Congestion Control and Contention Elimination in Optical Burst Switching Article DOI:
Cite this article as: Maach, A., Bochman, G.V. & Mouftah, H. Telecommunication Systems (2004) 27: 115. doi:10.1023/B:TELS.0000041005.87009.e5 Abstract
Optical burst switching (OBS) is a proposed new communications technology that seeks to expand the use of optical technology in switching systems. However, many challenging issues have to be solved in order to pave the way for an effective implementation of OBS. Contention, which may occur when two or more bursts compete for the same wavelength on the same link, is a critical issue. Many contention resolution methods have been proposed in the literature but many of them are very vulnerable to network load and may suffer severe loss in case of heavy traffic. Basically, this problem is due to the lack of information at the nodes and the absence of global coordination between the edge routers. In this work, we propose another approach to avoid contention and decrease the loss. In this scheme, the intermediate nodes report the loss observed to the edge nodes so that they can adjust the traffic at the sources to meet an optimal network load. Furthermore, we propose a combination of contention reduction through congestion control and bursts retransmission to eliminate completely bursts loss. This new approach achieves fairness among all the edge nodes and enhances the robustness of the network. We also show through simulation that the proposed protocol is a viable solution for effectively reducing the conflict and increasing the bandwidth utilization for optical burst switching.
optical network optical burst switching contention avoidance load balancing References
I. Chlamtac, A. Fumagalli and C.J. Suh, Multi-buffer delay line architectures for efficient contention resolution in optical switching nodes, IEEE Transactions on Communications 48(12) (2000) 2089–2098.
R. Doverspike and J. Yates, Challenges for MPLS in optical network restoration, IEEE Communications Magazine 39(2) (2001) 89–96.
S. Floyd and K. Fall, Promoting the use of en-to-end congestion control in the Internet, IEEE/ACM Transactions on Networking 7(4) (1999) 458–472.
S. Floyd and V. Jacobson, Random early detection gateways for congestion avoidance, IEEE/ACM Transactions on Networking 1(4) (1993) 397–413.
D.K. Hunter and I. Andonovic, Approaches to optical Internet packet switching, IEEE Communications Magazine 19(9) (2000) 116–122.
R. Jain, K.K. Ramakrishnan and D.-M. Chiu, Congestion avoidance in computer networks with a con-nectionless network layer, Technical Report, DEC-TR-506, Digital Equipment Corporation (1988).
S. Jin, L. Guo, I. Matta and A. Bestavros, A spectrum of TCP-friendly window-based congestion control algorithms, IEEE/ACM Transactions on Networking 11(3) (2003) 341–355.
K. Laberteaux, C. Rohrs and P. Antsaklis, A practical controller for explicit rate congestion control, IEEE Transactions on Automatic Control 47 (2002) 960–978.
K.P. Laberteaux, C.E. Rohrs and P.J. Antsaklis, An adaptive inverse controller for explicit rate congestion control with guaranteed stability and fairness, International Journal of Control 76(1) (2003) 24–47.
M. Listanti, V. Eramo and R. Sabella, Architectural and technological issues for future optical Internet networks, IEEE Communications 38(9) (2000) 82–92.
A. Maach and G.V. Bochmann, Segmented burst switching: Enhancement of optical burst switching to decrease loss rate and support quality of service, in:
Sixth IFIP Working Conf. on Optical Network Design and Modeling ONDM, Torino, Italy (2002) pp. 69–84.
J. Padhye, J. Kurose, D. Towsley and R. Koodli, A model-based TCP-friendly rate control protocol, in:
Proc. of Internat. Workshop on Network and Operating System Support for Digital Audio and Video (NOSSDAV) (1999).
C. Qiao and S. Buffalo, Labeled optical burst switching for IP-over-WDMintegration, IEEE Communications Magazine 38(9) (2000) 104–114.
S. Song and Z. Wu, A broadband integrated services network architecture based on DWDM, in:
Canadian Conf. on Electrical and Computer Engineering
, Vol. 1 (2000) pp. 347–352.
J. Strand, A. Chiu and R. Tkach, Issues for routing in the optical layer, IEEE Communications Magazine 39(2) (2001) 81–87.
C. Su, G. de Veciana and J. Walrand, Explicit rate flow control for ABR services in ATM networks, IEEE/ACM Transactions on Networking 8(3) (2000) 350–361.
J. Turner, Terabit burst switching, International Journal of High Speed Networks 8(1) (1999) 3–16.
K.R. Venugopal, E.E. Rajanand and K.P.S. Kumar, Performance analysis of wavelength converters in WDM wavelength routed optical networks, in:
Proc. of the Fifth Internat. Conf. on High Performance Computing, Barcelona, Spain (1998) pp. 239–246.
S. Verma, H. Chaskar and R. Ravikanth, Optical burst switching: A viable solution for terabit IP backbone, IEEE Network Magazine 14(6) (2000) 48–53.
X. Wang, H. Morikawa and T. Aoyama, Burst optical deflection routing protocol for wavelength routing WDM networks, in:
Proc. of SPIE/IEEE OPTICOM 2000, Dallas, TX, USA (2000) pp. 257–266.
J. Yates, M. Rumsewicz and J. Lacey, Wavelength converters in dynamically-reconfigurable WDM networks, IEEE Communications Surveys (1999) 2–15.
S. Yao, B. Mukherjee and S. Dixit, Asynchronous optical packet-switched networks: A preliminary study of contention - resolution schemes, in:
Proc. of Optical Networks Workshop, Richardson, TX (2000).
M. Yoo and C. Qiao, A new optical burst switching protocol for supporting quality of service, in:
SPIE Proceedings, All-Optical Networking: Architecture, Control and Management Issues
, Vol. 3531, Boston, MA (1998) pp. 396–405.
M. Yoo and C. Qiao, Optical burst switching (OBS) - A new paradigm for an optical Internet, International Journal of High Speed Networks 8(1) (1999) 69–84.
M. Yoo, C. Qiao and S. Dixit, QoS performance in IP over WDM networks, IEEE Journal on Selected Areas in Communications 18(10), Special Issue on Protocols and Architectures for the Next Generation Optical WDM Networks (2000) 2062–2071.
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