The Future Is Here Today...Robots, Genetics, AI, Longevity, Singularity

Damn. That's thin.

Damn. That's thin.

It’s hard to get excited about world records when they get broken every few months. The world’s thinnest TV last year was around a quarter of an inch thick. According to a recent press release, LG now has a LCD panel that is just one tenth of an inch. Set to debut at CES 2010 early next month in Las Vegas, the 2.6 mm thick LCD TV has a 42 inch screen, 1080p resolution, 120 Hz refresh and weighs just 4 kg. The device is so thin that it will require a separate box for the digital tuner. There are more pics of the slim TV after the break.

I got into a debate with a friend recently about whether the future of displays will be ultra-thin panels, augmented reality contacts, or sophisticated projectors. I must admit that the race towards thinner LCDs is giving credence to his belief in panels. LG’s latest TV isn’t much thicker than a coin and it seems likely that 2010 will see even thinner models from competitors. Organic LEDs and flexible surfaces could soon give us cloth-like displays that could be incorporated almost anywhere: furniture, walls, vehicles, etc. These surfaces are going to change our world into a fully interactive digital environment. So muster a little enthusiasm for the world’s thinnest TV from LG. It may not hold the title for long, but it’s another good step in the right direction.

Read More

Augmented Reality is getting much closer. This contact lens has embedded metallic circuits that could one day be used to project images directly onto your eye.

Augmented Reality is getting much closer. This contact lens has embedded metallic circuits that could one day be used to project images directly onto your eye.

When you drive your car your dashboard instruments display the speed, amount of fuel left, and distance traveled. You can use Google Maps on your smart phone to find restaurants, post offices, or other important landmarks all around you. Why can’t this sort of information be given to you all the time, streaming directly into your field of vision on a contact lens? That’s the question University of Washington Prof. Babak A. Parviz asks in his recent letter to IEEE Spectrum. Parviz and his team have been developing miniature circuits and simple LED displays and integrating these elements onto a contact lens-like polymer. They’ve tested them on rabbits who can wear the devices without harm. As Parviz points out, introducing Augmented Reality onto a contact lens is just a matter of time and effort.

Augmented Reality applications are starting to crop up everywhere, from table top games, to toy store displays. AR allows digital images and information to be blended with streaming video in real time. Using a computer screen or TV, the digital world and the real world overlap before your eyes. Pavik wants that statement to be literal: the overlap should be right before your eyes. As electronic elements become smaller and able to function at ultralow power, there should be little reason why electronics can’t function directly on your body. AR contact lenses could also record information too. Biosensors on your eye would be able to monitor your health and then display that data to you through the AR interface. These devices would not only grant you increased knowledge, they could lead to bionic eyesight. High powered cameras could beam their recorded images directly onto your eyes through the lens, letting you see further, sharper, better.
Read More

Here at the hub, we’ve posted a little bit on bendable, flexible OLED (organic light emitting diode) displays.  Until recently, it was a cool and remarkably expensive gadget that was destined for a life of prototypes and one-off displays.  Now, however, a joint project between Universal Display, a New Jersey company, and Arizona State University’s Flexible Display Center have shown that it is possible to produce these displays with the same technology that is currently used for LCD televisions.  Looks like flexible screens on cell phones and MP3 players might not be too far off in the future after all.

oled_flexible_lcd_display

More Flexible than Gumby

The new production process works on the same exact equipment as the LCD equipment but with a few tweaks.  The difference comes in the substrate used during the process.  For LCD televisions, the transistors that make the pixels light up are deposited on glass at high temperature.  But in order to make the flexible OLED screens, plastic must be substituted for the brittle glass.  That presented a problem as, at the normal temperatures of deposition, the plastic screen would melt away into a puddle of unhappy consumerism.  So the researchers turned down the temperature dial, a trick that is known to cause imperfections in the electronics.

Read More