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Quasisynchronization for Neural Networks With Partial Constrained State Information via Intermittent Control Approach
IEEE Transactions on Cybernetics
|March 11, 2021
Summary
This study ensures quasisynchronization (QS) in master-slave (MS) neural networks (NNs) with mismatched parameters using intermittent control and a novel controller. The method guarantees bounded QS, enhancing communication efficiency.
Area of Science:
- * Neural Networks
- * Control Theory
- * Information Theory
Background:
- * Master-slave neural networks (MS NNs) often face challenges with mismatched parameters.
- * Limited communication channel (CC) capacity and controller efficiency are critical issues in network synchronization.
Purpose of the Study:
- * To achieve quasisynchronization (QS) in MS NNs with mismatched parameters under constrained communication.
- * To develop an efficient intermittent control strategy to manage CC capacity and controller performance.
Main Methods:
- * Utilized a logarithmic quantizer and round-robin protocol (RRP) to handle limited CC capacity.
- * Designed a transmission-dependent controller and established the synchronization error system (SES).
- * Developed a sufficient condition to ensure bounded QS for the MS NNs.
Main Results:
- * Successfully ensured bounded quasisynchronization for MS NNs with mismatched parameters.
- * The intermittent control strategy improved the efficiency of both the communication channel and the controller.
- * A concrete controller design method was provided.
Conclusions:
- * The proposed method effectively achieves QS in MS NNs under communication constraints.
- * The intermittent control strategy offers a viable solution for improving synchronization efficiency.
- * Numerical simulations validated the effectiveness of the developed approach.
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