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Secure Networking Using Network Coding |
[Overview]
[Students]
[Publications]
[Courses]
[Funding]
This project determines the fundamental limits of network secrecy from
a network coding perspective, and then applies this theory to improve
security guarantees in peer-to-peer and wireless networks. As network
coding gains prominence as an important strategy for both wired and
wireless networks, the project identifies both the advantages and
vulnerabilities from using network coding. Subsequently, the effort
develops a design methodology that exploits the advantages while
carefully compensating for the vulnerabilities.
This project analyzes networks under both outsider and insider
attacks. Specifically, coding mechanisms are developed to combat an
external eavesdropper. Also, a combination of cryptographic and
information-theoretic tools are used to combat internal modification
attacks on the network. The results are then used in two case studies:
eavesdropper attacks on wireless mesh networks and pollution attacks
on P2P content distribution systems.
Secure network coded systems, once well understood, can greatly impact
how networks are designed and deployed. Nearly every network setting
(wireless, wired or heterogeneous) can benefit in terms of improved
resilience (in addition to other performance benefits such as
throughput) in its design. Case studies in this effort are designed to
help transition the theoretical principles developed into practical
algorithms.
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Secure Network Coding for Wireless Mesh Networks: Threats, Challenges, and Directions.
Jing Dong, Reza Curtmola, and Cristina Nita-Rotaru. In Computer Communications (Elsevier), Nov 2009.
[PDF][BIBTEX]
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Related Courses
This project is funded by the NSF NETS Program, Collaborative Research: Secure Networking Using Network Coding, Team: Tracey Ho (Caltech), Cristina Nita-Rotaru (Purdue University), Emina Soljanin (Bell Labs), and Sriram Vishwanath (UT Austin). This award is funded under the American Recovery and Reinvestment Act
of 2009 (Public Law 111-5).
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