Synchronization Conditions for a Third-order Kuramoto Network
Liang Wu, Haoyong Chen
Abstract
Liang Wu, Haoyong Chen
Abstract
This paper presents synchronization conditions for a third-order Kuramoto network, which is inspired by a transient model of the electric power network. In this model, the amplitude dynamics of oscillators are introduced into a conventional second-order Kuramoto network. By using an energy function method, we propose sufficient conditions on the initial configurations of a Kuramoto network to determine the stability of phases and amplitudes of oscillators. Then, we show that these conditions ensure the synchronization in frequencies and phases of oscillators. Furthermore, an algorithm is designed to calculate an ultimate bound for the phase differences of oscillators at synchronized state, which evaluates overall network synchronization performance.
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This paper presents synchronization conditions for a third-order Kuramoto network, which is inspired by a transient model of the electric power network. In this model, the amplitude dynamics of oscillators are introduced into a conventional second-order Kuramoto network. By using an energy function method, we propose sufficient conditions on the initial configurations of a Kuramoto network to determine the stability of phases and amplitudes of oscillators. Then, we show that these conditions ensure the synchronization in frequencies and phases of oscillators. Furthermore, an algorithm is designed to calculate an ultimate bound for the phase differences of oscillators at synchronized state, which evaluates overall network synchronization performance.
Key concepts: Kuramoto model, Synchronization (alternating current), Synchronization networks, Amplitude, Phase synchronization, Control theory (sociology), Computer science, Stability (learning theory)