Stateful Switch: Optimized Time Series Release with Local Differential Privacy
Qingqing Ye, Haibo Hu, Kai Huang, Man Ho Au, Qiao Xue
Abstract
Time series data have numerous applications in big data analytics. However, they often cause privacy issues when collected from individuals. To address this problem, most existing works perturb the values in the time series while retaining their temporal order, which may lead to significant distortion of the values. Recently, we propose TLDP model [45] that perturbs temporal perturbation to ensure privacy guarantee while retaining original values. It has shown great promise to achieve significantly higher utility than value perturbation mechanisms in many time series analysis. However, its practicability is still undermined by two factors, namely, utility cost of extra missing or empty values, and inflexibility of privacy budget settings. To address them, in this paper we propose switch as a new two-way operation for temporal perturbation, as opposed to the one-way dispatch operation in [45]. The former inherently eliminates the cost of missing, empty or repeated values. Optimizing switch operation in a stateful manner, we then propose StaSwitch mechanism for time series release under TLDP. Through both analytical and empirical studies, we show that StaSwitch has significantly higher utility for the published time series than any state-of-the-art temporal- or value-perturbation mechanism, while allowing any combination of privacy budget settings.
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Install the CLIlune papers fulltext 0e25948e-9515-4cc1-a73e-bf4a8a6e51dbCited by top-tier papers10
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