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The Liang-Kleeman Information Flow: Theory and Applications
AbstractInformation flow, or information transfer as it may be referred to, is a fundamental notion in general physics which has wide applications in scientific disciplines. Recently, a rigorous formalism has been established with respect to both deterministic and stochastic systems, with flow measures explicitly obtained. These measures possess some important properties, among which is flow or transfer asymmetry. The formalism has been validated and put to application with a variety of benchmark systems, such as the baker transformation, Hénon map, truncated Burgers-Hopf system, Langevin equation, etc. In the chaotic Burgers-Hopf system, all the transfers, save for one, are essentially zero, indicating that the processes underlying a dynamical phenomenon, albeit complex, could be simple. (Truth is simple.) In the Langevin equation case, it is found that there could be no information flowing from one certain time series to another series, though the two are highly correlated. Information flow/transfer provides a potential measure of the cause–effect relation between dynamical events, a relation usually hidden behind the correlation in a traditional sense.
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Liang, X.S. The Liang-Kleeman Information Flow: Theory and Applications. Entropy 2013, 15, 327-360.View more citation formats
Liang XS. The Liang-Kleeman Information Flow: Theory and Applications. Entropy. 2013; 15(1):327-360.Chicago/Turabian Style
Liang, X. S. 2013. "The Liang-Kleeman Information Flow: Theory and Applications." Entropy 15, no. 1: 327-360.