Multiple Imputation for Parametric Inference Under a Differentially Private Laplace Mechanism

In this paper we consider the scenario where continuous microdata have been noise infused using a differentially private Laplace mechanism for the purpose of statistical disclosure control. We assume the original data are independent and identically distributed, having distribution within a parametric family of continuous distributions. We use a variant of the Laplace mechanism that allows the range of the original data to be unbounded by first truncating the original data and then adding appropriate Laplace random noise. We propose methodology to analyze the noise infused data using multiple imputation. This approach allows the data user to analyze the released data as if it were original, i.e., not noise infused, and then to obtain inference that accounts for the noise infusion mechanism using standard multiple imputation combining formulas. Methodology is presented for univariate data, and some simulation studies are presented to evaluate the performance of the proposed method. An extension of the proposed methodology to multivariate data is also presented. IJSS, Vol. 24(2) Special, December, 2024, pp 95-122

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Publication Details

Journal
International Journal of Statistical Sciences
Published
2024-12-23
DOI
https://doi.org/10.3329/ijss.v24i20.78217
Primary Topic
Statistical Methods and Bayesian Inference
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article
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article

Multiple Imputation for Parametric Inference Under a Differentially Private Laplace Mechanism

Martin Klein, Bimal K. Sinha
International Journal of Statistical Sciences
Statistical Methods and Bayesian Inference
article

Multiple Imputation for Parametric Inference Under a Differentially Private Laplace Mechanism

Martin Klein, Bimal K. Sinha
article en

Abstract

In this paper we consider the scenario where continuous microdata have been noise infused using a differentially private Laplace mechanism for the purpose of statistical disclosure control. We assume the original data are independent and identically distributed, having distribution within a parametric family of continuous distributions. We use a variant of the Laplace mechanism that allows the range of the original data to be unbounded by first truncating the original data and then adding appropriate Laplace random noise. We propose methodology to analyze the noise infused data using multiple imputation. This approach allows the data user to analyze the released data as if it were original, i.e., not noise infused, and then to obtain inference that accounts for the noise infusion mechanism using standard multiple imputation combining formulas. Methodology is presented for univariate data, and some simulation studies are presented to evaluate the performance of the proposed method. An extension of the proposed methodology to multivariate data is also presented. IJSS, Vol. 24(2) Special, December, 2024, pp 95-122

International Journal of Statistical Sciences
United States Food and Drug Administration (US), United States Census Bureau (US), Center for Drug Evaluation and Research (US), Statistical Research (United States) (US), University of Maryland, Baltimore County (US)
Openalex Percentile: Top 75%
Statistical Methods and Bayesian Inference
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Multiple Imputation for Parametric Inference Under a Differentially Private Laplace Mechanism — Martin Klein, Bimal K. Sinha · International Journal of Statistical Sciences (2024) | TGRS Research Map | TGRS