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SOS: Secure overlay services (2002)

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by Angelos D. Keromytis , Vishal Misra , Dan Rubenstein
Venue:In Proceedings of ACM SIGCOMM
Citations:180 - 14 self
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BibTeX

@INPROCEEDINGS{Keromytis02sos:secure,
    author = {Angelos D. Keromytis and Vishal Misra and Dan Rubenstein},
    title = {SOS: Secure overlay services},
    booktitle = {In Proceedings of ACM SIGCOMM},
    year = {2002},
    pages = {61--72}
}

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Abstract

angelos,misra,danr¥ Denial of service (DoS) attacks continue to threaten the reliability of networking systems. Previous approaches for protecting networks from DoS attacks are reactive in that they wait for an attack to be launched before taking appropriate measures to protect the network. This leaves the door open for other attacks that use more sophisticated methods to mask their traffic. We propose an architecture called Secure Overlay Services (SOS) that proactively prevents DoS attacks, geared toward supporting Emergency Services or similar types of communication. The architecture is constructed using a combination of secure overlay tunneling, routing via consistent hashing, and filtering. We reduce the probability of successful attacks by (i) performing intensive filtering near protected network edges, pushing the attack point perimeter into the core of the network, where high-speed routers can handle the volume of attack traffic, and (ii) introducing randomness and anonymity into the architecture, making it difficult for an attacker to target nodes along the path to a specific SOS-protected destination. Using simple analytical models, we evaluate the likelihood that an attacker can successfully launch a DoS attack against an SOSprotected network. Our analysis demonstrates that such an architecture reduces the likelihood of a successful attack to minuscule levels.

Citations

3028 H.: Chord: A scalable Peer-To-Peer lookup service for internet applications - Stoica, Morris, et al.
1134 Security architecture for the internet protocol - Kent, Atkinson - 1998
854 Resilient overlay networks - Andersen, Balakrishnan, et al. - 2001
777 Wide-area cooperative storage with CFS - Dabek, Kaashoek, et al. - 2001
741 End-to-end arguments in system design - Saltzer, Reed, et al. - 1984
698 An Architecture for Differentiated Services - Blake - 1998
462 Network support for IP traceback - Savage, Wetherall, et al. - 2001
438 Consistent hashing and random trees: Distributed caching protocols for relieving hot spots on the World Wide Web - Karger, Lehman, et al. - 1997
379 The design philosophy of the DARPA internet protocols - Clark - 1988
255 Inferring Internet denial-ofservice activity,” presented at the Usenix Security Symp - Moore, Voelker, et al. - 2001
235 Implementing pushback: router-based defense against DDoS Attacks, in - Ioannidis, Bellovin - 2002
221 Multiservice loss models for broadband telecommunication networks - Ross - 1995
220 Anonymous connections and onion routing - Reed, Syverson, et al. - 1998
165 An algebraic approach to IP traceback - Dean, Franklin, et al. - 2002
139 Implementing a distributed firewall - Ioannidis, Keromytis, et al. - 2000
130 TCP congestion control with a misbehaving receiver - Savage, Cardwell, et al. - 1999
99 Analysis of a denial of service attack on TCP - Schuba, Krsul, et al. - 1997
51 A.: The KeyNote Trust - Blaze, Feigenbaum, et al. - 1999
34 Trust management for Ipsec - Blaze, Ioannidis, et al. - 2002
31 The Internet Key Exchange (IKE). Request for Comments (Proposed Standard) 2409, Internet Engineering Task Force - Harkins, Carrel - 1998
24 Attack Class: Address Spoofing - Heberlein, Bishop - 1996
14 Queueing Systems, Volume I: Theory. Wiley-Interscience - Kleinrock - 1975
13 IP encapsulation within IP,” Request for Comments (Proposed Standard - Perkins - 1996
8 STRONGMAN: A scalable solution to trust management in networks - KEROMYTIS
7 Generic routing encapsulation (GRE). Request for Comments 2784, Internet Engineering Task Force - Farinacci, Li, et al. - 2000
3 Protocols for Mobile Networking - Ioannidis - 1993
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