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HOME | SITEMAP | CONTACT US 3 September 2010
Technology  
Introduction to P-OLEDs
How P-OLEDs Work - Chemistry
How P-OLEDs Work - Device Structure
Features and Benefits of P-OLEDs
Driving Schemes
  - Active and Passive Matrix drivers
  - Total Matrix Addressing (TMA)
Dendrimers
Applications
The Future
Glossary
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The Future

So what does the future hold for P-OLED technology?  What applications present the most exciting potential for the devices now being developed?

Here's just a few ideas which build on the versatility of light emitting materials.


GE lighting panel

Another goal for organic light emitting devices is to create sheets of paper-thin lighting that can be applied to whole wall surfaces.

 

 


 



Photo courtesy of GE Corporation


 

Photovoltaics

Devices which convert light into electricity are called photovoltaic (PV) devices, and are at the heart of solar cells and light detectors. CDT has demonstrated photovoltaic devices using its polymer semiconductor know-how and experience, and has filed key patents in the area.


Digital clocks powered by CDT's polymer solar cells


 

Mug Visual

The ability of P-OLEDs to be fabricated on flexible substrates opens up fascinating possibilities for formable or even fully flexible displays.







Photo courtesy of Dai Nippon Printing



 

Point of Sale - Packaging VisualEye catching packaging with changing information content at the point of sale would give many brand owners a valuable competitive edge.

 



 
Photo courtesy of Dai Nippon Printing


Perhaps the really surprising fact is that all these ideas and many more are already under development among the growing community now dedicated to exploiting the possibilities of P-OLED technology.

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