TY - GEN
T1 - Traffic engineering and signaling technologies in photonic-GMPLS-router networks
AU - Yamanaka, N.
AU - Okamoto, S.
AU - Shiomoto, K.
AU - Oki, E.
AU - Imajuku, W.
PY - 2002/1/1
Y1 - 2002/1/1
N2 - This paper describes multilayer traffic engineering and signaling technologies in a photonic-GMPLS-router network. Multilayer traffic engineering, which yields the dynamic cooperation of IP and photonic layers, is described to provide IP services cost-effectively. To realize multilayer traffic engineering, we propose the OSPF extension, which advertises both the number of total wavelengths and the number of unreserved wavelengths, and the RSVP-TE extension, which realizes the least number of wavelength conversions. In addition, this paper presents a heuristic-based multilayer topology design scheme that uses IP traffic measurements in a generalized multiprotocol label switch (GMPLS). Our design scheme yields the optical label switch path (OLSP) network topology, i.e. OLSP placement, that minimizes network cost, in response to fluctuations in IP traffic demand. In other words, the OLSP network topology is dynamically reconfigured to match IP traffic demand. Networks are reconfigured by the proposed scheme so as to utilize the network resources cost-effectively.
AB - This paper describes multilayer traffic engineering and signaling technologies in a photonic-GMPLS-router network. Multilayer traffic engineering, which yields the dynamic cooperation of IP and photonic layers, is described to provide IP services cost-effectively. To realize multilayer traffic engineering, we propose the OSPF extension, which advertises both the number of total wavelengths and the number of unreserved wavelengths, and the RSVP-TE extension, which realizes the least number of wavelength conversions. In addition, this paper presents a heuristic-based multilayer topology design scheme that uses IP traffic measurements in a generalized multiprotocol label switch (GMPLS). Our design scheme yields the optical label switch path (OLSP) network topology, i.e. OLSP placement, that minimizes network cost, in response to fluctuations in IP traffic demand. In other words, the OLSP network topology is dynamically reconfigured to match IP traffic demand. Networks are reconfigured by the proposed scheme so as to utilize the network resources cost-effectively.
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U2 - 10.1109/HPSR.2002.1024224
DO - 10.1109/HPSR.2002.1024224
M3 - Conference contribution
AN - SCOPUS:0142130000
SN - 488552184X
SN - 9784885521843
T3 - IEEE International Conference on High Performance Switching and Routing, HPSR
SP - 142
EP - 146
BT - HPSR 2002 - Workshop on High Performance Switching and Routing
PB - IEEE Computer Society
T2 - 2002 Workshop on High Performance Switching and Routing: Merging Optical and IP Technologies, HPSR 2002
Y2 - 26 May 2002 through 29 May 2002
ER -