Volume 116, Issue 1

A tale of two cycles – distinguishing quasi‐cycles and limit cycles in finite predator–prey populations

First published: 04 October 2006
Citations: 35
M. Pineda‐Krch (E-mail address: pineda@zoology.ubc.ca), H. J. Blok and M. Doebeli, Dept of Zoology and Dept of Mathematics, Univ. of British Columbia, Vancouver, Canada BC V6T 1Z4. Present address for MP‐K: Center for Animal Disease Modeling and Surveillance, Dept of Medicine and Epidemiology, School of Veterinary Medicine, Univ. of California, Davis, CA 95616, USA. – U. Dieckmann, Evolution and Ecology Program, Int. Inst. for Applied System Analysis, Schlossplatz 1, AT‐2361 Laxenburg, Austria.

Abstract

Periodic predatorprey dynamics in constant environments are usually taken as indicative of deterministic limit cycles. It is known, however, that demographic stochasticity in finite populations can also give rise to regular population cycles, even when the corresponding deterministic models predict a stable equilibrium. Specifically, such quasi‐cycles are expected in stochastic versions of deterministic models exhibiting equilibrium dynamics with weakly damped oscillations. The existence of quasi‐cycles substantially expands the scope for natural patterns of periodic population oscillations caused by ecological interactions, thereby complicating the conclusive interpretation of such patterns. Here we show how to distinguish between quasi‐cycles and noisy limit cycles based on observing changing population sizes in predatorprey populations. We start by confirming that both types of cycle can occur in the individual‐based version of a widely used class of deterministic predatorprey model. We then show that it is feasible and straightforward to accurately distinguish between the two types of cycle through the combined analysis of autocorrelations and marginal distributions of population sizes. Finally, by confronting these results with real ecological time series, we demonstrate that by using our methods even short and imperfect time series allow quasi‐cycles and limit cycles to be distinguished reliably.

Number of times cited according to CrossRef: 35

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