Publication | Open Access
Eternal Sunshine of the Spotless Net: Selective Forgetting in Deep Networks
23
Citations
25
References
2020
Year
Unknown Venue
Artificial IntelligencePrivacy ProtectionEngineeringMachine LearningWeights CleanAutoencodersEducationRecurrent Neural NetworkData ScienceSparse Neural NetworkAdversarial Machine LearningMemoryEternal SunshineContinual Learning (Lifelong Deep Learning)Data PrivacyComputer ScienceDeep LearningNeural Architecture SearchDeep Neural NetworkDifferential PrivacyPrivacyPrivacy LeakageData SecurityDeep Neural NetworksSpotless NetFederated LearningSelective ForgettingContinual Learning (Educational Psychology)
Selective forgetting can be detected by probing network weights, a condition related to a weaker form of differential privacy. The study investigates selective forgetting of specific training data and proposes a method to scrub weights of that information. The method modifies weights without retraining, using SGD stability to bound remaining information and enabling efficient estimation of the scrubbed network.
We explore the problem of selectively forgetting a particular subset of the data used for training a deep neural network. While the effects of the data to be forgotten can be hidden from the output of the network, insights may still be gleaned by probing deep into its weights. We propose a method for "scrubbing" the weights clean of information about a particular set of training data. The method does not require retraining from scratch, nor access to the data originally used for training. Instead, the weights are modified so that any probing function of the weights is indistinguishable from the same function applied to the weights of a network trained without the data to be forgotten. This condition is a generalized and weaker form of Differential Privacy. Exploiting ideas related to the stability of stochastic gradient descent, we introduce an upper-bound on the amount of information remaining in the weights, which can be estimated efficiently even for deep neural networks.
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