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Pinning-controlled synchronization of complex networks with bounded or unbounded synchronized regions 被引量:5

Pinning-controlled synchronization of complex networks with bounded or unbounded synchronized regions
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摘要 This paper studies pinning-controlled synchronization of complex networks with bounded or unbounded synchronized regions. To study a state-feedback pinning-controlled network with N nodes, it first converts the controlled network to an extended network of N+1 nodes without controls. It is shown that the controlled synchronizability of the given network is determined by the real part of the smallest nonzero eigenvalue of the coupling matrix of its extended network when the synchronized region is unbounded; but it is determined by the ratio of the real parts of the largest and the smallest nonzero eigenvalues of the coupling matrix when the synchronized region is bounded. Both theoretical analysis and numerical simulation show that the portion of controlled nodes has no critical values when the synchronized region is unbounded, but it has a critical value when the synchronized region is bounded. In the former case, therefore, it is possible to control the network to achieve synchronization by pinning only one node. In the latter case, the network can achieve controlled synchronization only when the portion of controlled nodes is larger than the critical value. This paper studies pinning-controlled synchronization of complex networks with bounded or unbounded synchronized regions. To study a state-feedback pinning-controlled network with N nodes, it first converts the controlled network to an extended network of N+1 nodes without controls. It is shown that the controlled synchronizability of the given network is determined by the real part of the smallest nonzero eigenvalue of the coupling matrix of its extended network when the synchronized region is unbounded; but it is determined by the ratio of the real parts of the largest and the smallest nonzero eigenvalues of the coupling matrix when the synchronized region is bounded. Both theoretical analysis and numerical simulation show that the portion of controlled nodes has no critical values when the synchronized region is unbounded, but it has a critical value when the synchronized region is bounded. In the former case, therefore, it is possible to control the network to achieve synchronization by pinning only one node. In the latter case, the network can achieve controlled synchronization only when the portion of controlled nodes is larger than the critical value.
出处 《Chinese Physics B》 SCIE EI CAS CSCD 2009年第8期3337-3346,共10页 中国物理B(英文版)
基金 supported by the National Natural Science Foundation of China (Grant No 10647001) the Guangxi Natural Science Foundation (Grant No 0728042) the Program for Excellent Talents in Guangxi Higher Education Institutions (Grant No RC2007006) the NSFC-HK Joint Research Scheme (Grant No N-CityU107/07)
关键词 SYNCHRONIZATION pinning control complex network synchronized region synchronization, pinning control, complex network, synchronized region
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同被引文献43

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