Distributed machine learning, including federated learning (FL), is increasingly taking place within the networks, in the so-called cloud-edge-device continuum. This creates significant challenges, e.g., the need to locate the best resources and data to leverage; at the same time, it also brings novel opportunities to boost the performance of learning and its resiliency to external attacks. In this paper, we present a novel architecture called SHIELDED that enables the decision-making entities in charge of learning orchestration, FL security, and model calibration to: 1) work in an integrated manner and 2) exploit the additional information available in programmable networking scenarios. Our performance evaluation, using network intrusion detection as a case study, shows that SHIELDED yields about 50% better accuracy and 35% lower calibration error compared to present-day alternatives.
Talpini, J., Gennaro, M., Carminati, M., Savi, M., Malandrino, F. (2025). SHIELDED: A Network-Aware Approach for Secure and Trustworthy Federated Learning. IEEE NETWORK, 1-7 [10.1109/MNET.2025.3622755].
SHIELDED: A Network-Aware Approach for Secure and Trustworthy Federated Learning
Talpini J.;Savi M.;
2025
Abstract
Distributed machine learning, including federated learning (FL), is increasingly taking place within the networks, in the so-called cloud-edge-device continuum. This creates significant challenges, e.g., the need to locate the best resources and data to leverage; at the same time, it also brings novel opportunities to boost the performance of learning and its resiliency to external attacks. In this paper, we present a novel architecture called SHIELDED that enables the decision-making entities in charge of learning orchestration, FL security, and model calibration to: 1) work in an integrated manner and 2) exploit the additional information available in programmable networking scenarios. Our performance evaluation, using network intrusion detection as a case study, shows that SHIELDED yields about 50% better accuracy and 35% lower calibration error compared to present-day alternatives.| File | Dimensione | Formato | |
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