Preserving privacy between features in distributed estimation
By Christina Heinze-Deml, Brian McWilliams, Nicolai Meinshausen. 2017
9 citations recorded by the source corpus.
Privacy is crucial in many applications of machine learning. Legal, ethical and societal issues restrict the sharing of sensitive data, making it difficult to learn from data sets that are partitioned between many parties. One important instance of such a distributed setting arises when information about each record in the data set is held by different data owners (the design matrix is “vertically partitioned”).In this setting, few approaches exist for private data sharing for the purpose of statistical estimation, and the classical set‐up of differential privacy with a “trusted curator” preparing the data does not apply. We work with the notion of (ϵ,δ)‐distributed differential privacy, which extends single‐party differential privacy to the distributed, vertically partitioned case. We propose PRIDE, a scalable framework for distributed estimation where each party communicates perturbed random projections of their locally held features ensuring (ϵ,δ)‐distributed differential privacy is preserved. For ℓ2‐penalized supervised learning problems, PRIDE has bounded estimation error compared with the optimal estimates obtained without privacy constraints in the non‐distributed setting. We confirm this empirically on real world and synthetic data sets. © 2018 John Wiley & Sons, Ltd.
Subfields: Artificial Intelligence, Computer Networks and Communications
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Citations in the corpus
- Learning Privately over Distributed Features: An ADMM Sharing Approach (2019, background): “A few very recent studies Kenthapadi et al. (2013); Ying et al. (2018); Hu et al. (2019); Heinze-Deml et al. (2018); Dai et al. (2018); Stolpe et al. (2016) have reinvestigated vertically partitioned features under the setting of distributed machine learning, which is motivated by the…”
- Uplink Communication Efficient Differentially Private Sparse Optimization With Feature-Wise Distributed Data (2018, methodology): “In addition, compared to the existing work (Heinze-Deml, McWilliams, and Meinshausen 2017) under the same setting, our method withO(n 2 3 ) has improved the overall uplink communication complexity in comparison with their O(n).”