Cross-Layer Design in Optical Networks [electronic resource] /
edited by Suresh Subramaniam, Ma�it�e Brandt-Pearce, Piet Demeester, Chava Vijaya Saradhi.
- VI, 380 p. online resource.
- Optical Networks, 15 1935-3839 ; .
- Optical Networks, 15 .
Introduction -- A tutorial of physical layer impairments in optical networks -- Dynamic Impairment-Aware Routing and Wavelength Assignment -- Routing andWavelength Assignment in WDM Networks with Mixed Line Rates -- Considering Linear and Non-Linear Impairments in Planning WDM Networks -- Cross-Layer Control of Semi-Transparent Optical Networks under Physical-Parameter Uncertainty -- Analytical models for QoT-aware RWA performance -- Impairment-Aware Control Plane Architectures to Handle Optical Networks of the Future -- QoT-Aware Survivable Network Design.- Energy-efficient traffic engineering -- Multi-layer Protection with Integrated Routing in MPLS-over-WDM Optical Networks -- Cross-Layer Survivability -- Photonics Grids and Clouds -- Bringing Optical Network Control to the User Facilities: Evolution of the User Controlled Light Path Provisioning Paradigm.-Cross-Layer Network Design and Control Testbeds -- Free Space Optical Wireless Network.
Optical networks have become an integral part of the communications infrastructure needed to support society's demand for high-speed connectivity. Cross-Layer Design in Optical Networks addresses topics in optical network design and analysis with a focus on physical-layer impairment awareness and network layer service requirements, essential for the implementation and management of robust scalable networks. The cross-layer treatment includes bottom-up impacts of the physical and lambda layers, such as dispersion, noise, nonlinearity, crosstalk, dense wavelength packing, and wavelength line rates, as well as top-down approaches to handle physical-layer impairments and service requirements.
9781461456711
10.1007/978-1-4614-5671-1 doi
Engineering.
Computer communication systems.
Engineering design.
Electrical engineering.
Engineering.
Electrical Engineering.
Computer Communication Networks.
Signal, Image and Speech Processing.
Engineering Design.
TK1-9971
621.3
Introduction -- A tutorial of physical layer impairments in optical networks -- Dynamic Impairment-Aware Routing and Wavelength Assignment -- Routing andWavelength Assignment in WDM Networks with Mixed Line Rates -- Considering Linear and Non-Linear Impairments in Planning WDM Networks -- Cross-Layer Control of Semi-Transparent Optical Networks under Physical-Parameter Uncertainty -- Analytical models for QoT-aware RWA performance -- Impairment-Aware Control Plane Architectures to Handle Optical Networks of the Future -- QoT-Aware Survivable Network Design.- Energy-efficient traffic engineering -- Multi-layer Protection with Integrated Routing in MPLS-over-WDM Optical Networks -- Cross-Layer Survivability -- Photonics Grids and Clouds -- Bringing Optical Network Control to the User Facilities: Evolution of the User Controlled Light Path Provisioning Paradigm.-Cross-Layer Network Design and Control Testbeds -- Free Space Optical Wireless Network.
Optical networks have become an integral part of the communications infrastructure needed to support society's demand for high-speed connectivity. Cross-Layer Design in Optical Networks addresses topics in optical network design and analysis with a focus on physical-layer impairment awareness and network layer service requirements, essential for the implementation and management of robust scalable networks. The cross-layer treatment includes bottom-up impacts of the physical and lambda layers, such as dispersion, noise, nonlinearity, crosstalk, dense wavelength packing, and wavelength line rates, as well as top-down approaches to handle physical-layer impairments and service requirements.
9781461456711
10.1007/978-1-4614-5671-1 doi
Engineering.
Computer communication systems.
Engineering design.
Electrical engineering.
Engineering.
Electrical Engineering.
Computer Communication Networks.
Signal, Image and Speech Processing.
Engineering Design.
TK1-9971
621.3