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MUFFLe addresses the critical uplink bandwidth bottleneck in federated learning by integrating generalized deduplication into the FedAvg pipeline, significantly reducing communication costs compared to standard quantization or sparsification methods. Preliminary results on MNIST demonstrate that this approach maintains high model accuracy while cutting cumulative transmission volume substantially, offering a viable path for deploying machine learning models across resource-constrained edge networks without sacrificing performance.
MUFFLe: Efficient Model Update Compression via Generalized Deduplication for Federated Learning
arXiv:2606.14354v1 Announce Type: new Abstract: Federated learning is well suited to edge environments but is often limited by the uplink cost of transmitting model updates. This Work-in-Progress paper presents MUFFLe, a communication-efficient update compression scheme that integrates generalized deduplication (GD) into the FedAvg pipeline. MUFFLe deduplicates repeated patterns across the update vector, yielding a fixed-rate, variable-count compression scheme. Preliminary experiments on IID MNIST with 20 clients show that MUFFLe reaches the target accuracy of $92.93\%$ with 38~MB cumulative uplink communication, compared with 75~MB for 8-bit quantization, 86~MB for Top-$k$ sparsification, and 310~MB for uncompressed FedAvg. These results demonstrate the feasibility of applying GD to communication-efficient federated learning.
Abstract:Federated learning is well suited to edge environments but is often limited by the uplink cost of transmitting model updates. This Work-in-Progress paper presents MUFFLe, a communication-efficient update compression scheme that integrates generalized deduplication (GD) into the FedAvg pipeline. MUFFLe deduplicates repeated patterns across the update vector, yielding a fixed-rate, variable-count compression scheme. Preliminary experiments on IID MNIST with 20 clients show that MUFFLe reaches the target accuracy of $92.93\%$ with 38~MB cumulative uplink communication, compared with 75~MB for 8-bit quantization, 86~MB for Top-$k$ sparsification, and 310~MB for uncompressed FedAvg. These results demonstrate the feasibility of applying GD to communication-efficient federated learning.
Machine Learning (cs.LG)
arXiv:2606.14354 [cs.LG]
(or arXiv:2606.14354v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2606.14354 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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