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A Degree-Dependent Polynomial-Based Reciprocally Convex Matrix Inequality and Its Application to Stability Analysis of Delayed Neural Networks

Chen-Rui Wang, Fei Long, Ke‐You Xie, Hui-Ting Wang, Chuan‐Ke Zhang, Yong He

2024IEEE Transactions on Cybernetics12 citationsDOI

Abstract

In this article, several improved stability criteria for time-varying delayed neural networks (DNNs) are proposed. A degree-dependent polynomial-based reciprocally convex matrix inequality (RCMI) is proposed for obtaining less conservative stability criteria. Unlike previous RCMIs, the matrix inequality in this article produces a polynomial of any degree in the time-varying delay, which helps to reduce conservatism. In addition, to reduce the computational complexity caused by dealing with the negative definite of the high-degree terms, an improved lemma is presented. Applying the above matrix inequalities and improved negative definiteness condition helps to generate a more relaxed stability criterion for analyzing time-varying DNNs. Two examples are provided to illustrate this statement.

Topics & Concepts

Lemma (botany)Degree (music)MathematicsStability (learning theory)Matrix (chemical analysis)Positive definitenessStatement (logic)PolynomialArtificial neural networkLinear matrix inequalityRegular polygonPositive-definite matrixApplied mathematicsComputer scienceMathematical optimizationMathematical analysisArtificial intelligenceMachine learningPoaceaeEcologyQuantum mechanicsComposite materialLawMaterials sciencePhysicsBiologyGeometryAcousticsEigenvalues and eigenvectorsPolitical scienceNeural Networks Stability and SynchronizationStability and Control of Uncertain SystemsAdvanced Memory and Neural Computing
A Degree-Dependent Polynomial-Based Reciprocally Convex Matrix Inequality and Its Application to Stability Analysis of Delayed Neural Networks | Litcius