DSybil:推荐系统的最佳Sybil-Resistance

Haifeng Yu, Chenwei Shi, M. Kaminsky, Phillip B. Gibbons, Feng Xiao
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引用次数: 131

摘要

推荐系统可以通过各种方式受到攻击,最终的攻击形式是{\em sybil攻击},攻击者可以创建无限数量的{\em sybil身份}进行投票。防御sybil攻击通常是相当具有挑战性的,而推荐系统的性质使其更加困难。本文提出了{\em DSybil},一种在推荐系统中减少sybil身份影响的新防御方法。DSybil提供了强大的可证明的保证,即使在最坏的攻击下也是最优的。随着时间的推移,DSybil可以防御无限数量的sybil身份。DSybil通过i)利用诚实身份的典型投票行为的重尾分布,ii)仔细识别系统是否已经从已经考虑的(加权)选民那里获得了“足够的帮助”,或者是否需要更多的“帮助”来实现其强大的保证。我们的评估表明,即使百万节点僵尸网络使用最佳策略发起sybil攻击,DSybil仍将继续提供高质量的推荐。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
DSybil: Optimal Sybil-Resistance for Recommendation Systems
Recommendation systems can be attacked in various ways, and the ultimate attack form is reached with a {\em sybil attack}, where the attacker creates a potentially unlimited number of {\em sybil identities} to vote. Defending against sybil attacks is often quite challenging, and the nature of recommendation systems makes it even harder. This paper presents {\em DSybil}, a novel defense for diminishing the influence of sybil identities in recommendation systems. DSybil provides strong provable guarantees that hold even under the worst-case attack and are optimal. DSybil can defend against an unlimited number of sybil identities over time. DSybil achieves its strong guarantees by i) exploiting the heavy-tail distribution of the typical voting behavior of the honest identities, and ii) carefully identifying whether the system is already getting ``enough help'' from the (weighted) voters already taken into account or whether more ``help'' is needed. Our evaluation shows that DSybil would continue to provide high-quality recommendations even when a million-node botnet uses an optimal strategy to launch a sybil attack.
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