DocumentCode :
13985
Title :
Collusion-Tolerable Privacy-Preserving Sum and Product Calculation without Secure Channel
Author :
Taeho Jung ; Xiang-Yang Li ; Meng Wan
Author_Institution :
Dept. of Comput. Sci., Illinois Inst. of Technol., Chicago, IL, USA
Volume :
12
Issue :
1
fYear :
2015
fDate :
Jan.-Feb. 1 2015
Firstpage :
45
Lastpage :
57
Abstract :
Much research has been conducted to securely outsource multiple parties´ data aggregation to an untrusted aggregator without disclosing each individual´s privately owned data, or to enable multiple parties to jointly aggregate their data while preserving privacy. However, those works either require secure pair-wise communication channels or suffer from high complexity. In this paper, we consider how an external aggregator or multiple parties can learn some algebraic statistics (e.g., sum, product) over participants´ privately owned data while preserving the data privacy. We assume all channels are subject to eavesdropping attacks, and all the communications throughout the aggregation are open to others. We first propose several protocols that successfully guarantee data privacy under semi-honest model, and then present advanced protocols which tolerate up to k passive adversaries who do not try to tamper the computation. Under this weak assumption, we limit both the communication and computation complexity of each participant to a small constant. At the end, we present applications which solve several interesting problems via our protocols.
Keywords :
algebra; cryptographic protocols; data privacy; statistical analysis; algebraic statistics; collusion-tolerable privacy-preserving sum; communication complexity; computation complexity; data aggregation; data privacy; eavesdropping attacks; privacy preservation; product calculation; secure pair-wise communication channels; semi-honest model; Communication channels; Complexity theory; Computational modeling; Cryptography; Data aggregation; Data models; Data privacy; Outsourcing; Privacy; SMC; data aggregation; homomorphic; secure channels;
fLanguage :
English
Journal_Title :
Dependable and Secure Computing, IEEE Transactions on
Publisher :
ieee
ISSN :
1545-5971
Type :
jour
DOI :
10.1109/TDSC.2014.2309134
Filename :
6750696
Link To Document :
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