Pico-second passively mode locked surface-emitting laser with self-assembled semiconductor quantum dot absorber

A. Garnache, S. Hoogland, A. Tropper, J. Gerard, V. Thierry-mieg, J. Roberts
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引用次数: 9

Abstract

Diode-pumped quantum-well vertical-external-cavity surface-emitting lasers (DP-VECSELs) have generated high average powers with circular diffraction-limited output beams, and short pulse operation. In this type of semiconductor laser, which is simple to manufacture, both the beam quality limitations of edge-emitting diode lasers and the power restrictions of electrically pumped surface-emitting lasers are overcome. It also does not require wavelength stabilization of the pump source, compared to solid-state laser systems. The laser mode area on the chip can be /spl sim/10/sup 4/ times larger than the one on the facet of an edge-emitting laser, offering scope for the generation of high average power and large pulse energy. The relatively small gain saturation fluence of quantum-well lasers implies that they can be passively mode-locked at repetition rates of several gigahertz with no tendency to Q-switching. Pulsed semiconductor lasers do not generally use the broad gain bandwidth to full advantage in the generation of picosecond pulses.
具有自组装半导体量子点吸收体的皮秒被动锁模表面发射激光器
二极管泵浦量子阱垂直外腔表面发射激光器(DP-VECSELs)具有圆形衍射限制输出光束和短脉冲操作,可以产生高平均功率。在这种易于制造的半导体激光器中,克服了边缘发射二极管激光器的光束质量限制和电泵浦表面发射激光器的功率限制。与固态激光系统相比,它也不需要泵浦源的波长稳定。该芯片上的激光模面积可达边缘发射激光器表面模面积的10倍以上,为产生高平均功率和大脉冲能量提供了条件。量子阱激光器相对较小的增益饱和影响意味着它们可以在几千赫兹的重复率下被动锁定模式,而不会有q开关的倾向。在产生皮秒脉冲时,脉冲半导体激光器通常不充分利用宽增益带宽。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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