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Asynchronous Federated Optimization
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Federated learning enables training on a massive number of edge devices. To improve flexibility and scalability, we propose a new asynchronous federated optimization algorithm. We prove that the proposed approach has near-linear convergence to a global optimum, for both strongly convex and a restricted family of non-convex problems. Empirical results show that the proposed algorithm converges quickly and tolerates staleness in various applications.
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Cited by 27 Pith papers
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Ringmaster LMO: Asynchronous Linear Minimization Oracle Momentum Method
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FedQueue: Queue-Aware Federated Learning for Cross-Facility HPC Training
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Distributed Perceptron under Bounded Staleness, Partial Participation, and Noisy Communication
Introduces staleness-bucket aggregation with padding for distributed perceptron and proves finite-horizon mistake bounds where delay affects only mean staleness and noise adds a sqrt(horizon) term.
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Robust Federated Learning Under Real-World Client Churn
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FedQueue: Queue-Aware Federated Learning for Cross-Facility HPC Training
FedQueue predicts per-facility queue delays, applies cutoff admission to bound staleness, and uses staleness-aware aggregation, yielding O(1/sqrt(R)) convergence for non-convex objectives and up to 60% faster time-to-...
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FedQueue: Queue-Aware Federated Learning for Cross-Facility HPC Training
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FedSA-GCL: A Semi-Asynchronous Federated Graph Learning Framework with Personalized Aggregation and Cluster-Aware Broadcasting
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Flotilla is a modular, resilient federated learning framework that runs on heterogeneous edge devices, supports sync and async strategies, and scales to 1000+ clients with low overhead.
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Asynchronous Decentralized Federated Learning over Lossy Wireless Links via Reception- and Age-Aware Aggregation
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FedSteer: Taming Extreme Gradient Staleness in Federated Learning with Corrective Projections and Caching
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Rennala MVR: Improved Time Complexity for Parallel Stochastic Optimization via Momentum-Based Variance Reduction
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Asynchronous Federated Unlearning with Invariance Calibration for Medical Imaging
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SecureAFL: Secure Asynchronous Federated Learning
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Efficient Federated Learning with Timely Update Dissemination
FedASMU and FedSSMU improve federated learning accuracy and speed by dynamically disseminating fresh global models to devices during local training, using server-side and device-side adaptive weighting.
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Air-FedGA: A Grouping Asynchronous Federated Learning Mechanism Exploiting Over-the-air Computation
Grouping workers so over-the-air aggregation happens inside groups while groups update asynchronously cuts simulated federated learning training time by 30-72%.
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Decentralized Pliable Index Coding For Federated Learning In Intelligent Transportation Systems
Pliable index coding with consecutive side-information is used to shuffle synthetic data among federated learning nodes, reducing transmissions and improving convergence in ITS simulations.
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Towards Securing IIoT: An Innovative Privacy-Preserving Anomaly Detector Based on Federated Learning
A federated learning framework with homomorphic encryption and dynamic agent selection detects anomalies in IIoT while preserving privacy and reducing communication bottlenecks.
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Efficient Asynchronous Federated Evaluation with Strategy Similarity Awareness for Intent-Based Networking in Industrial Internet of Things
SSAFL uses historical strategy similarity plus resource availability to select IIoT nodes and trigger asynchronous FL uploads, improving accuracy and cutting communication cost for intent-based policy verification in ...
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FedGA: A Fair Federated Learning Framework Based on the Gini Coefficient
FedGA, a fairness-aware federated learning method, uses the Gini coefficient to trigger delayed reweighting of aggregation toward low-accuracy clients, improving fairness metrics while maintaining accuracy on three datasets.
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Privacy-Preserving Federated Learning: Integrating Zero-Knowledge Proofs in Scalable Distributed Architectures
A hybrid federated learning architecture using zero-knowledge proofs for computation verification retains 94.2% accuracy under adversarial conditions across 1,000 nodes.
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