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Design, simulation and analysis of laterally-longitudinally non-uniform edge-emitting GaAs-based diode lasers

By Jan-Philipp Koester

Design, simulation and analysis of laterally-longitudinally non-uniform edge-emitting GaAs-based diode lasers Computer Science

Design, simulation and analysis of laterally-longitudinally non-uniform edge-emitting GaAs-based diode lasers

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Description
Edge-emitting quantum-well diode lasers based on GaAs combine a high conversion efficiency, a wide range of emission wavelengths covering a span from 630 nm to 1180 nm, and the ability to achieve high output powers. The often used longitudinal-invariant Fabry-Pérot-type resonators are easy to design but often lead to functionality or performance limitations.In this work, the application of laterally-longitudinally non-uniform resonator configurations is explored as a way to reduce unwanted and performance-limiting effects. The investigations are carried out on existing and entirely newly developed laser designs using dedicated simulation tools. These include a sophisticated time-dependent laser simulator based on a traveling-wave model of the optical fields in the lateral-longitudinal plane and a Maxwell solver based on the eigenmode expansion method for the simulation of passive waveguides. Whenever possible, the simulation results are compared with experimental data. Based on this approach, three fundamentally different laser types are investigated:¿ Dual-wavelength lasers emitting two slightly detuned wavelengths around 784 nm out of a single aperture¿ Ridge-waveguide lasers with tapered waveguide and contact layouts that emit light of a wavelength of around 970 nm¿ Broad-area lasers with slightly tapered contact layouts emitting at 910 nmThe results of this thesis underline the potential of lateral-longitudinal non-uniform laser designs to increase selected aspects of device performance, including beam quality, spectral stability, and output power.
Product details
Binding:
Paperback
Edition:
1
Number of Pages:
170
Release Date:
2023-09-19
Publication Date:
2023-09-19
Publisher:
Cuvillier
Languages:
Original: English
ISBN10:
3736978820
ISBN13:
9783736978829
Weight:
229 g
Height:
148 cm
Width:
210 cm
Thickness:
9 cm
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