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All-optical wavelength reservation for flexible spectrum networks using amplifier saturation and VCSEL injection

机译:使用放大器饱和度和VCSEL注入的灵活频谱网络的全光波长预约

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Shukree Wassin$1George M. Isoe$1Andrew W. R. Leitch$1Tim B. Gibbon$1 $1Nelson Mandela University, Centre for Broadband Communication, Department of Physics, Port Elizabeth, South Africa; shukree.wassin@mandela.ac.za;;;; Advanced metro-access WDM optical fiber telecommunication networks use integrated wavelength switching nodes to provide efficient, flexible wavelength allocation along the link. Recent developments, together with the increase in bandwidth intense applications, have sparked great interest in flexible, grid-like optical network systems. Flexible spectrum optical network systems with nonstatic channel bandwidth, wavelength allocation, switching, and routing permit the optimum distribution of data with variable rates and modulation formats. We describe a unique technique for all-optical wavelength reservation at a forwarding flex spectrum node. The outgoing signal is locked to the incoming signal at the node, thereby guaranteeing automatic wavelength reservation and allocation. A saturated erbium-dope fiber amplifier (EDFA) is used to erase data from the incoming signal, which is then used to lock the wavelength of the forwarding node through vertical cavity surface emitting laser injection. The EDFA is shown to reduce the extinction ratio of the incoming signal from 7.3 dB to less than 1 dB (560 mdB). We show automatic wavelength reservation over 1.68 nm within the C-band, with 25.5-km transmission over G. 655 single mode fiber. Considering 50-GHz per-channel bandwidth allocations, this technique translates to four-channel operation in a typical metro-access type configuration. flexible spectrum; vertical cavity surface emitting lasers; optical fiber; EDFA.
机译:Shukree Wassin $ 1George M. Isoe $ 1Andrew W. R. Leitch $ 1tim B.Gibbon $ 1 $ 1nelson Mandela大学,宽带通信中心,物理系,南非伊丽莎白港北非北部; shukree.wassin@mandela.ac.za ;;;;高级地铁接入WDM光纤电信网络使用集成的波长开关节点来提供沿链路的高效,灵活的波长分配。最近的发展,以及带宽激烈应用的增加,对灵活的网格光网络系统引起了极大的兴趣。具有非静态信道带宽,波长分配,切换和路由的灵活频谱光学网络系统允许具有可变速率和调制格式的数据的最佳分布。我们描述了在转发Flex谱节点处的全光波长预留的独特技术。输出信号被锁定到节点处的输入信号,从而保证自动波长预约和分配。饱和铒掺杂光纤放大器(EDFA)用于擦除来自输入信号的数据,然后通过垂直腔表面发射激光喷射来锁定转发节点的波长。显示EDFA将输入信号的消光比从7.3 dB降低至小于1 dB(560 MDB)。我们在C波段内显示自动波长预留超过1.68纳米,超过G.655单模光纤传输25.5公里。考虑到50-GHz的每个通道带宽分配,该技术转换为典型地铁访问类型配置的四通道操作。灵活的光谱;垂直腔表面发射激光器;光纤; edfa。

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  • 来源
    《Optical engineering》 |2019年第4期|046110.1-046110.8|共8页
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  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);
  • 原文格式 PDF
  • 正文语种 eng
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