DocumentCode
832389
Title
FLID-DL: congestion control for layered multicast
Author
Byers, John W. ; Horn, Gavin ; Luby, Michael ; Mitzenmacher, Michael ; Shaver, William
Author_Institution
Dept. of Comput. Sci., Boston Univ., MA, USA
Volume
20
Issue
8
fYear
2002
fDate
10/1/2002 12:00:00 AM
Firstpage
1558
Lastpage
1570
Abstract
We describe fair layered increase/decrease with dynamic layering (FLID-DL): a new multirate congestion control algorithm for layered multicast sessions. FLID-DL generalizes the receiver-driven layered congestion control protocol (RLC) introduced by Vicisano et al. (Proc. IEEE INFOCOM, San Francisco, CA, , p.996-1003, Mar. 1998)ameliorating the problems associated with large Internet group management protocol (IGMP) leave latencies and abrupt rate increases. Like RLC, FLID-DL, is a scalable, receiver-driven congestion control mechanism in which receivers add layers at sender-initiated synchronization points and leave layers when they experience congestion. FLID-DL congestion control coexists with transmission control protocol (TCP) flows as well as other FLID-DL sessions and supports general rates on the different multicast layers. We demonstrate via simulations that our congestion control scheme exhibits better fairness properties and provides better throughput than previous methods. A key contribution that enables FLID-DL and may be useful elsewhere is dynamic layering (DL), which mitigates the negative impact of long IGMP leave latencies and eliminates the need for probe intervals present in RLC. We use DL to respond to congestion much faster than IGMP leave operations, which have proven to be a bottleneck in practice for prior work.
Keywords
digital simulation; multicast communication; telecommunication congestion control; transport protocols; FLID-DL; IGMP; Internet group management protocol; Internet protocol multicast; TCP fairness; congestion control; dynamic layering; fair layered increase/decrease with dynamic layering; layered multicast sessions; multicast layers; multirate congestion control algorithm; receiver-driven layered congestion control protocol; scalable congestion control; sender-initiated synchronization; simulations; throughput; transmission control protocol; Content management; Delay; Internet; Multicast algorithms; Multicast protocols; Probes; Scalability; Size control; TCPIP; Throughput;
fLanguage
English
Journal_Title
Selected Areas in Communications, IEEE Journal on
Publisher
ieee
ISSN
0733-8716
Type
jour
DOI
10.1109/JSAC.2002.803998
Filename
1038584
Link To Document