Research article

Synchronization of the memristive recurrent neural networks via fuzzy adaptive strategy and its application

  • Published: 03 September 2026
  • MSC : 34E13, 34K35, 91B55

  • This study examines the synchronization issue for memristive recurrent neural networks (MRNNs) subject to random disturbances. Asymptotic synchronization and mean-square synchronization can be realized via the fuzzy adaptive strategy, whose adaptive rules are designed for the controller of the slave system, allowing iterative updates of its connection weights. The established synchronization criteria are applicable to various disturbance scenarios. Finally, the validity of the synchronization results are verified via multiple examples, further demonstrating that the proposed model with fuzzy adaptive strategy achieve higher SMD2 than 3-GMM and CNN in image enhancement. For the denoising of color images corrupted with noise intensities of $ 0.02 $ and $ 0.05 $, the proposed model yields higher EME and PSNR (over 30dB) values than BM3D, and its SMD2 values are closer to the original-image counterparts.

    Citation: Lixia Ye, Qiling Zhao, Hang Zheng. Synchronization of the memristive recurrent neural networks via fuzzy adaptive strategy and its application[J]. AIMS Mathematics, 2026, 11(9): 28097-28120. doi: 10.3934/math.20261121

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  • This study examines the synchronization issue for memristive recurrent neural networks (MRNNs) subject to random disturbances. Asymptotic synchronization and mean-square synchronization can be realized via the fuzzy adaptive strategy, whose adaptive rules are designed for the controller of the slave system, allowing iterative updates of its connection weights. The established synchronization criteria are applicable to various disturbance scenarios. Finally, the validity of the synchronization results are verified via multiple examples, further demonstrating that the proposed model with fuzzy adaptive strategy achieve higher SMD2 than 3-GMM and CNN in image enhancement. For the denoising of color images corrupted with noise intensities of $ 0.02 $ and $ 0.05 $, the proposed model yields higher EME and PSNR (over 30dB) values than BM3D, and its SMD2 values are closer to the original-image counterparts.



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