320 GHz time-domain multiplexed pulses from quantum-dash mode-locked semiconductor laser diodes

R. Maldonado-Basilio, S. Latkowski, P. Landais
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引用次数: 1

Abstract

Quantum-dash (QDash) mode-locked (ML) Fabry-Pérot laser diodes have attracted significant interest in optical time-division multiplexing and wavelength-division multiplexing systems due to their variety of applications such as sub-picosecond pulse generation, frequency multiplication, multi-channel transmission, clock recovery, and clock generation [1–5]. In particular, clock generation has been demonstrated by using a programmable notch filter at the output of a 40 GHz QDash-ML laser [5]. Selection from two to three longitudinal modes at a given wavelength separation allows for the generation of sinusoidal clock signals at different repetition rates. In this work, an alternative approach based on optical time-domain multiplexing is experimentally investigated. Optical pulse-streams at 80, 160 and 320 GHz featuring optical signal-to-noise-ratios of 12, 9 and 6 dB, respectively, are obtained. Time-domain multiplexed pulses exhibit a full-width at half maximum (FWHM) of 1.8 ps irrespective of the pulse repetition rate.
来自量子冲刺锁模半导体激光二极管的320 GHz时域多路脉冲
Quantum-dash (QDash)锁模(ML) fabry - p激光二极管由于其在亚皮秒脉冲产生、倍频、多通道传输、时钟恢复和时钟产生等方面的多种应用,在光时分复用和波分复用系统中引起了极大的兴趣[1-5]。特别是,时钟产生已经通过在40 GHz QDash-ML激光器的输出端使用可编程陷波滤波器进行了演示[5]。从两个到三个纵向模式的选择,在一个给定的波长分离允许产生正弦时钟信号在不同的重复率。在这项工作中,实验研究了一种基于光时域复用的替代方法。得到了80ghz、160 GHz和320 GHz的光脉冲流,其光信噪比分别为12、9和6 dB。时域复用脉冲在半最大值时的全宽度为1.8 ps,与脉冲重复率无关。
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