Papers › Making Deep Neural Networks Robust to Label Noise: a Loss Correction Approach

Making Deep Neural Networks Robust to Label Noise: a Loss Correction Approach

13 Sep 2016CVPR 2017 7arXiv:1609.03683archive 2025-07-28

Giorgio Patrini, Alessandro Rozza, Aditya Menon, Richard Nock, Lizhen Qu

We present a theoretically grounded approach to train deep neural networks, including recurrent networks, subject to class-dependent label noise. We propose two procedures for loss correction that are agnostic to both application domain and network architecture. They simply amount to at most a matrix inversion and multiplication, provided that we know the probability of each class being corrupted into another. We further show how one can estimate these probabilities, adapting a recent technique for noise estimation to the multi-class setting, and thus providing an end-to-end framework. Extensive experiments on MNIST, IMDB, CIFAR-10, CIFAR-100 and a large scale dataset of clothing images employing a diversity of architectures --- stacking dense, convolutional, pooling, dropout, batch normalization, word embedding, LSTM and residual layers --- demonstrate the noise robustness of our proposals. Incidentally, we also prove that, when ReLU is the only non-linearity, the loss curvature is immune to class-dependent label noise.

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Tasks

DiversityImage ClassificationLearning with noisy labelsNoise Estimation

Results from the paper archive 2025-07-28

TaskDatasetModelMetricValueRank at snapshotLeaderboardReport
Image Classification Clothing1M (using clean data) Forward Accuracy 80.27 #2 of 9 Archive leaderboard report
Image Classification mini WebVision 1.0 F-Correction (Inception-ResNet-v2) ImageNet Top-1 Accuracy 57.36 #42 of 47 Archive leaderboard report
Image Classification mini WebVision 1.0 F-Correction (Inception-ResNet-v2) ImageNet Top-5 Accuracy 82.36 #42 of 47 Archive leaderboard report
Image Classification mini WebVision 1.0 F-Correction (Inception-ResNet-v2) Top-1 Accuracy 61.12 #42 of 47 Archive leaderboard report
Image Classification mini WebVision 1.0 F-Correction (Inception-ResNet-v2) Top-5 Accuracy 82.68 #42 of 47 Archive leaderboard report
Learning with noisy labels CIFAR-100N Backward-T Accuracy (mean) 57.14 #17 of 24 Archive leaderboard report
Learning with noisy labels CIFAR-100N Forward-T Accuracy (mean) 57.01 #19 of 24 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Aggregate Forward-T Accuracy (mean) 88.24 #23 of 26 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Aggregate Backward-T Accuracy (mean) 88.13 #24 of 26 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Random1 Backward-T Accuracy (mean) 87.14 #23 of 24 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Random1 Forward-T Accuracy (mean) 86.88 #24 of 24 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Random2 Backward-T Accuracy (mean) 86.28 #22 of 23 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Random2 Forward-T Accuracy (mean) 86.14 #23 of 23 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Random3 Forward-T Accuracy (mean) 87.04 #21 of 23 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Random3 Backward-T Accuracy (mean) 86.86 #22 of 23 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Worst Forward-T Accuracy (mean) 79.79 #23 of 25 Archive leaderboard report
Learning with noisy labels CIFAR-10N-Worst Backward-T Accuracy (mean) 77.61 #25 of 25 Archive leaderboard report

Ranks are positions in the archive's leaderboards as they stood at the 2025-07-28 snapshot. Results published since then are not among these rows, so a rank here is not a current standing.

Methods

LSTMReLUSigmoid ActivationTanh Activation

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