2002Unpublished venueRequires access

Micromachines for optical networking

David T. Neilson

Open publisher page 1 citations

Abstract

Summary form only given. Lightwave communication systems use fiber-optics to transport signals between nodes, and will use optical layer networking to optimally manage signal paths under normal and disrupted network conditions. New micromachine devices (MEMS) are poised to significantly impact the advancement of both networking and transmission. The deployment of MEMS based optical cross connects, such as Lucent's LambdaRouter, allow network flexibility in the optical domain and open the path to optical layer networking. Optical wavelength add-drop switches are a key component in the emerging ultra long haul (>2000km) transmission systems and will expand the optical layer traffic management. The conversion of the optical layer from one of static links to dynamic reconfigurable network will require that the optical transmission system characteristics are reconfigurable. Demonstrations of MEMS variable attenuators, optical spectrum equalizers and dispersion compensators show the potential for robust signal transport in such networks.

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What this paper is about

Summary form only given. Lightwave communication systems use fiber-optics to transport signals between nodes, and will use optical layer networking to optimally manage signal paths under normal and disrupted network conditions. New micromachine devices (MEMS) are poised to significantly impact the advancement of both networking and transmission. The deployment of MEMS based optical cross connects, such as Lucent's LambdaRouter, allow network flexibility in the optical domain and open the path to optical layer networking. Optical wavelength add-drop switches are a key component in the emerging ultra long haul (>2000km) transmission systems and will expand the optical layer traffic management. The conversion of the optical layer from one of static links to dynamic reconfigurable network will require that the optical transmission system characteristics are reconfigurable. Demonstrations of MEMS variable attenuators, optical spectrum equalizers and dispersion compensators show the potential for robust signal transport in such networks.

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Available abstract

Summary form only given. Lightwave communication systems use fiber-optics to transport signals between nodes, and will use optical layer networking to optimally manage signal paths under normal and disrupted network conditions. New micromachine devices (MEMS) are poised to significantly impact the advancement of both networking and transmission. The deployment of MEMS based optical cross connects, such as Lucent's LambdaRouter, allow network flexibility in the optical domain and open the path to optical layer networking. Optical wavelength add-drop switches are a key component in the emerging ultra long haul (>2000km) transmission systems and will expand the optical layer traffic management. The conversion of the optical layer from one of static links to dynamic reconfigurable network will require that the optical transmission system characteristics are reconfigurable. Demonstrations of MEMS variable attenuators, optical spectrum equalizers and dispersion compensators show the potential for robust signal transport in such networks.

Key concepts: Optical Transport Network, Optical cross-connect, Optical networking, Optical performance monitoring, Computer science, Optical switch, Optical path, Multiwavelength optical networking

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