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Predation in bird populations

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Abstract

One of the classic ecological questions is how predators affect population size. This is often assessed by measuring how many individuals are killed by a predator, yet such direct effects may only be a relatively minor part of population dynamics. Predators frequently affect prey populations indirectly, with the fear of predation resulting in costly behavioural compensation that has the potential to lead to large population and community effects. Large observable lethal effects may then just represent the most easily observed “special” cases of the effects of predation on populations, with the costs of non-lethal effects being ubiquitous and usually dominant. This review explores these two ideas: that both cases where there are no population effects due to predation and those where lethal effects dominate are unusual and involve special circumstances. First, systems in which predation effects appear not to arise include (1) complete avoidance of predators by prey; (2) when other environmental factors limit populations so that predation is not additive to mortality; (3) when there are other more vulnerable prey for a predator; (4) when predators interact; (5) because the relationship of perceived predation risk with predator abundance is usually a non-linear function; (6) for the simple reason that non-lethal effects have not been considered. Second, lethal effects tend to dominate over non-lethal effects when (1) there is a high cost of compensating for predation risk associated with either a resource constraint or a particularly vulnerable niche or life-history stage (e.g. the nest stage generally for birds); (2) prey are the most popular prey of a predator or linear trophic chains operate; (3) there is evolutionary lag, such as introduced predators and naïve prey populations; (4) there are several predator species hunting the same prey in diverse ways. The presence of predators may or may not affect the size of a bird population at any particular life-history stage, although in most cases it will do so through non-lethal effects and, occasionally, through lethal effects. However, the presence of predators will always affect intra- and interspecific competition and so will always affect population dynamics. Studies that wish to fully demonstrate that predation has no effect on bird populations must show that lethal effects and the costs of non-lethal compensation by the prey do not significantly change its density and, consequently, the level of competition.

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Acknowledgements

I thank Franz Barlein for inviting me to take part in the symposium to celebrate the 100th anniversary of IFV. I thank Ian Newton, Peter Becker and an anonymous referee for helpful comments on an earlier draft.

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    Will Cresswell

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Communicated by P. H. Becker.

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Cresswell, W. Predation in bird populations. J Ornithol 152 (Suppl 1), 251–263 (2011). https://doi.org/10.1007/s10336-010-0638-1

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