Tunable lasers for Continuous Wave and direct Frequency Modulation Hybrid integration of Indium Phosphide, optical amplifier and silicon photonic crystal

About


About

Conventional optical links combine narrow spectral linewidth lasers with long broad band optical modulators. These invariably consume large amounts of energy – a fundamental physical constraint of this approach and require custom-made power-hungry electrical drivers. Our new Silicon Photonics (SiP+) technology-based system is dramatically simpler in its implementation than the conventional competing approaches.

The SiP+ laser employs a revolutionary method that sees the laser wavelength automatically locked to an ultra-low capacitance PhC resonator that provides direct modulation. The laser is built around a large mode area optical waveguide platform enabling a modular structure that provides high performance Wavelength Division Multiplexing (WDM) capabilities and very efficient fibre coupling. This leads to a dramatic reduction in the amount of energy consumed and is compatible with standard off-the-shelf electronic drivers, thus reducing costs. Our “game-changing” technology allows transceivers to operate within the 40-1000Gbps range in a simplified and cost-effective manner and with an efficient power budget.

 



Key Benefits


Tunable lasers for Continuous Wave and direct Frequency Modulation
Hybrid integration of Indium Phosphide, optical amplifier and silicon photonic crystal
Low capacitance photonic crystal based tuning element
Wavelength defined by photonic crystal
Efficient power budget



 


Applications


Transceivers operating at up to 1 Terabit/s


 



IP Status

UK patent application No 1418637.3 covering the CW and FM photonics crystal laser technology.


 

Purchase a license for full unlimited access to all innovation profiles on LEO

  • Direct connection to thousands of more innovations
  • Access to market Experts and Universities
  • Filter relevant solutions into your own dedicated Network