Graph Random Walk with Feature-Label Space Alignment: A Multi-Label Feature Selection Method
Wanfu Gao, Jun Gao, Qingqi Han, Hanlin Pan, Kunpeng Liu

TL;DR
This paper introduces a novel multi-label feature selection method that uses a graph-based random walk to capture complex nonlinear feature-label relationships and aligns feature and label spaces for improved selection accuracy.
Contribution
It proposes a graph random walk approach with feature-label space alignment to better model nonlinear associations in multi-label feature selection.
Findings
Outperforms existing methods on seven benchmark datasets
Effectively captures nonlinear feature-label relationships
Demonstrates robustness across various evaluation metrics
Abstract
The rapid growth in feature dimension may introduce implicit associations between features and labels in multi-label datasets, making the relationships between features and labels increasingly complex. Moreover, existing methods often adopt low-dimensional linear decomposition to explore the associations between features and labels. However, linear decomposition struggles to capture complex nonlinear associations and may lead to misalignment between the feature space and the label space. To address these two critical challenges, we propose innovative solutions. First, we design a random walk graph that integrates feature-feature, label-label, and feature-label relationships to accurately capture nonlinear and implicit indirect associations, while optimizing the latent representations of associations between features and labels after low-rank decomposition. Second, we align the variable…
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Taxonomy
TopicsText and Document Classification Technologies · Face and Expression Recognition · Advanced Graph Neural Networks
MethodsADaptive gradient method with the OPTimal convergence rate · ALIGN
