activity
20032008
most citedAnomalous Scaling and Refined Similarity of an Active Scalar in a Model of Homogeneous Turbulent Convection

23 citations · 91 across the 7 of their papers we have counts for

collaborators
Showing nlin.CDShow all

11 papers · 1 filter

nlin.CD200810 cited

Understanding the different scaling behavior in various shell models proposed for turbulent thermal convection

Emily S. C. Ching, H. Guo, W. C. Cheng

Different scaling behavior has been reported in various shell models proposed for turbulent thermal convection. In this paper, we show that buoyancy is not always relevant to the s…

nlin.CD2008

Refined similarity hypotheses in shell models of turbulence

Emily S. C. Ching, H. Guo, T. S. Lo

A major challenge in turbulence research is to understand from first principles the origin of anomalous scaling of the velocity fluctuations in high-Reynolds-number turbulent flows…

nlin.CD200812 cited

Ultimate-state scaling in a shell model for homogeneous turbulent convection

Emily S. C. Ching, T. C. Ko

An interesting question in turbulent convection is how the heat transport depends on the strength of thermal forcing in the limit of very large thermal forcing. Kraichnan predicted…

nlin.CD200723 cited

Anomalous Scaling and Refined Similarity of an Active Scalar in a Model of Homogeneous Turbulent Convection

Emily S. C. Ching, W. C. Cheng

Anomalous scaling in the statistics of an active scalar in homogeneous turbulent convection is studied using a dynamical shell model. We extend refined similarity ideas for homogen…

nlin.CD200721 cited

Multifractality and scale invariance in human heartbeat dynamics

Emily S. C. Ching, Yue-Kin Tsang

Human heart rate is known to display complex fluctuations. Evidence of multifractality in heart rate fluctuations in healthy state has been reported [Ivanov et al., Nature {\bf 399…

nlin.CD200718 cited

Comparison of Theory and Direct Numerical Simulations of Drag Reduction by Rodlike Polymers in Turbulent Channel Flows

Roberto Benzi, Emily S. C. Ching, Elisabetta De Angelis +1

Numerical simulations of turbulent channel flows, with or without additives, are limited in the extent of the Reynolds number \Re and Deborah number \De. The comparison of such sim…