Why need to convert UV in visible light? Many kinds of luminophor (inorganic i.e. stronger than DNA) already exist. About white light generation, the proper way is by RGB LEDs or quantium dots. Currently LED is the most efficient light source in the market. Excellent innovation would be if DNA had electroluminiscence properties, to convert directly power into light, like LE Poymer
Dr. Thomas Netzel, a former Chairman of the American Chemical Society wrote a technical review of Vulvox's DNA transistor concept, and stated that it will likely change the world in innumerable ways when three dimensional chips containing millions of times as many transistors as those in current chips show up in robots and speech translators that really understand English and in self driving and self navigating cars. They will be constructed from DNA and modified DNA made on solid phase synthesizers or by Vulvox's proprietary DNA synthesis process. That process can make DNA for nanoelectronics at a production cost hundreds of times less expensive than current methods. Vulvox has been a leader in this field. The same process can be used to manufacture DNA for gene therapy RNA for silencer RNA gene therapy.
DNA has been used to grow and assemble ZnO nanowires for piezo-electric sensors and to generate electricity from vibrations. Vulvox DNA made with our proprietary process might also be in big demand for DNA nanolithography, as a shadow mask to manufacture 2nm wide nanoelectronic circuitry. (click here for details) To view details on constructing DNA circuitry and nanochips, click the above picture. Dr. Netzel's technical review is available on request.
What I'd like to know is how they keep the DNA from breaking down due to... UV radiation. Wasn't that why we needed the ozone layer?
To answer the question upthread: Current white LEDs are actually blue LEDs with a fluorescent material to convert some of that blue light to green and red and so on--we can't make full-colour single LEDs without such trickery (yet). This makes for interestingly spiked colour spectrum diagrams--lots of blue, a deep trench, then a fairly nice bulge green to red. It's why LED flashlights currently give "off" coloured light. I'd like to see how these turn out, as they might actually give fairly even colour. Though you'd probably still need a UV filter to avoid eye damage.
I wonder how they plan to change the colour in-situ... they wouldn't be able to actively pump dyes in such minute quantities to get the LEDs to change colour for display applications. Furthurmore, the technology looks promising for Photonic computing.. but even there we might be able to bring about advancements by considering different frequencies... which are tedious in this case.... My guess is this technology will thrive in the basic applications.... like flashlights, glowing fabrics etc.
In every issue you’ll learn about new technologies and new ideas FIRST. You’ll read in-depth features that investigate how these technologies work. If you’re in charge of the strategic direction of your organization, or if you simply care where the road to the future is leading, you’ll benefit by subscribing today!
Dropping Zed at daycare. Wife: "He loves it here." Me: "At this price, it better be Russian hookers and smack the moment we're gone." 12/02/2009 08:16 PM
New Stem Cell Lines Eligible for Federal Funding: For hundreds of scientists,... http://www.technologyreview.com/blog/editors/24475/ 12/02/2009 05:00 PM
"In 1999, the vast majority of Americans didn’t know how to send or receive a text message on their cell phones" ...weird to think about... 12/02/2009 04:08 PM
Subscribe to Technology Review's daily e-mail update. Enter your e-mail address
Joro 05
4
DNA Light..
Excellent innovation would be if DNA had electroluminiscence properties, to convert directly power into light, like LE Poymer