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Development of micro-integrated diode lasers for precision quantum optics experiments in space39,00 €![Analysis of Spatio-Temporal Phenomena in High-Brightness Diode Lasers using Numerical Simulations]( "Analysis of Spatio-Temporal Phenomena in High-Brightness Diode Lasers using Numerical Simulations")
Analysis of Spatio-Temporal Phenomena in High-Brightness Diode Lasers using Numerical Simulations59,88 €![Analysis and mitigation of the factors limiting the efficiency of high power distributed feedback diode lasers (Band 27)]( "Analysis and mitigation of the factors limiting the efficiency of high power distributed feedback diode lasers (Band 27)")
Analysis and mitigation of the factors limiting the efficiency of high power distributed feedback diode lasers (Band 27)64,98 €![Realization of High Power Diode Lasers with Extremely Narrow Vertical Divergence]( "Realization of High Power Diode Lasers with Extremely Narrow Vertical Divergence")
Realization of High Power Diode Lasers with Extremely Narrow Vertical Divergence26,03 €![Flexible Generation of Picosecond Laser Pulses in the Infrared and Green Spectral Range by Gain-Switching of Semiconductor Lasers]( "Flexible Generation of Picosecond Laser Pulses in the Infrared and Green Spectral Range by Gain-Switching of Semiconductor Lasers")
Flexible Generation of Picosecond Laser Pulses in the Infrared and Green Spectral Range by Gain-Switching of Semiconductor Lasers22,60 €
High-power distributed feedback broad area (DFB-BA) lasers are key components for pumping narrow absorption bands in solid-state lasers and for brightness scaling in direct diode laser systems via dense spectral beam combining. Today, the market for these lasers is dominated by DFB-BA lasers with low-order Bragg gratings that are integrated via buried overgrowth techniques. A promising alternative are DFB-BA lasers with high order grat-ings that are directly etched into the p-side of the epitaxial layer structure, so that no interruption of the epitaxial growth process is required. Prior to this work, studies of such DFB-BA lasers were restricted to experimental proof-of-principal realizations. Further, adequate simulation tools were not available, as surface-etched gratings introduce a high refractive index contrast and can therefore not be calculated directly within the coupled mode theory (CMT). Hence, this work treats the development of efficient high-bright-ness DFB-BA lasers and laser arrays with surface-etched gratings at 975 nm. The development of these lasers encompasses three steps: First, a design study of high-brightness Fabry-Pérot laser diodes that are suitable for the integration of surface-etched gratings. Second, the implementation of an adequate numerical model for the simulation of high-order surface-etched DFB grat-ings. Therefore, a simulation based on CMT is extended by bi-directional eigenmode expansion and propagation modelling. And third, a comprehensive experimental study of spectrally stabilized high-brightness DFB-BA lasers. Optimized DFB-BA lasers (L = 6 mm, W = 30 µm) operate with 56% peak conversion efficiency and achieve 5.8 W output power with a slow-axis beam parameter product ¿ 1.8 mm×mrad, and a linewidth ¿ 1.0 nm.