We demonstrate third-harmonic generation (THG) in a dispersion-engineered slow-light photonic crystal waveguide fabricated in AMTIR-1 chalcogenide glass. Owing to the relatively low loss and low dispersion in the slow-light (c/30) regime, combined with the high nonlinear figure of merit of the material (∼2), we obtain a relatively large conversion efficiency (1.4×10(-8)/W(2)), which is 30× higher than in comparable silicon waveguides, and observe a uniform visible light pattern along the waveguide. These results widen the number of applications underpinned by THG in slow-light platforms, such as the direct observation of the spatial evolution of the propagating mode.This work was supported by the Centre of Excellence and Federation Fellows...
We experimentally investigate the slow light enhancement of nonlinear effects such as self-phase mod...
We present a summary of our recent experiments showing how various nonlinear phenomena are enhanced ...
We experimentally investigate the slow light enhancement of nonlinear effects such as self-phase mod...
We demonstrate third-harmonic generation (THG) in a dispersion-engineered slow-light photonic crysta...
We report third-harmonic generation in slow-light photonic crystal waveguides realized in chalcogeni...
We report visible (green) third-harmonic generation in silicon by launching near-infrared picosecond...
Using Fourier optics, we retrieve the wavevector dependence of the third-harmonic (green) light gene...
We demonstrate Third Harmonic Generation and tunable delays in dispersion engineered slow light phot...
Using Fourier optics, we retrieve the wavevector dependence of the third-harmonic (green) light gene...
We report visible (green) third-harmonic generation in silicon by launching near-infrared picosecond...
Optical nonlinearity can be enhanced by the combination of highly nonlinear chalcogenide glass and p...
Slow light has attracted significant interest recently as a potential solution for optical delay lin...
The growing speed and bandwidth requirements of telecommunication systems demand all-optical on-chip...
Slow light has attracted significant interest recently as a potential solution for optical delay lin...
Slow light has attracted significant interest recently as a potential solution for optical delay lin...
We experimentally investigate the slow light enhancement of nonlinear effects such as self-phase mod...
We present a summary of our recent experiments showing how various nonlinear phenomena are enhanced ...
We experimentally investigate the slow light enhancement of nonlinear effects such as self-phase mod...
We demonstrate third-harmonic generation (THG) in a dispersion-engineered slow-light photonic crysta...
We report third-harmonic generation in slow-light photonic crystal waveguides realized in chalcogeni...
We report visible (green) third-harmonic generation in silicon by launching near-infrared picosecond...
Using Fourier optics, we retrieve the wavevector dependence of the third-harmonic (green) light gene...
We demonstrate Third Harmonic Generation and tunable delays in dispersion engineered slow light phot...
Using Fourier optics, we retrieve the wavevector dependence of the third-harmonic (green) light gene...
We report visible (green) third-harmonic generation in silicon by launching near-infrared picosecond...
Optical nonlinearity can be enhanced by the combination of highly nonlinear chalcogenide glass and p...
Slow light has attracted significant interest recently as a potential solution for optical delay lin...
The growing speed and bandwidth requirements of telecommunication systems demand all-optical on-chip...
Slow light has attracted significant interest recently as a potential solution for optical delay lin...
Slow light has attracted significant interest recently as a potential solution for optical delay lin...
We experimentally investigate the slow light enhancement of nonlinear effects such as self-phase mod...
We present a summary of our recent experiments showing how various nonlinear phenomena are enhanced ...
We experimentally investigate the slow light enhancement of nonlinear effects such as self-phase mod...