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Fair Resource Allocation in Federated Learning

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Federated learning involves training statistical models in massive, heterogeneous networks. Naively minimizing an aggregate loss function in such a network may disproportionately advantage or disadvantage some of the devices. In this work, we propose q-Fair Federated Learning (q-FFL), a novel optimization objective inspired by fair resource allocation in wireless networks that encourages a more fair (specifically, a more uniform) accuracy distribution across devices in federated networks. To solve q-FFL, we devise a communication-efficient method, q-FedAvg, that is suited to federated networks. We validate both the effectiveness of q-FFL and the efficiency of q-FedAvg on a suite of federated datasets with both convex and non-convex models, and show that q-FFL (along with q-FedAvg) outperforms existing baselines in terms of the resulting fairness, flexibility, and efficiency.

Tian Li, Maziar Sanjabi, Ahmad Beirami, Virginia Smith• 2019

Related benchmarks

TaskDatasetResultRank
Image ClassificationCIFAR-10 (test)
Accuracy70.16
3381
Image ClassificationMNIST i.i.d. (test)
Test Accuracy91.873
54
MRI prostate segmentationProstate MRI (test)
Client 1 Score90.94
34
Federated Learning FairnessFashion MNIST (test)
Accuracy Variance1.151
28
Fundus SegmentationFundus (test)
Client 1 Score86.24
17
Medical Image SegmentationRIF (test)
Site 1 Score0.7783
9
Retinal Fundus SegmentationRetinal Fundus (test)
Client 1 Dice Score86.24
8
Client contribution estimationRetinal Fundus Segmentation (test)
Pearson Correlation63.28
7
Image ClassificationMNIST Diri(0.1)
Var(Acc)29.335
7
Image ClassificationMNIST Diri(1.0) (test)
Accuracy Variance8.023
7
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