アドホックネットワーク，ユビキタス・ネットワーク

同期現象（シンクロニゼーション）の解明，同期システムへの応用

ネットワークダイナミクス, 粘菌の分散知能の研究

注入同期の物理限界

田中久陽
応用数理, 2014.

Abstract

In this article, a universal mechanism governing entrainment limit is shown to exist under weak forcings, This underlying mechanism enables us to understand how and why entrainability is maximized; maximization of the entrainment range or that of the stability of entrainment for general forcings including pulse trains, and a fundamental limit of general m : n entrainment, are clarified from a unified, global viewpoint. These entrainment limits are verified in the Hodgkin-Huxley neuron model as an example.

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