TY - JOUR
T1 - Integrated label correction for e-commerce data
T2 - Boosting accuracy with baseline attention and enhanced Bayesian updating
AU - Zhang, Miao
AU - Fu, Jingyuan
AU - Zhang, Yuli
AU - Ma, Qinghui
AU - Chen, Jinghong
N1 - Publisher Copyright:
© 2025 Elsevier B.V.
PY - 2025/12
Y1 - 2025/12
N2 - The rapid growth of the e-commerce industry has led to an explosion of product data, which e-commerce platforms increasingly leverage to enhance operational decision-making. However, the presence of label noise in product data poses a significant challenge, as mislabeled data can degrade decision-making performance, negatively impacting both platform efficiency and user experience. To tackle this challenge, this paper proposes an integrated label correction (ILC) method, featuring two key innovations: a baseline attention (BA) mechanism for noise detection and an enhanced Bayesian updating (EBU) strategy for label prediction. The proposed BA mechanism utilizes a dynamic attention scaling approach with learnable parameters to measure the similarity between samples and their labeled classes. The EBU strategy integrates sample features and noisy observations into a unified probabilistic framework, jointly optimizing the classifier and the label correction process. A novel adaptive noise transition learning approach is further introduced to refine the noise transition matrix. Extensive experiments on a real-world JD text dataset, a benchmark image dataset, and an automotive user review dataset validate the effectiveness of the proposed ILC method. It consistently outperforms state-of-the-art approaches on average, achieving a 2.78% improvement on the JD dataset, and gains of 0.80% on the image dataset and 1.73% on the review dataset across different noise types. These improvements demonstrate that the ILC method not only improves classification performance but also offers scalable solutions to reduce mislabeling errors in real-world e-commerce platforms, thereby enhancing recommendation systems, inventory management, and user satisfaction.
AB - The rapid growth of the e-commerce industry has led to an explosion of product data, which e-commerce platforms increasingly leverage to enhance operational decision-making. However, the presence of label noise in product data poses a significant challenge, as mislabeled data can degrade decision-making performance, negatively impacting both platform efficiency and user experience. To tackle this challenge, this paper proposes an integrated label correction (ILC) method, featuring two key innovations: a baseline attention (BA) mechanism for noise detection and an enhanced Bayesian updating (EBU) strategy for label prediction. The proposed BA mechanism utilizes a dynamic attention scaling approach with learnable parameters to measure the similarity between samples and their labeled classes. The EBU strategy integrates sample features and noisy observations into a unified probabilistic framework, jointly optimizing the classifier and the label correction process. A novel adaptive noise transition learning approach is further introduced to refine the noise transition matrix. Extensive experiments on a real-world JD text dataset, a benchmark image dataset, and an automotive user review dataset validate the effectiveness of the proposed ILC method. It consistently outperforms state-of-the-art approaches on average, achieving a 2.78% improvement on the JD dataset, and gains of 0.80% on the image dataset and 1.73% on the review dataset across different noise types. These improvements demonstrate that the ILC method not only improves classification performance but also offers scalable solutions to reduce mislabeling errors in real-world e-commerce platforms, thereby enhancing recommendation systems, inventory management, and user satisfaction.
KW - Baseline attention mechanism
KW - Bayesian updating strategy
KW - Integrated label correction
KW - Label noise
UR - https://www.scopus.com/pages/publications/105017842799
U2 - 10.1016/j.compind.2025.104392
DO - 10.1016/j.compind.2025.104392
M3 - Article
AN - SCOPUS:105017842799
SN - 0166-3615
VL - 173
JO - Computers in Industry
JF - Computers in Industry
M1 - 104392
ER -