Linked Data Explorer
Wavelength routing for all-optical networks
Abstract: "We consider passive all-optical networks using wavelength division multiplexing and wavelength routing, i.e. the path of a signal is determined by the wavelength of the signal and the signal origin. We present upper and lower bounds on the required number of wavelengths to achieve a given blocking probability. Specifically we show that between [formula] and O[square root of pM] wavelengths are required to support pM active session requests in a network with M users and blocking probability P[subscript b]. The lower bound holds for all networks with passive wavelength routing and fixed wavelength changing devices. The upper bound is a passive construction without wavelength changers."
- "Abstract: "We consider passive all-optical networks using wavelength division multiplexing and wavelength routing, i.e. the path of a signal is determined by the wavelength of the signal and the signal origin. We present upper and lower bounds on the required number of wavelengths to achieve a given blocking probability. Specifically we show that between [formula] and O[square root of pM] wavelengths are required to support pM active session requests in a network with M users and blocking probability P[subscript b]. The lower bound holds for all networks with passive wavelength routing and fixed wavelength changing devices. The upper bound is a passive construction without wavelength changers.""@en
- "Wavelength routing for all-optical networks"@en