Full length articleGeneration of multigigahertz bright and dark soliton pulse trains
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Recent progress in optical dark pulses generation based on saturable absorber materials
2021, Optical Fiber TechnologyCitation Excerpt :Since the earliest demonstration of a dark pulse in optical fibers in the 80s [27–29] many efforts have been constantly applied in the generation of these optical structures. For example, we can mention the generation of dark pulses employing waveguide electro-optical modulators [30], by propagating for long distances [31], through induced modulational instability in a highly birefringent fiber [32], utilizing cross-phase modulation in a nonlinear optical loop mirror [33], by the cross-coupling between two different wavelength laser beams in a fiber laser [34], employing a passively mode-locked quantum dot diode laser [35], through a passive mode-locking mechanism that relies on a dissipative four-wave mixing process [36], generated by T-flip-flop circuits [37], by means of a fiber Bragg grating used as a passive filtering element at the output of a mode-locked laser [38], through a mode-locked laser with in-cavity pulse-shaper [39], among other methods [40–49]. This massive amount of approaches using different experimental configurations and techniques aimed to develop a methodology that would allow the generation of dark pulses in a simple, stable, and repeatable way.
A multi-wavelength optical source for synchronous and asynchronous data transfer at a minimum of 16 × 10 Gbps
2003, Optical Fiber TechnologyOptimization study for the generation of high-bit-rate spectrally enriched pulses for WDM applications
2002, Optics CommunicationsCitation Excerpt :However, the achieved peak power of the compressed pulse has to be above 1 W, which is the threshold for effective SC [19] with reasonable length of a low dispersion fiber. We preferred to use only SMF and DSF to achieve our objective because of the ease of availability of these fibers as compared to DDF and CDPF of appropriate profile [1,8,9,20]. The flavor of our simulation work is not just restricted to time domain analysis but it also includes phase, frequency and chirp analysis.
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University of Ottawa, Department of Electrical Engineering, Ottawa, Ontario, Canada K1N 6N5.