Privacy-Preserving Intrusion Detection using Convolutional Neural Networks
This work addresses privacy concerns in intrusion detection for service providers and clients, but it is incremental as it adapts an existing framework to a new domain.
The paper tackles the problem of deploying privacy-preserving intrusion detection services by enhancing a Convolutional Neural Network-based system with the PriMIA framework, aiming to optimize settings to balance privacy, accuracy, and computational constraints without revealing data to the analyst or the model to the customer.
Privacy-preserving analytics is designed to protect valuable assets. A common service provision involves the input data from the client and the model on the analyst's side. The importance of the privacy preservation is fuelled by legal obligations and intellectual property concerns. We explore the use case of a model owner providing an analytic service on customer's private data. No information about the data shall be revealed to the analyst and no information about the model shall be leaked to the customer. Current methods involve costs: accuracy deterioration and computational complexity. The complexity, in turn, results in a longer processing time, increased requirement on computing resources, and involves data communication between the client and the server. In order to deploy such service architecture, we need to evaluate the optimal setting that fits the constraints. And that is what this paper addresses. In this work, we enhance an attack detection system based on Convolutional Neural Networks with privacy-preserving technology based on PriMIA framework that is initially designed for medical data.