounds.

The device employs concentric broadband antenna rings, and can be charged through WiFi signals or the standard electric outlet, so your noise shield won’t unceremoniously lower in the middle of the night.
The strength of Sono is not that it can cancel out obnoxious ambient noises, but can still filter pleasant ambient noises through. So, not only can you still get the chirping birds and rustling leaves from that park across the street, but the sounds are natural — not some recreation on your phone that sounds very digital. Though Stefanich’s device is more of a concept than a tangible item, the theory behind the device was successfully tested with that aforementioned prototype. Sono is a finalist for the James Dyson Award, so it’s also getting a fair amount of recognition. Until Stefanich’s device can get production funding — and more testing, considering it sounds like it employs a dark magic to achieve the noise-filtering result — we’ll have to stick to our tinny-sounding white noise smartphone apps.

Oculus Rift

The Oculus Rift is a next-generation virtual reality headset designed for immersive gaming. Be part of history by getting your own Oculus Rift development kit.

http://www.oculusvr.com/

The future of simulation

Too much awesomeness in one video!

Hackers backdoor the human brain, successfully extract sensitive data

http://www.extremetech.com/extreme/134682-hackers-backdoor-the-human-brain-successfully-extract-sensitive-data
@see http://ceh.fav.cc/tag/hackers/


With a chilling hint of the not-so-distant future, researchers at the Usenix Security conference have demonstrated a zero-day vulnerability in your brain. Using a commercial off-the-shelf brain-computer interface, the researchers have shown that it’s possible to hack your brain, forcing you to reveal information that you’d rather keep secret.
As we’ve covered in the past, a brain-computer interface is a two-part device: There’s the hardware — which is usually a headset (an EEG; an electroencephalograph) with sensors that rest on your scalp — and software, which processes your brain activity and tries to work out what you’re trying to do (turn left, double click, open box, etc.) BCIs are generally used in a medical setting with very expensive equipment, but in the last few years cheaper, commercial offerings have emerged. For $200-300, you can buy an Emotiv (pictured above) or Neurosky BCI, go through a short training process, and begin mind controlling your computer.

Both of these commercial BCIs have an API — an interface that allows developers to use the BCI’s output in their own programs. In this case, the security researchers — from the Universities of Oxford and Geneva, and the University of California, Berkeley — created a custom program that was specially designed with the sole purpose of finding out sensitive data, such as the location of your home, your debit card PIN, which bank you use, and your date of birth. The researchers tried out their program on 28 participants (who were cooperative and didn’t know that they were being brain-hacked), and in general the experiments had a 10 to 40% chance of success of obtaining useful information (pictured above).
To extract this information, the researchers rely on what’s known as the P300 response — a very specific brainwave pattern (pictured right) that occurs when you recognize something that is meaningful (a person’s face), or when you recognize something that fits your current task (a hammer in the shed). The researchers basically designed a program that flashes up pictures of maps, banks, and card PINs, and makes a note every time your brain experiences a P300. Afterwards, it’s easy to pore through the data and work out — with fairly good accuracy — where a person banks, where they live, and so on.
In a real-world scenario, the researchers foresee a game that is specially tailored by hackers to extract sensitive information from your brain — or perhaps an attack vector that also uses social engineering to lull you into a false sense of security. It’s harder to extract data from someone who knows they’re being attacked — as interrogators and torturers well know.
Moving forward, this brain hack can only improve in efficacy as BCIs become cheaper, more accurate, and thus more extensively used. Really, your only defense is to not think about the topic — but if you’re proactively on the defensive, then the hacker has already messed up. The only viable solution that I can think of is to ensure that you don’t use your brain-computer interface with shady software, brain malware — but then again, in a science-fictional future, isn’t it almost guaranteed that the government would mandate the inclusion of brain-hacking software in the operating system itself?

Top Ten Cybernetic Upgrades Everyone Will Want

Science fiction, computer games, anime… cyborgs are everywhere. Transhumanists are philosophers who believe that one day, cybernetic upgrades will be so powerful, elegant, and inexpensive that everyone will want them. This report lists ten major upgrades that I think will be adopted by 2050.

The List

10. Disease Immunity

Between 20 and 40 years into the future, we will become capable of building artificial antibodies that outperform their natural equivalents. Instead of using chemical signaling that relies on diffusion to reach its target, these antibodies will communicate with rapid acoustic pulses. Instead of proteins, they will be made using much more durable polymers or even diamond. These antibodies will move through the bloodstream more quickly than other cells in the body, and will take up less space and resources, meaning that there will be room for many more.

Using super-biological methods for identifying and neutralizing foreign viruses and bacteria, these tiny robots will still function in harmony with our own bodies. They will probably be powered either by glucose, ATP (like natural antibodies), or acoustically. There are already bloodborne microbots today which are not rejected by the immune system — these are the precursors of tomorrow’s nanorobotics. Through their presence and continued operation, they will eliminate all susceptibility to disease in those who have them running through their veins. This will not make people immortal, but it will allow them to walk into a room contaminated with a flesh-eating virus in nothing but a pair of shorts and a T-shirt. For more on artificial antibodies and other body-integrated nanites, see Nanomedicine.

9. Telemicroscopic, Full-Spectrum Vision

There are microscopes that weigh one tenth of an ounce. Some birds of prey have vision so sharp that they can spot a hare a mile away. We have compact devices that can scan the electromagnetic spectrum from x-rays to radio waves, and everything in between. Our eyes in their current form can do none of these things. But in time, they will be upgraded. There are already prosthetic retinas that can provide low-resolution artificial vision for blind people.

It’s simply a matter of time until better prosthetic eyes are created, and their sharpness, contrast, and resolution is superior to what evolution gave us. The biggest challenge may end up not actually being about building a superior artificial eye, but remodeling the visual cortex so that it can process the info and relay it to the rest of the brain in such a way that it’s not overwhelmed.

8. Telepathy/Brain-Computer Interfacing

Ever wanted to send someone a message with nothing but your mind, or have a neural implant that gives your brain direct access to Google? Hundreds of corporate and academic labs across the world are working on projects that generate progress in this area. Check out the Berlin Brain-Computer Interface, which lets you move the cursor around on a screen with only your EEG waves and 20 minutes of training.

Miniature fMRI will allow us to continue increasing the bandwidth between brain and computer, eventually allowing for a “mental typewriter” that converts thoughts into text. A tiny transmitter could send this to a bone-conduction device on the receiving person, letting them hear the message without sound. NASA is also working on a device to transcribe silent, “subvocal” speech. Like many transhumanist upgrades, these will probably start as efforts to help people who are handicapped, then evolve into powerful tools that can be used by anyone bold enough to adopt them.

7. Super-Strength

Early in 2006, scientists at the University of Texas at Dallas, led by Dr. Ray H. Baughman, developed artificial muscles 100 times stronger than our own, powered by alcohol and hydrogen. Leonid Taranenko, the former Soviet weightlifter, holds the world record for power lifting a 266 kg (586 lbs) dumbbell. If Leo’s natural muscles were replaced with Dr. Baughman’s synthetic polymer muscles, he could lift 26,600 kg, or about 30 tons. That’s equivalent to this yacht, the Nova Spirit.

Super-strength is an interesting area in that the technology to do it has already been invented — the only step remaining is actually weaving the fiber into a human body — which, today, would be complicated and messy, not to mention probably illegal.

However, that doesn’t mean that it won’t be done, probably within the next couple decades. Further improvements to the process could make it safe for normal people, numerous ethics questions notwithstanding. One benefit of improved muscles is that we’d be far less vulnerable to unfortunate accidents. They could also provide armor against bullets or other forms of attack. One downside is that people could use them to bully others around. Guess the good guys will need even bigger muscles.

6. Improved Appearance

In general, there is a lot of agreement as to who is attractive and who is less so. Numerous experiments have shown that while there are slight subjective differences in who we want to get with, we are biologically programmed to look for certain facial and physical features that correlate with increased fitness.

For the time being, this is unavoidable. The only way to change it would be to reach inside our neural circuitry and start severing connections. Until we choose to do that, we can improve our own lives — and the lives of those who have to look at us — by looking as pretty or handsome as possible. We brush our teeth, keep fit, take showers, and all that other great stuff that helps us score.

Some of us even visit the plastic surgeon, with mixed results. Surveys show that certain procedures, like liposuction, have very high patient satisfaction rates. As the safety and precision of our body modification technologies improves, we’ll be able to change our faces and bodies with minimal fuss, and maximal benefit.

Everyone will be able to be stunningly attractive. And the really great thing? We’ll always be able to enjoy it. If everyone becomes attractive, we won’t regard the slightly less attractive of the lot as “ugly” — our brain doesn’t work that way. An attractive person is attractive, whether or not others are around. A planet full of attractive people could do a lot to improve our quality of life.

5. Psychokinesis

In the real world, psychokinesis is a bunch of wishful thinking and pseudoscience. Despite the roughly 30% of people who think that it’s possible to affect objects through the mind alone, history and evidence make it clear that this is total nonsense. There are no psychics and there never have been. However, that doesn’t mean that we can’t create technopsychics artificially.

By 2030, we’ll be cranking out utility fog — swarms of tiny machines that fly through the air and interlock with robotic arms. By combining brain-computer interfaces, like the type used by Claudia Mitchell to move her prosthetic arm, with utility fog, we will have direct-thought connections with powerful external robotics, allowing non-fictional psychokinesis. Utility fog, once all the necessary software for it is developed, will be capable of cooperating to perform practically any physical task or simulate a wide range of materials.

Because utility fog could be distributed at low density and still accomplish a lot, a room filled with utility fog would look empty, and people in it could move and breathe normally. They would only notice once the fog is activated — either by a central computer, or a neural interface. Once a connection is achieved, practically anything could be accomplished with the proper programming. Throwing objects through the air, hovering over the ground, cracking an egg from across the room, materializing orbs of energy — all the antics we’ve always wanted to perform, but never had the means to.

4. Autopoiesis/Allopoiesis

Autopoiesis is Greek for self-creation. Allopoiesis is other-creation. Our body engages in both all the time — we start as a fetus that creates itself until it becomes an adult, then, essentially stops. Our body produces things external to itself, but usually involving an extended process of cooperation with thousands of other human beings and the entire economy.

In the future, there will be cybernetic upgrades that allow for personal autopoietic and allopoietic manufacturing, probably based on molecular nanotechnology. Using whatever raw material is available, complex construction routines, and internal nanomanufacturing units, we’ll be able to literally breathe life into dirt. If our arms or legs get blown off, we’ll be able to use manufacturing modules in other parts of our body to regenerate them. Instead of building robots in a factory, we’ll build them ourselves. The possibilities are quite expansive, but this would require technology more sophisticated than anything discussed thus far in this list.

3. Flight

Human flight, outside of an airplane… this was recently achieved by former military pilot Yves Rossy, who flew 7,750 ft above the Alps in his 10 ft wide, self-designed aerofoil. You can see a video of it here. The airfoil weighs only 110 lbs and cost just under $300,000.

Over the next few decades, the weight will come down, the strength and flexibility will go up, and eventually it will be difficult to distinguish between people in aerofoils and people that can just fly whenever they want.

Using high strength-to-weight materials like fullerenes, we will fly using wings that weigh only a fraction of our own weight and fold into our clothing or body when not in use. Rossy achieved speeds of 115 mph, but with superior materials and greater tolerance for acceleration and wind, our cybernetic flight speeds are more likely to top 500 mph. To take off from the ground, we’ll simply use our super-muscles to jump to the highest object around and begin our flight from there. With personal flight, commercial airliners will become obsolete. The only problem left will be dodging each other.

2. Superintelligence

When we think of superintelligence, we tend to think of the ways it is portrayed in fiction — the character able to multiply 6 fifty digit numbers in his head, learn ten languages in a month, repeat the catch phrase “That’s not logical”, and other tired cliches. True superintelligence would be something radically different — a person able to see the obvious solution that the entire human race missed, conceive of and implement advanced plans or concepts that the greatest geniuses would never think of, understand and rewrite its own cognitive processes on the most fundamental level, and so on.

A cybernetic superintelligence would not just be another genius human, it would be something entirely superhuman — something that could completely change the world overnight. For the same reason that we can’t write a book with a character smarter than ourselves, we can’t imagine the thoughts or actions of a true superintelligence, because they’d be beyond us. Whether it is developed through uploading, neuroengineering, or artificial intelligence, remains to be seen.

1. Immortality

The ultimate upgrade would be physical immortality. Everything else pales by comparison. Today, there are already entire movements based around the idea. Realizing the possibility of immortality requires seeing a human being as a physical system — composed of working parts that cooperate to make up the whole, some of which have the tendency to get old and break down.

Cambridge biogerontologist Aubrey de Grey has identified seven causes of aging, which are believed to be comprehensive, because its been decades since a degenerative process has occurred in the body with an unknown cause. Defeating aging, then, would simply require addressing these one by one. They are: cell depletion, supernumerary cells, chromosomal mutations, mitochondrial mutations, cellular junk, extracellular junk, and protein cross-links. A few pioneering researchers are looking towards solutions, but accepting the possibility requires looking at aging as a disease and not as a necessary component of life.

Brain-Computer Interfaces for Manipulating Dreams

Fonte: http://lifeboat.com/ex/brain-computer.interfaces

A first-generation commercial brain-computer interface (BCI) is being released by Emotiv Systems later this year. What does the future hold for BCI?

By 2050, and likely sooner, you will be able to buy a BCI device that records all your dreams in their entirety. This will be done in one of two ways. One method would be to use distributed nanobots less than a micrometer in diameter to spread throughout the brain and monitor the activation patterns of neurons.

By this point, cognitive science will have advanced enough to know which neural activation patterns correspond to which sensory experiences. This has already been done with cats (using electrodes, not nanobots), where researchers led by scientist Garrett Stanley were able to extrapolate what a cat was seeing merely by monitoring the neurons of its visual cortex. Here are some images they obtained:



The next steps will be to increase the resolution, add monitoring of emotions, sounds, and smells, and make it safe for human use. An alternative route, if nanobots are still not ready for commercial deployment by 2050, is to have minimally invasive surgery where tiny holes, no larger than a grain of sand, are drilled in the skull. (Small price to pay, I’d say. And if drilling holes in the skull, even holes too small to do any damage, bothers you, then wait for the nanobots.)

Electronic nanofibers could be routed through these holes from a port on the outside to neurons throughout the brain. The holes could be protected by a plastic membrane, ensuring that no foreign particles could pass through them into the brain. The access ports on the scalp would be compatible with a BCI headset designed to monitor activity in specific neural groups and selectively stimulate neurons according to a program.

A major challenge, of course, would be to get FDA approval for such a device. The therapeutic and practical benefits of a high-resolution BCI device are so large that if it can be shown not to cause any damage or negative side effects to its user, approval seems likely.

If the BCI device offers input to the brain as well as recording output, then dreams could be played back too. A Dream Machine would let us show our dreams to others. If we know which neural activation pattern corresponds to which perceptions (sight, sounds, etc.), it’s not a huge leap to selectively stimulate neurons to produce customized dream scenarios, or even enter the dreams of others in action. (In ascending order of technological difficulty.)

Manipulating our dreams… how many thousands of years has humanity waited for this? Here’s a frequent kind of background I see in my dreams:


…other things I see include gigantic academic complexes, cliff networks, green hills overlooking sunny blue bays, and many others. I’m sure you can imagine hundreds of scenarios from your dreams, many of which seem so fleeting. But it won’t necessarily be that way forever.

The possible societal effects of a Dream Machine would be immense. Dream recordings and recreations would offer an opportunity to:

1) Validate or refute Freudian theories about the connections of dreams to subconscious or conscious psychological states.

2) Create a “science of dreams” or oneirology, that organizes all available dream data, breaks up dreams into categories, studies which type of people get which dreams, etc.

3) Create a “dream entertainment industry” where people choose to have customized dreams, with features like greater visual complexity or richness of colors, or even massively multiplayer dreams.

4) The possible rise of “dream celebrities” — people who freely upload their dreams for others to examine, followed by a positive reception. People might lead double lives — boring accountant by day, world-famous lucid dreamer by night. Some people might even get paid for their dreams.

5) Uncover the hidden world of dreams that barely rise above our subconscious. People tend to have several dreams per night, but remember only one or two. We experience these dreams when they happen, our brain just neglects to transfer the information content into long-term memory. (The reasons for this are likely evolutionary — we would get confused about reality if we remembered too many of our dreams.) Imagine if we could record all these dreams and play them back at will. With enough storage density (molecular memory), you could even store your dreams on a pendant around your neck.

6) Convert dream-worlds into real-worlds; amusement parks based on dreams, or utility fog banks that quickly morph in response to a given personal or collective dreamscape. Or vice versa: turn real world places and people into dream objects.

7) In general, blur the line between dreams and reality by making dreams more tangible, manipulable, interactive, customizable, and social. Bring dreams “in from the cold”. Make dreams as mysterious, colorful, productive, foreign, erotic, or mundane as you want them to be.

Considering these possibilities, the first thing that makes me nervous is that people would institute inappropriate regulations over the use of this technology. For instance, some groups of people might hate the idea of removing some of the “mystery of dreams” (like how modern biology ostensibly dispels some of the mystery of life, or modern physics dispels some of the mystery of nature) through technology. As someone who is socially liberal, barring sufficiently negative externalities, I’d advocate light regulation on this technology. Heavy regulation should be saved for more dangerous technologies such as synthetic biology and molecular nanotechnology.

Possible risks:

1) If dreams start to be run on servers, hacking or computer viruses could be a problem. In most cases, this would likely just result in the dream shutting down (not a big deal — this already happens all the time), but if your dream got hijacked, someone could use them to threaten or attempt to brainwash you. This is what doubters will focus on excessively — but remember, our brain and body is already accessible to “viruses” — including real viruses, bacteria, prions, and parasites, but we manage to defend against them.

Eventually, we will develop computers with technological immune systems as complex and effective as the human immune system, it will just take time. Even if dream-recording BCI devices are possible, dream-manipulating BCI devices may have to wait until computer security catches up.

2) Communication through dreams could make it more difficult for parents to control their children, or for regimes to control their populations, by opening up the information channels they have access to. In this regard, the challenge would be similar to a magnified version of the struggles already seen with the Internet in general.

3) A “delightful dream” so thoroughly enjoyable and amazing that it spreads across the world, and all humanity is consumed by it. From that point onward, we only develop our civilization for the purpose of maintaining this euphoric state, a local maxima in the fitness landscape of cultural progress and evolution. This might be a dream that involves direct stimulation of the pleasure center. (For this reason, it might be good to avoid building BCI devices that directly stimulate the pleasure center.)

The “delightful dream” scenario would be considered a subset of wireheading. It might be more notorious, though, because while many people wouldn’t stick electrodes into their head just to stimulate their pleasure center, they might be willing to use a Dream Machine, which could get them trapped in a wirehead addiction when they otherwise would avoid it.

Those are the main risks I can think of, but there are likely more. One thing is for sure — if we can avoid the risks and maximize the benefits, the world will be a very interesting place in 2050.

Sweet dreams!

E-inkey Keyboard Concept

 Una tastiera a inchiostro elettronico che cambia l'immagine a seconda del programma aperto? Why not!

 

I-Cocoon

FANTASTICA! DATEMELA SUBITO!
Fonte:www.yatzer.com/Immersive-Cocoon-Step-Into-The-Future-MIT-Media-Lab-NAU/

The world of interfaces continues to evolve and surprise us. We still think of it as something we can hold, fold and place in our bag to carry anywhere. What if you can be part of an intuitive and holistic experience where your interface is not reduced to a mouse-click or a two dimensional tablet screen. Welcome to the Immersive Cocoon, a surround display dome with sophisticated motion sensor technology that inspired  the technology depicted in 'Minority Report'. Now your body becomes the interface, as you are enveloped and your body movement becomes part of this digital environment to make our everyday lives more enjoyable, at least that is what this conceptual project tries to explore.

Immersive Cocoon "2011" from adNAU on Vimeo.