Guan-Cheng Wang 0002

dblp:196/5011-2 · also Guancheng Wang 0002 · DBLP profile ↗
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4ranked-venue papers in the field
2as first author
4since 2021 · last 2026
0000-0002-6391-6257ORCID · verified

Domains — venue-derived; a paper can count in several

Knowledge Engineering, Semantic Web & Information Systems · 3 (2 first)Data Mining & Knowledge Discovery · 1
YearPublicationVenuePosition
2026 Implementing the competitive selection of the Matthew effect: An adaptive gradient neural network approach and its applications
Zhuowen Feng, Cong Lin 0004, Lingbo Han, Guan-Cheng Wang 0002
Inf. Sci.5
2023 Learning with Euler Collaborative Representation for Robust Pattern Analysis
abstract
The Collaborative Representation (CR) framework has provided various effective and efficient solutions to pattern analysis. By leveraging between discriminative coefficient coding (l 2 regularization) and the best reconstruction quality (collaboration), the CR framework can exploit discriminative patterns efficiently in high-dimensional space. Due to the limitations of its linear representation mechanism, the CR must sacrifice its superior efficiency for capturing the non-linear information with the kernel trick. Besides this, even if the coding is indispensable, there is no mechanism designed to keep the CR free from inevitable noise brought by real-world information systems. In addition, the CR only emphasizes exploiting discriminative patterns on coefficients rather than on the reconstruction. To tackle the problems of primitive CR with a unified framework, in this article we propose the Euler Collaborative Representation (E-CR) framework. Inferred from the Euler formula, in the proposed method, we map the samples to a complex space to capture discriminative and non-linear information without the high-dimensional hidden kernel space. Based on the proposed E-CR framework, we form two specific classifiers: the Euler Collaborative Representation based Classifier (E-CRC) and the Euler Probabilistic Collaborative Representation based Classifier (E-PROCRC). Furthermore, we specifically designed a robust algorithm for E-CR (termed as R-E-CR ) to deal with the inevitable noises in real-world systems. Robust iterative algorithms have been specially designed for solving E-CRC and E-PROCRC. We correspondingly present a series of theoretical proofs to ensure the completeness of the theory for the proposed robust algorithms. We evaluated E-CR and R-E-CR with various experiments to show its competitive performance and efficiency.
Jianhang Zhou, Guan-Cheng Wang 0002, Shaoning Zeng, Bob Zhang 0001
ACM Trans. Intell. Syst. Technol.2
2022 Convergence and robustness of bounded recurrent neural networks for solving dynamic Lyapunov equations
Guan-Cheng Wang 0002, Zhihao Hao, Bob Zhang 0001, Long Jin 0001
Inf. Sci.1
2021 A noise-suppressing Newton-Raphson iteration algorithm for solving the time-varying Lyapunov equation and robotic tracking problems
Guan-Cheng Wang 0002, Haoen Huang 0001, Limei Shi, Chuhong Wang, Dongyang Fu, Long Jin 0001, Xiuchun Xiao
Inf. Sci.1