Fuzzy Learning Machine
Junbiao Cui, Jiye Liang
Abstract
The ubiquitous and unavoidable label noise brings great challenges to the generalization performance of learning methods.Label noise correction aims to detect and correct label noise in the data, which is one of the most potential methods to address this challenge.Current methods for label noise filtering that utilize primitive features primarily concentrate on identifying noise, which often limits their capacity to adaptively learn features crucial for specific tasks, thereby resulting in a higher rate of noise identification within the noise recognition process. On the other hand, deep neural networks, endowed with robust feature extraction capabilities, typically exhibit lower noise identification, as they are prone to fitting noise patterns during the recognition process, potentially undermining their overall efficacy. Moreover, Fuzzy Learning Machine (FLM) excels not only in feature extraction but also in noise tolerance, adeptly navigating data uncertainties. FLM enhances the accuracy of the labels by calculating the membership degrees of samples across categories and determining their fuzzy memberships. The introduction of a two-stage FLM-based framework, which employs a secondary learning mechanism for precise noise filtering and correction, has shown substantial improvements in noise correction across various large-scale noisy datasets, thereby significantly enhancing samples' quality and boosting the generalization capabilities of classifiers.
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Install the CLIlune papers fulltext e9190de8-88f8-4b96-a47b-a1beb953b25fCited by top-tier papers3
- Label Noise Correction via Fuzzy Learning MachineJiye Liang, Yixiao Li, Junbiao CuiAAAI 2025 · 3 citations
- A General Representation Learning Framework with Generalization Performance GuaranteesJunbiao Cui, Jianqing Liang, Qin Yue, Jiye LiangICML 2023 · 1 citation
- Human Cognition-Inspired Hierarchical Fuzzy Learning MachineJunbiao Cui, Qin Yue, Jianqing Liang, Jiye LiangICML 2025
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- Towards robust vision by multi-task learning on monkey visual cortexShahd Safarani, Arne Nix, Konstantin Willeke, Santiago A. Cadena et al.NeurIPS 2021 · 67 citations
- Understanding Instance-based Interpretability of Variational Auto-EncodersZhifeng Kong, Kamalika ChaudhuriNeurIPS 2021 · 32 citations
- Shift Invariance Can Reduce Adversarial RobustnessVasu Singla, Songwei Ge, Ronen Basri, David W. JacobsNeurIPS 2021 · 29 citations
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