Broad stochastic configuration residual learning system for norm-convergent universal approximation
Han Su, Zhongyan Li, Wanquan Liu

TL;DR
This paper introduces BSCRLS, a new neural network learning system that guarantees norm convergence for universal approximation, addressing limitations of previous randomized models and demonstrating superior performance in dust detection tasks.
Contribution
The paper proposes BSCRLS, a stochastic residual learning system with a supervisory mechanism ensuring norm convergence, improving the reliability of universal approximation in randomized neural networks.
Findings
BSCRLS achieves universal approximation with norm convergence.
Experimental results show BSCRLS outperforms 13 existing algorithms.
BSCRLS is effective in dust detection on real datasets.
Abstract
Universal approximation serves as the foundation of neural network learning algorithms. However, some networks establish their universal approximation property by demonstrating that the iterative errors converge in probability measure rather than the more rigorous norm convergence, which makes the universal approximation property of randomized learning networks highly sensitive to random parameter selection, Broad residual learning system (BRLS), as a member of randomized learning models, also encounters this issue. We theoretically demonstrate the limitation of its universal approximation property, that is, the iterative errors do not satisfy norm convergence if the selection of random parameters is inappropriate and the convergence rate meets certain conditions. To address this issue, we propose the broad stochastic configuration residual learning system (BSCRLS) algorithm, which…
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Taxonomy
TopicsMachine Learning and ELM · Stochastic Gradient Optimization Techniques · Advanced Neural Network Applications
