Integration by Selective Area Growth of Multiple Semi‐Insulating Buried Heterostructure‐Distributed Feedback Lasers with Optimized Performance Over 100 nm in the O‐Band

Author:

Afonso Gustavo1ORCID,Cerulo Giancarlo1,Vaissiere Nicolas1,Vakarin Vladyslav1,Elias Antoine1,Fortin Catherine1,Paret Jean-François1,Lanteri Delphine1,Mekhazni Karim1,Pommereau Frédéric1,Decobert Jean1

Affiliation:

1. III-V Lab, A Joint Lab of Nokia Bell Labs Thales Research and Technology and CEA LETI 1 Avenue Augustin Fresnel Palaiseau 91120 France

Abstract

The introduction of selective area growth (SAG) in a mature semi‐insulating buried heterostructure (SIBH) platform for the realization of photonic integrated circuits on monolithic InP has been demonstrated. A thorough determination of the relations between quantum well thickness, transition energies, and mask geometries is performed on dedicated wafers by means of extensive micro‐X‐Ray diffraction and microphotoluminescence measurements. Based on those results, SAG is used to grow, with a single epitaxy step, AlGaInAs multiple quantum wells heterostructures, to tailor the active regions of Fabry–Pérot and distributed feedback (DFB) lasers emitting in the O‐Band. SIBH DFB lasers are realized, exhibiting threshold currents < 7.2 mA (at 25 °C), and emitting over 100‐nm spectral range in the O‐Band.

Funder

Horizon 2020

Publisher

Wiley

Subject

Materials Chemistry,Electrical and Electronic Engineering,Surfaces, Coatings and Films,Surfaces and Interfaces,Condensed Matter Physics,Electronic, Optical and Magnetic Materials

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