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ASUS G75V: Ivy Bridge in 3D

The ultimate gaming machines, such as Alienware or ASUS G-series, have always provoked amazement among gaming-oriented notebook amateurs. Top-notch gaming systems packed in a relatively small casing...

The winning combo: Z77 and Ivy Bridge

The winning combo: Z77 and Ivy Bridge

We’ve recently presented you with three different motherboard models based on the latest Intel Z77 Express chipset, however, we weren’t able to perform thorough testing as usual, as we didn’t have a...

OCZ ZT 650W: More powerful than it looks

OCZ ZT 650W: More powerful than it looks

Although the market is pretty saturated as far as PSUs are concerned, with all segments well-covered, manufacturers are still churning out new models in the desire to satisfy the customers’ needs as...

HTC One X: Prodigy HTC

HTC One X: Prodigy HTC

Up until a year ago, the top-class smartphone signed by HTC was Sensation, with a dual-core CPU at 1.2 GHz and 768 MB RAM. In this moment, however, that would be HTC One X with a quad-core CPU at 1....

Toshiba Portege Z830: Lighter than air

Toshiba Portege Z830: Lighter than air

Ultrabooks may still be in the takeoff phase, but one thing is for sure – they’ll be getting more and more popular, and companies have the utmost belief in their market success at the end of the day...

Extra large sensation

Extra large sensation

The trend of increased smartphone display dimensions is still going on, making all manufacturers experiment further with all sorts of diagonals, trying to determine which one is ideal, while maintai...

Home - News - Misc - DNA to replace silicon in future
ImageDuke University engineer Chris Dwyer has a plan to replace the use of silicon within computers with DNA. The idea is to use DNA to coax circuits into assembling themselves could produce more logic circuits in a single day than the entire global silicon chip industry could produce in a month. Dwyer said that DNA is perfectly suited to pre-programming and self-assembly. He has worked out that by creating and mixing customized snippets of DNA and other molecules, he can create billions of identical, waffle-like structures that can be turned into logic circuits using light rather than electricity as a signalling medium.

What he does is add light-sensitive molecules called chromophores to the structures. These absorb light and get the electrons all excited within. That energy is passed to another chromophore, which uses the energy to emit light of a different wavelength and creates a logic gate. The great thing is that rather than needing electricity the DNA switches can run on light.

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