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CURRENT PROJECTS

 3QN
 
 AQuaSec
 
 Channel Optimised Distributed PSN
 
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 EPSRC Quantum Communications Hub
 
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PREVIOUS PROJECTS

 ACCESS
 
 AVAGO
 
 BASIC TECHNOLOGY
 
 BOEING RFID
 
 BONE
 
 BRIGHTER.EU
 
 CIKC
 
 COPOS II
 
 COSMOS
 
 ePIXnet
 
 EUROPIC
 
 FEMTOBLUE
 
 HIPNET
 
 INTERNET
 
 iPHOS
 
 LAGEMOSYS
 
 MUSIC
 
 NDFIS - Aurora II
 
 PARADIGM
 
 Quantum Technology Hub for Quantum Communications
 
 SCIENCE BRIDGE AWARD
 
 STAR CHIST-ERA
 
 STOIC PIES PSIAC
 
 TINA
 
 TUCAN
 
 Ultrafast Laser Plasma Implantation
 
 UP-VLC
 
 VISIT
 

Vertically Integrated Systems for Information Transfer: VISIT

Objective:

The proposed STREP focuses on strategic, high-value photonic components and subsystems for scalable economic broadband access and local area networks. The central objective is research on, development, test and exploitation of system-enabling optical transmitters having a completely novel design and/or largely improved functionality as compared to the state of the art.

The proposed STREP focuses on strategic, high-value photonic components and subsystems for scalable economic broadband access and local area networks. The central objective is research on, development, test and exploitation of system-enabling optical transmitters having a completely novel design and/or largely improved functionality as compared to the state of the art.

Three key design and performance advancements will overcome limitations of present devices to become future-proof drivers of the European photonics industry: A novel nanophotonic approach of vertical integration of an electro-optic reflectance modulator and a laser implemented into:

Vertically Cavity Surface Emitting Lasers based on Electro-Optically Modulated Bragg Reflector and

Edge emitters based on Electro-Optically Modulated Tilted Wave Lasers constituting the basis for future access, local (LAN) and storage area (SAN) networks capable to speeds well beyond 40Gb/s.

For applications at 16-40Gb/s (Fibre Channel, InfiniBand standards) a new generation of directly-modulated VCSELs will be developed to bridge the intermediate bandwidth demand in the fastest possible time frame.

Epitaxial growth of these structures, processing and design of high-frequency modules will be challenging and demand detailed modelling. The wavelength ranges to be covered are 850nm, 980nm, and 1.3nm. While 850nm (LAN, SAN) and 1300nm (LAN, Access Networks) ranges are standard for applications, 980 nm devices may play an important role for very short links.

Low power driver circuitry, as well as system integration and performance requirements will be also dealt with within this project. Upon completion a full supply chain from production of epitaxial wafers to test beds for measurements and prototype systems will be established. The economic impact of this work will be systematically enhanced by contributing directly to international standardization activities and roadmaps of this area.

For further information visit http://www.subtune.eu/home/liblocal/docs/VCSEL_DAY_2010/Overview_of_the_EC_FP7_VISIT_Project_VCSEL_Day_Torino_07May10.pdf

 
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