FRL: Federated Rank Learning
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Abstract (arXiv)
Federated learning (FL) allows mutually untrusted clients to collaboratively train a common machine learning model without sharing their private/proprietary training data among each other. FL is unfortunately susceptible to poisoning by malicious clients who aim to hamper the accuracy of the commonly trained model through sending malicious model updates during FL's training process. We argue that the key factor to the success of poisoning attacks against existing FL systems is the large space of model updates available to the clients, allowing malicious clients to search for the most poisonous model updates, e.g., by solving an optimization problem. To address this, we propose Federated Rank Learning (FRL). FRL reduces the space of client updates from model parameter updates (a continuous space of float numbers) in standard FL to the space of parameter rankings (a discrete space of integer values). To be able to train the global model using parameter ranks (instead of parameter weights), FRL leverage ideas from recent supermasks training mechanisms. Specifically, FRL clients rank the parameters of a randomly initialized neural network (provided by the server) based on their local training data. The FRL server uses a voting mechanism to aggregate the parameter rankings submitted by clients in each training epoch to generate the global ranking of the next training epoch. Intuitively, our voting-based aggregation mechanism prevents poisoning clients from making significant adversarial modifications to the global model, as each client will have a single vote! We demonstrate the robustness of FRL to poisoning through analytical proofs and experimentation. We also show FRL's high communication efficiency. Our experiments demonstrate the superiority of FRL in real-world FL settings.
Key facts. Cited by 8 papers in the map (data through 14 Oct 2026). Builds on 33 of its 45 references that are in the map. First posted on arXiv 8 Oct 2021.
Builds on
33 of 45 references.
References · 33
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- 2019Advances and Open Problems in Federated Learningcited by 3,046
- 2018Federated Optimization in Heterogeneous Networkscited by 2,987
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- 2016Federated Learning: Strategies for Improving Communication Efficiencycited by 1,475
- 2020Adaptive Federated Optimizationcited by 1,046
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- 2019Towards Federated Learning at Scale: System Designcited by 832
- 2018LEAF: A Benchmark for Federated Settingscited by 792
21 more
- 2018How To Backdoor Federated Learningcited by 765
- 2018Byzantine-Robust Distributed Learning: Towards Optimal Statistical Ratescited by 711
- 2019Local Model Poisoning Attacks to Byzantine-Robust Federated Learningcited by 493
- 2018Sparsified SGD with Memorycited by 376
- 2018Analyzing Federated Learning through an Adversarial Lenscited by 351
- 2018The Hidden Vulnerability of Distributed Learning in Byzantiumcited by 329
- 2020Attack of the Tails: Yes, You Really Can Backdoor Federated Learningcited by 309
- 2019A Little Is Enough: Circumventing Defenses For Distributed Learningcited by 288
- 2019Can You Really Backdoor Federated Learning?cited by 255
- 2017Sparse Communication for Distributed Gradient Descentcited by 249
- 2019What's Hidden in a Randomly Weighted Neural Network?cited by 237
- 2018The Convergence of Sparsified Gradient Methodscited by 229
- 2020Supermasks in Superpositioncited by 227
- 2013Predicting Parameters in Deep Learningcited by 224
- 2019Deconstructing Lottery Tickets: Zeros, Signs, and the Supermaskcited by 207
- 2019Cronus: Robust and Heterogeneous Collaborative Learning with Black-Box Knowledge Transfercited by 93
- 2021Federated Evaluation and Tuning for On-Device Personalization: System Design & Applicationscited by 85
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Built on by
Citing papers per year: 2022: 1; 2023: 3; 2024: 3; 2025: 1.
8 papers.
- 2022Sparse Random Networks for Communication-Efficient Federated Learningcited by 32
- 2023Adaptive Compression in Federated Learning via Side Informationcited by 6
- 2024EncCluster: Scalable Functional Encryption in Federated Learning through Weight Clustering and Probabilistic Filterscited by 3
- 2023Unraveling the Interconnected Axes of Heterogeneity in Machine Learning for Democratic and Inclusive Advancementscited by 2
- 2024FedPeWS: Personalized Warmup via Subnetworks for Enhanced Heterogeneous Federated Learningcited by 2
- 2023AnoFel: Supporting Anonymity for Privacy-Preserving Federated Learningcited by 1
- 2024Federated Aggregation of Mallows Rankings: A Comparative Analysis of Borda and Lehmer Codingcited by 1
- 2025Decoding FL Defenses: Systemization, Pitfalls, and Remediescited by 0
- 2025Decoding FL Defenses: Systemization, Pitfalls, and Remedies3 Feb 2025
- 2024FedPeWS: Personalized Warmup via Subnetworks for Enhanced Heterogeneous Federated Learning3 Oct 2024
- 2024Federated Aggregation of Mallows Rankings: A Comparative Analysis of Borda and Lehmer Coding1 Sep 2024
- 2024EncCluster: Scalable Functional Encryption in Federated Learning through Weight Clustering and Probabilistic Filters13 Jun 2024
- 2023Adaptive Compression in Federated Learning via Side Information22 Jun 2023
- 2023AnoFel: Supporting Anonymity for Privacy-Preserving Federated Learning12 Jun 2023
- 2023Unraveling the Interconnected Axes of Heterogeneity in Machine Learning for Democratic and Inclusive Advancements11 Jun 2023
- 2022Sparse Random Networks for Communication-Efficient Federated Learning30 Sep 2022