IEEE Photonics Technology Letters · 2011 · 153 citations · 7 references
EngineeringElectrical EngineeringMaterials ScienceOptoelectronicsPhotonicsSemiconductor DevicesIii-v SemiconductorsIntegrated Circuit DevicesIntegrated OpticsIntegrated PhotonicsPhotonic Integrated CircuitsSemiconductor LasersContinuous-wave LasersIntegrated LasersIntegrated Optical WaveguidesIntegrated Semiconductor LasersIntegrated WaveguidesPower ConsumptionPower OutputSilicon Waveguides
We report on a heterogeneously integrated InP/silicon-on-insulator (SOI) laser source realized through divinylsiloxane-bis-benzocyclobutene (DVS-BCB) wafer bonding. The hybrid lasers present several new features. The III-V waveguide has a width of only 1.7 μm, reducing the power consumption of the device. The silicon waveguide thickness is 400 nm, compatible with high-performance modulator designs and allowing efficient coupling to a standard 220-nm high index contrast silicon waveguide layer. In order to make the mode coupling efficient, both the III-V waveguide and silicon waveguide are tapered, with a tip width for the III-V waveguide of around 800 nm. These new features lead to good laser performance: a lasing threshold as low as 30 mA and an output power of more than 4 mW at room temperature in continuous-wave operation regime. Continuous wave lasing up to 70°C is obtained.
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