Scalable transfer printing approach to heterogeneous integration of InP lasers on silicon-on-insulator waveguide platform

InP-based edge-emitting O-band lasers are integrated onto silicon photonics circuit employing micro-transfer printing technology. Blocks of unpatterned InP gain material of typical size 1000 × 60 μ m2 are first transferred onto 400 nm thick silicon rib waveguides with the fabrication steps performed on the target wafer to realize the final lasers. As a result, the InP ridge waveguides are aligned with lithographic accuracy to the underlying Si waveguides resulting in an approach free from any misalignment stemming from the transfer printing process. The fabricated Distributed Bragg Reflector laser shows lasing around 100 mA current injection with minimum 1 mW of output power coupled to a single mode fiber. This integration method paves a reliable route toward scaling-up the integration of active devices such as lasers, modulators, and detectors on 300-mm diameter silicon wafers, which requires high-uniformity across the wafer.

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Publication Details

Journal
Applied Physics Letters
Published
2024-08-19
DOI
https://doi.org/10.1063/5.0223167
Citations
10
Primary Topic
Photonic and Optical Devices
Type
article
Field-Weighted Citation Impact
2.09

Funders

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article

Scalable transfer printing approach to heterogeneous integration of InP lasers on silicon-on-insulator waveguide platform

Haisheng Rong, Duanni Huang, E. Pelucchi, Kevin Thomas et al.
10 citations
Applied Physics Letters
Photonic and Optical Devices
2.09
article

Scalable transfer printing approach to heterogeneous integration of InP lasers on silicon-on-insulator waveguide platform

Haisheng Rong, Duanni Huang, E. Pelucchi, Kevin Thomas, Harel Frish, Samir Ghosh, Owen Moynihan, J O'Callaghan, Brian Corbett
article en
10 citations

Abstract

InP-based edge-emitting O-band lasers are integrated onto silicon photonics circuit employing micro-transfer printing technology. Blocks of unpatterned InP gain material of typical size 1000 × 60 μ m2 are first transferred onto 400 nm thick silicon rib waveguides with the fabrication steps performed on the target wafer to realize the final lasers. As a result, the InP ridge waveguides are aligned with lithographic accuracy to the underlying Si waveguides resulting in an approach free from any misalignment stemming from the transfer printing process. The fabricated Distributed Bragg Reflector laser shows lasing around 100 mA current injection with minimum 1 mW of output power coupled to a single mode fiber. This integration method paves a reliable route toward scaling-up the integration of active devices such as lasers, modulators, and detectors on 300-mm diameter silicon wafers, which requires high-uniformity across the wafer.

Applied Physics LettersVol. 125(8)
Intel (United States) (US)
Intel Corporation, Science Foundation Ireland
Affordable and clean energy
Openalex Percentile: Top 13%
Photonic and Optical Devices
2.09
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Scalable transfer printing approach to heterogeneous integration of InP lasers on silicon-on-insulator waveguide platform — Haisheng Rong, Duanni Huang, et al. · Applied Physics Letters (2024) | TGRS Research Map | TGRS