Continuous Wave Mid‐Infrared Lasing from Single InAs Nanowires Grown on Silicon

Abstract Extending the emission wavelength of III‐V nanowire (NW) lasers grown on silicon into the mid‐infrared (MIR) spectral range has strong potential for applications. Examples include optical sensing and metrology, as well as integrated silicon photonics for information technologies. NW‐lasers with continuous wave (CW) operation, have remained, however, scarce in the MIR due to significant material physics challenges, and intrinsic effects such as Auger recombination that limit the radiative efficiency. Here, the CW operation of single InAs NW‐lasers site‐selectively grown on Si with emission in the range of 2.4–2.7 µm is reported. The cavity design is optimized via simulations of the threshold material gain and the parameters for selective area growth to minimize the modal gain for the TE 01 optical mode. For NW diameters exceeding 700 nm, lasing under CW optical pumping with low thresholds of 1.4–27 kW cm −2 are obtained from 10 to 90 K for NW lengths ranging from 9–30 µm. The observed lasing behavior is quantified by the observation of clear positive net modal gain (630 cm −1 ) obtained using Hakki‐Paoli analysis. These findings mark an important advancement in the development of nanolasers for integrated MIR photonics.

Authors

Institutions

Publication Details

Journal
Advanced Functional Materials
Published
2024-09-27
DOI
https://doi.org/10.1002/adfm.202414046
Citations
2
Primary Topic
Photonic and Optical Devices
Type
article
Field-Weighted Citation Impact
0.42

Funders

Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

Continuous Wave Mid‐Infrared Lasing from Single InAs Nanowires Grown on Silicon

Steffen Meder, Gregor Koblmüller, Jonathan J. Finley, Jona Zöllner et al.
2 citations
Advanced Functional Materials
Photonic and Optical Devices
0.42
article

Continuous Wave Mid‐Infrared Lasing from Single InAs Nanowires Grown on Silicon

Steffen Meder, Gregor Koblmüller, Jonathan J. Finley, Jona Zöllner, Paul Schmiedeke, Fabio Giudice, D. Busse, Benjamin Haubmann
article en
2 citations

Abstract

Abstract Extending the emission wavelength of III‐V nanowire (NW) lasers grown on silicon into the mid‐infrared (MIR) spectral range has strong potential for applications. Examples include optical sensing and metrology, as well as integrated silicon photonics for information technologies. NW‐lasers with continuous wave (CW) operation, have remained, however, scarce in the MIR due to significant material physics challenges, and intrinsic effects such as Auger recombination that limit the radiative efficiency. Here, the CW operation of single InAs NW‐lasers site‐selectively grown on Si with emission in the range of 2.4–2.7 µm is reported. The cavity design is optimized via simulations of the threshold material gain and the parameters for selective area growth to minimize the modal gain for the TE 01 optical mode. For NW diameters exceeding 700 nm, lasing under CW optical pumping with low thresholds of 1.4–27 kW cm −2 are obtained from 10 to 90 K for NW lengths ranging from 9–30 µm. The observed lasing behavior is quantified by the observation of clear positive net modal gain (630 cm −1 ) obtained using Hakki‐Paoli analysis. These findings mark an important advancement in the development of nanolasers for integrated MIR photonics.

Advanced Functional MaterialsVol. 35(4)
Schott (Germany) (DE), Technical University of Munich (DE)
QuantIC, Technische Universität München, Horizon 2020 Framework Programme, European Research Council, International Graduate School of Science and Engineering
Openalex Percentile: Top 38%
Photonic and Optical Devices
0.42
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.