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半导体激光器中因光学注射引起的定时动减少

María Duque Gijón, Ana Quirce, Jordi Tiana-Alsina

|November 1, 2023

概括

来自垂直腔表面发射激光器 (VCSEL) 的连续波光学注入 (OI) 可以在增益开关离散模式半导体激光器 (DML) 中减少高达70%的定时动. 然而,特定的脱离可能会意外地增加动.

科学领域:

光学和光子学在光学和光子学.
半导体激光器半导体激光器
激光动力学激光动力学

背景情况:

增益开关离散模半导体激光器 (DML) 对于高速光通信至关重要.
DML中的时机动限制了它们的性能,需要采取缓解策略.
光学注射 (OI) 是一种控制激光动态的潜在方法.

研究的目的:

实验性地研究连续波光学注入 (OI) 对增益开关DML的定时动的影响.
分析DML和注入VCSEL之间的不同温度调节的调节失调对定时动的影响.
为了比较OI诱导的计时动与DML的内在脉冲间计时动.

主要方法:

实验设置涉及增益开关的DML和用于光学注射的连续波VCSEL.
控制DML的温度,以系统地改变激光器之间的频率调节.
测量和分析时间动在一系列的脱火和比较与单独的DML动.

主要成果:

在OI下的DML中,在特定的脱离范围内,观察到高达70%的时间动的显著减少.
发现,减少动的有效性对VCSEL和DML之间的精确脱调非常敏感.
矛盾的是,在最佳范围内的某些调节值导致了计时动的大幅增加.

结论:

来自VCSEL的连续波光学注入提供了一种可行的方法,可以积极控制和减少增益切换DML中的定时动.
对频率调节的精确控制对于成功抑制动至关重要,因为低于最佳的调节可以加剧动.
这项研究突出了光学注射参数和激光动之间的复杂相互作用,为优化高速系统中激光性能提供了见解.

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