Federated Learning: Optimization and Efficiency Innovations

Federated Learning Innovations and Optimization

Recent advancements in federated learning have focused on optimizing communication efficiency, enhancing privacy protection, and improving model convergence in non-convex settings. The field is moving towards more adaptive and robust methods that address the inherent challenges of distributed data and heterogeneous client environments. Innovations such as stochastic communication avoidance and co-clustering strategies are being employed to mitigate communication bottlenecks and enhance collaborative filtering in federated recommender systems. Additionally, novel gradient aggregation techniques are being developed to improve the efficiency and robustness of distributed training, particularly in scenarios with communication constraints.

Noteworthy Papers:

  • Efficient and Robust Regularized Federated Recommendation: Introduces RFRec and RFRecF, which significantly enhance communication efficiency and privacy protection in federated recommender systems.
  • Stochastic Communication Avoidance for Recommendation Systems: Proposes a theoretical framework and algorithms that maximize throughput for distributed systems with large embedding tables, achieving up to 6x increases in training throughput.
  • Adaptive Consensus Gradients Aggregation for Scaled Distributed Training: Introduces a novel weighting scheme for gradients and subspace momentum, demonstrating improved performance in distributed training tasks.

Sources

Why do we regularise in every iteration for imaging inverse problems?

Analysis of regularized federated learning

Efficient and Robust Regularized Federated Recommendation

Stochastic Communication Avoidance for Recommendation Systems

Co-clustering for Federated Recommender System

Adaptive Consensus Gradients Aggregation for Scaled Distributed Training

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