PNFR is designed, a privacy-preserving federated learning scheme for regressions training built on the MPaillier algorithm, which is three times faster than interactive federated regressions PrivFL and about 80% faster than non-interactive federated regressions VANE.
Abstract
Federated learning is a technology that is used to protect data privacy in machine learning. Nonetheless, in federated learning, updating the global model requires the use of gradient descent algorithm, which involves multiple rounds of interaction between entities to complete the iterative updates, inevitably incurring massive computational and communication overhead. In 2020, Wang et al. first proposed a non-interactive federated regression scheme, which effectively improves the training efficiency of regression models while protecting the privacy of local training data. However, like most current federated regressions, it involves a third authority (TA) to generate keys for each entity, which poses a significant privacy risk and results in considerable communication overhead. From the view of security and practicality, this paper first proposes a multi-party homomorphic encryption algorithm named MPaillier. Furthermore, we have designed PNFR, a privacy-preserving federated learning scheme for regressions training built on the MPaillier algorithm. The participating entities of PNFR are the data owners and a cloud server, eliminating the need for a TA, thus enhancing the practicality and efficiency of the scheme. Experimental results demonstrate that our scheme is $\sim 10^{3}$ times faster than interactive federated regressions PrivFL and about 80% faster than non-interactive federated regressions VANE.
The increasing prevalence of decentralized data has led to a growing interest in federated learning, which enables collaborative model training without clients sharing their sensitive local data. However, FL alone does not sufficiently protect sensitive training data and is generally coupled with privacy-preserving tec...
Ceren Yildirim, K. Kaya, S. Yıldırım et al.· 0 citations
Federated learning (FL) enables collaborative model training across multiple clients in a privacy-preserving manner. However, the employment of homomorphic encryption algorithms might lead to high computational cost while the application of differential privacy (DP) methods would sacrifice model performance. To establi...
Zhiqiang Chen, Yuchen Jiang, Ray Y. Zhong et al.· IEEE Transactions on Informa...· 0 citations
The proposed Secure Multiparty Computation protocol enables collaborative training of linear and logistic regression models while providing formal privacy guarantees for participant data, and adapts the iterative gradient descent algorithm to operate securely over secretly shared vectors.
PVeriFL is a federated learning framework that integrates privacy preservation, Byzantine fault tolerance, and lightweight client-side verifiability and effectively unifies the three security objectives, offering a practical and trustworthy solution for real-world federated learning systems.
VMFL employs a chaotic map to generate a pseudo-random sequence and embeds the sum of local momentum vectors as verification data, constructing a verifiable momentum protected by additively homomorphic encryption, and designs an aggregation verification protocol that verifies the aggregated momentum by checking vector-...
As a classical type of machine learning algorithms, tree models have been widely employed in various fields, such as financial analysis and health diagnostics, offering high-accuracy and low-latency prediction services to users. However, tree evaluation also raises significant privacy concerns, particularly with respec...
Jia-Qi Zhao, Hui Zhu, Jun-Peng Zhang et al.· IEEE Transactions on Informa...· 0 citations
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