INTERACTIVE EFFECTS OF PREDATION AND DISPERSAL ON ZOOPLANKTON COMMUNITIES

By Jonathan B. Shurin. 2001

200 citations recorded by the source corpus.

Subfields: Global and Planetary Change, Nature and Landscape Conservation, Oceanography

View Paper: https://www.semanticscholar.org/paper/8128abf573a8775c7993411f94e5dc35987e20c0

How researchers see this paper

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

In Global and Planetary Change

In Nature and Landscape Conservation

In Oceanography

Citations in the corpus

Biodiversity effects on ecosystem functioning: emerging issues and their experimental test in aquatic environments (2004, unknown): “been few investigations of the effects of propagule diversity on ecosystem processes, aquatic communities seem particularly suitable for experimental manipulations of propagule density at a range of spatial scales: from the laboratory (Long and Karel 2002) to mesocosms (Shurin 2001) and to field man”
Impact of fish introduction on planktonic food webs in lakes of the Patagonian Plateau (2006, background): “ Shurin (2001) suggested that small zooplankton coexist regionally with larger species because of their ability to coexist locally with Table 2 ‐ Total phytoplankton abundance: nano ( 20 lm) phytoplankton fractions, and the nano:net ratios in five lakes with fishes and five fishless lakes”
Taxonomic, functional and phylogenetic metacommunity ecology of cladoceran zooplankton along urbanization gradients (2018, background): “…among zooplankton species is often size mediated, as numerous studies have demonstrated that large zooplankton species are stronger competitors and tend to competitively exclude smaller species from local communities (Brooks and Dodson 1965, Dodson 1974, Shurin 2001, Symons and Shurin 2016).”
Conceptual Synthesis in Community Ecology (2010, background): “…created by dispersal, either related to locality isolation or stochastic variation, density-dependent selection via species interactions can further magnify local variation in species composition, as in freshwater communities of zooplankton and their insect or fish predators (Shurin 2001).”
Dispersal and diversity in experimental metacommunities: linking theory and practice (2016, background): “Several such studies have assessed the effect of trophic interactions on the dispersal–diversity relationship by including predators as a treatment (Shurin 2001, Kneitel and Miller 2003, Cadotte et al. 2006, Howeth and Leibold 2010a) or as a form of patch heterogeneity (Howeth and Leibold 2010b).”
The metacommunity concept: a framework for multi-scale community ecology (2004, methodology): “One solution of this apparent paradox is found in a food web metacommunity assembly model (Shurin & Allen 2001).”
The role of metacommunity processes in shaping invertebrate rock pool communities along a dispersal gradient (2007, background): “According to Spencer et al. (2002) nearby communities can be similar because the water bodies they inhabit are more likely to share similar environmental conditions.”
The role of habitat connectivity and landscape geometry in experimental zooplankton metacommunities (2002, background): “…short generation times, they respond rapidly to experimental treatments; (5) diverse communities are easily maintained in experimental mesocosms (Shurin 2001, M. Leibold pers. comm.); and (6) zooplankton community composition varies along environmental gradients, particularly the level of…”
Biodiversity in metacommunities: Plankton as complex adaptive systems? (2004, background): “In a set of manipulative in situ experiments in a landscape of ponds in southwestern Michigan, Shurin (2000) found that local zooplankton communities are surprisingly resistant to invasions by species in the larger species pool that characterizes the entire region or metacommunity.”
Trade‐offs in community ecology: linking spatial scales and species coexistence (2004, result): “Theoretically, the presence of a keystone predator can release the constraint that a competition–colonization trade-off is necessary for coexistence (Shurin & Allen 2001); also see Shurin (2001) for experimental results in support of this model with aquatic zooplankton.”
Mechanisms, effects, and scales of dispersal in freshwater zooplankton (2004, background): “A second experiment (Shurin 2001) found that introducing fish and insect predators also made communities much more susceptible to invasion, much in the same way as artificially reducing the density of resident species.”