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Concept Drift Detection using Ensemble of Integrally Private Models

arXiv 2406.04903 ↗First posted 7 Jun 2024cs.LG cs.CRcited by 0

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Abstract (arXiv)

Deep neural networks (DNNs) are one of the most widely used machine learning algorithm. DNNs requires the training data to be available beforehand with true labels. This is not feasible for many real-world problems where data arrives in the streaming form and acquisition of true labels are scarce and expensive. In the literature, not much focus has been given to the privacy prospect of the streaming data, where data may change its distribution frequently. These concept drifts must be detected privately in order to avoid any disclosure risk from DNNs. Existing privacy models use concept drift detection schemes such ADWIN, KSWIN to detect the drifts. In this paper, we focus on the notion of integrally private DNNs to detect concept drifts. Integrally private DNNs are the models which recur frequently from different datasets. Based on this, we introduce an ensemble methodology which we call 'Integrally Private Drift Detection' (IPDD) method to detect concept drift from private models. Our IPDD method does not require labels to detect drift but assumes true labels are available once the drift has been detected. We have experimented with binary and multi-class synthetic and real-world data. Our experimental results show that our methodology can privately detect concept drift, has comparable utility (even better in some cases) with ADWIN and outperforms utility from different levels of differentially private models. The source code for the paper is available hyperlinkhttps://github.com/Ayush-Umu/Concept-drift-detection-Using-Integrally-private-modelshere.

Key facts. No citing papers in the map yet (data through 14 Oct 2026). Builds on 5 of its 16 references that are in the map. First posted on arXiv 7 Jun 2024.

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References · 5

  1. 2017What Uncertainties Do We Need in Bayesian Deep Learning for Computer Vision?cited by 2,352
  2. 2021On the Necessity of Auditable Algorithmic Definitions for Machine Unlearningcited by 171
  3. 2019CXPlain: Causal Explanations for Model Interpretation under Uncertaintycited by 98
  4. 2020Challenges in Benchmarking Stream Learning Algorithms with Real-world Datacited by 59
  5. 2021Detecting Concept Drift With Neural Network Model Uncertaintycited by 22

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