Submilliwatt optical bistability in wafer fused vertical cavity at 1.55-μm wavelength

We report on low-power optical bistability in a vertical cavity structure at 1.55-μm wavelength due to the bandgap resonant dispersive optical nonlinearity of InGaAsP. In this structure, a GaAs-AlAs Bragg reflector grown on GaAs and the nonlinear medium grown on InP are bonded through wafer-fusion,...

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Published inIEEE photonics technology letters Vol. 8; no. 4; pp. 539 - 541
Main Authors Jeannes, F., Patriarche, G., Azoulay, R., Ougazzaden, A., Landreau, J., Oudar, J.L.
Format Journal Article
LanguageEnglish
Published IEEE 01.04.1996
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Abstract We report on low-power optical bistability in a vertical cavity structure at 1.55-μm wavelength due to the bandgap resonant dispersive optical nonlinearity of InGaAsP. In this structure, a GaAs-AlAs Bragg reflector grown on GaAs and the nonlinear medium grown on InP are bonded through wafer-fusion, leading to a high-quality vertical cavity after deposition of a top dielectric mirror. This device shows interesting characteristics for optical switching applications at fiber communication wavelengths, such as a switching contrast higher than 8:1 in the reflective mode and a bistability threshold power as low as 0.6 mW. True steady-state memory effect is observed with continuous-wave input, and the device switching time is in the ns range.
AbstractList We report on low-power optical bistability in a vertical cavity structure at 1.55- mu m wavelength due to the bandgap resonant dispersive optical nonlinearity of InGaAsP. In this structure, a GaAs-AlAs Bragg reflector grown on GaAs and the nonlinear medium grown on InP are bonded through wafer-fusion, leading to a high-quality vertical cavity after deposition of a top dielectric mirror. This device shows interesting characteristics for optical switching applications at fiber communication wavelengths, such as a switching contrast higher than 8:1 in the reflective mode and a bistability threshold power as low as 0.6 mW. True steady-state memory effect is observed with continuous-wave input, and the device switching time is in the ns range.
We report on low-power optical bistability in a vertical cavity structure at 1.55-μm wavelength due to the bandgap resonant dispersive optical nonlinearity of InGaAsP. In this structure, a GaAs-AlAs Bragg reflector grown on GaAs and the nonlinear medium grown on InP are bonded through wafer-fusion, leading to a high-quality vertical cavity after deposition of a top dielectric mirror. This device shows interesting characteristics for optical switching applications at fiber communication wavelengths, such as a switching contrast higher than 8:1 in the reflective mode and a bistability threshold power as low as 0.6 mW. True steady-state memory effect is observed with continuous-wave input, and the device switching time is in the ns range.
Author Patriarche, G.
Ougazzaden, A.
Oudar, J.L.
Jeannes, F.
Azoulay, R.
Landreau, J.
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Cites_doi 10.1063/1.107972
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Snippet We report on low-power optical bistability in a vertical cavity structure at 1.55-μm wavelength due to the bandgap resonant dispersive optical nonlinearity of...
We report on low-power optical bistability in a vertical cavity structure at 1.55- mu m wavelength due to the bandgap resonant dispersive optical nonlinearity...
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StartPage 539
SubjectTerms Communication switching
Dispersion
Fiber nonlinear optics
Gallium arsenide
Indium phosphide
Nonlinear optical devices
Nonlinear optics
Optical bistability
Photonic band gap
Resonance
Title Submilliwatt optical bistability in wafer fused vertical cavity at 1.55-μm wavelength
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