Prevent Contents Leaking in P2P CDNs with Robust and Quick Detection of Colluders
スポンサーリンク
概要
- 論文の詳細を見る
The objective of Peer-to-Peer Content Delivery Networks is to deliver copyrighted contents to paid clients in an efficient and secure manner. To protect such contents from being distributed to unauthorized peers, Lou and Hwang proposed a proactive content poisoning scheme to restrain an illegal download conducted by unauthorized peers, and a scheme to identify colluders who illegally leak the contents to such unauthorized peers. In this paper, we propose three schemes which extend the Lou and Hwang's colluder detection scheme in two directions. The first direction is to introduce an intensive probing to check suspected peers, and the second direction is to adopt a reputation system to select reliable (non-colluder) peers as a decoy. The performance of the resulting scheme is evaluated by simulation. The result of simulations indicates that the proposed schemes detect all colluders about 30% earlier on average than the original scheme while keeping the accuracy of the colluder detection at medium collusion rate.
著者
関連論文
- Distributed Zone Partitioning Schemes for CAN and Its Application to the Load Balancing in Pure P2P Systems (特集 新時代の分散処理とネットワーク(WebサービスとP2P))
- Semi-Dynamic Multiprocessor Scheduling with an Asymptotically Optimal Performance Ratio
- An Efficient Scheduling Scheme for Assigning Transmission Opportunity in QoS-Guaranteed Wireless LAN
- Collision Avoidance of Multiple Autonomous Mobile Robots Using Learning
- CHQ : A Multi-Agent Reinforcement Learning Scheme for Partially Observable Markov Decision Processes(Artificial Intelligence and Cognitive Science)
- Prevent Contents Leaking in P2P CDNs with Robust and Quick Detection of Colluders
- A Reputation Management Scheme for Peer-to-Peer Networks based on the EigenTrust Trust Management Algorithm
- Distributed Zone Partitioning Schemes for CAN and Its Application to the Load Balancing in Pure P2P Systems
- Distributed Zone Partitioning Schemes for CAN and Its Application to the Load Balancing in Pure P2P Systems