SMALL‐RODENT DYNAMICS AND PREDATION

By Ilkka Hanski, H. Henttonen, E. Korpimäki, Lauri Oksanen, Peter Turchin. 2001

475 citations recorded by the source corpus.

Subfields: Ecology, Nature and Landscape Conservation, Public Health, Environmental and Occupational Health

View Paper: https://www.semanticscholar.org/paper/e6dbc3a996fee399ece7402e719a16b398656e9c

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Ecology

1. Lauri Oksanen
2. Neville Pillay
3. C. Schradin
4. R. Ims
5. J. Olofsson
6. T. Oksanen
7. E. Korpimäki
8. E. Fuglei

In Nature and Landscape Conservation

1. C. Schradin
2. Lauri Oksanen
3. T. Oksanen
4. Neville Pillay
5. R. Ims
6. E. Korpimäki
7. E. Fuglei
8. J. Olofsson

In Public Health, Environmental and Occupational Health

1. R. Ims
2. Lauri Oksanen
3. E. Fuglei
4. Peter Turchin
5. E. Korpimäki
6. T. Oksanen
7. J. Olofsson
8. Jonas Dahlgren

Citations in the corpus

• Arctic lemmings, Lemmus spp. and Dicrostonyx spp.: integrating ecological and evolutionary perspectives (2008, methodology): “…values used in the models are based on the characteristics of arvicolines, their predators, and on arctic winter forage plants, such as mosses (Hanski et al., 1991, 1993, 2001; Turchin and Hanski, 1997; Turchin et al., 2000; Turchin and Batzli, 2001; Gilg et al., 2003; Klemola et al., 2003).”
• The Robust Volterra Principle* (2008, background): “contemporary discussions including the history of predator-prey modeling, see Berryman, 1992; Hanski, Henttonen, Korpimaki, Oksanen, & Turchin, 2001; Briggs & Hoopes, 2004; Jurrell, 2005.”
• Cyclic dynamics of sympatric lemming populations on Bylot Island, Nunavut, Canada (2008, background): “Many studies have suggested that population cycles of northern rodents are generated by combined effects of delayed and direct density dependences (Hanski et al. 2001; Klemola et al. 2003; Turchin 2003).”
• Trophic Interaction Cycles in Tundra Ecosystems and the Impact of Climate Change (2005, background): “Mathematical models of predator‐prey interactions have taught us what are the most plausible cycle-generating features of such interactions ( Hanski et al. 2001, Turchin 2003).”
• AVAILABILITY OF FOOD AND THE POPULATION DYNAMICS OF ARVICOLINE RODENTS (2001, methodology): “Unlike predator–prey theory in general, and its application to vole populations in particular (see Hanski et al. 2001), models for population interactions between arvicoline rodents and their food supply have not been a focus of intensive theoretical development (for two exceptions see Stenseth et…”
• Variation in the diet composition of a generalist predator, the red fox, in relation to season and density of main prey (2007, background): “Generalist predators are assumed to stabilize the small mammal population cycles driven by specialist predators due to their direct density-dependent impact on prey population densities (Hanski et al., 1991, 2001; Korpimäki and Krebs, 1996).”
• Use of arboreal and terrestrial space by a small mammal community in a tropical rain forest in Borneo, Malaysia (2004, background): “First, predation is likely to have some impact on the high turnover rates, and a high predation pressure may also influence the activity and mobility of species as a trade-off between anti-predator behaviour versus foraging and mating behaviour (see Hanski et al., 2001).”
• Small mammal abundance in Mediterranean post-fire habitats: a role for predators? (2004, background): “However, small mammal mortality due to predation also depends on the local abundance and identity of predators, that can also affect prey reproduction and population dynamics (e.g. Lin and Batzli, 1995; Mappes and Ylönen, 1997; see Hanski et al., 2001, for a review).”