Mechanisms, effects, and scales of dispersal in freshwater zooplankton

By J. Havel, Jonathan B. Shurin. 2004

378 citations recorded by the source corpus.

Subfields: Ecology, Environmental Chemistry, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/164364e5b6ceaedb9b8f6031434c20239a2528ba

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. L. Brendonck
2. Bram Vanschoenwinkel
3. J. Heino
4. A. Green
5. J. Figuerola
6. M. Seaman
7. A. Waterkeyn
8. J. Soininen

In Environmental Chemistry

1. J. Heino
2. J. Soininen
3. A. Green
4. J. Figuerola
5. David L. Strayer
6. Bram Vanschoenwinkel
7. A. Waterkeyn
8. R. Vinebrooke

In Nature and Landscape Conservation

1. L. Brendonck
2. Bram Vanschoenwinkel
3. J. Heino
4. A. Green
5. J. Figuerola
6. M. Seaman
7. A. Waterkeyn
8. J. Soininen

Citations in the corpus

• The diversity and distribution of diatoms: from cosmopolitanism to narrow endemism (2008, background): “The subsequent spread of these species provides opportunities to study the scale dependence of dispersal (Havel and Shurin 2004).”
• Environmental warming increases invasion potential of alpine lake communities by imported species (2005, background): “Thus, zooplankton are slow to colonize insular alpine lakes (McNaught et al., 1999; Donald et al., 2001; Knapp et al., 2001) likely because they must depend on wind for dispersal, and upon arrival, contend with resident species (e.g. Cáceres & Soluk, 2002; Havel & Shurin, 2004).”
• Aquatic invasive species: challenges for the future (2015, background): “With the exception of flying insects and mobile vertebrates, most aquatic species lack the means for active dispersal into isolated drainages and instead use a variety of transport vectors for passive dispersal (Havel & Shurin, 2004) .”
• Passive external transport of freshwater invertebrates by elephant and other mud-wallowing mammals in an African savannah habitat (2011, background): “Man undoubtedly remains unrivalled when it comes to transporting vast numbers of exotic organisms including many freshwater invertebrates on a global scale (Havel & Shurin, 2004; Green et al., 2005; Jacobs & Mac Isaac, 2007; Waterkeyn et al., 2010a,b).”
• Recent advances in the study of long‐distance dispersal of aquatic invertebrates via birds (2005, background): “These studies have revealed major variation between taxa in their potential to disperse to and colonize new habitats at local scales (< 1 km), as well as evidence that zooplankton communities rapidly saturate and resist invasion by further species (Bohonak & Jenkins, 2003; Havel & Shurin, 2004).”
• Neutrality, niches, and determinants of plankton metacommunity structure across boreal wetland ponds (2007, background): “This relatively small spatial extent should ensure that most of the species have potentially relatively free access to all localities within our study system (see Figuerola & Green, 2002; Cohen & Shurin, 2003; Havel & Shurin, 2004).”
• The role of metacommunity processes in shaping invertebrate rock pool communities along a dispersal gradient (2007, background): “Havel and Shurin (2004) proposed that isolation at a scaleB60 m might place few limits on zooplankton dispersal.”
• Challenges for freshwater invertebrate conservation (2006, background): “Actual measurements of long-term dispersal rates of freshwater invertebrates are difficult to make (Bohanak and Jenkins 2003, Havel and Shurin 2004), but at least some zooplankton and aquatic insects have dispersal rates that may be sufficient to keep up with climate change (cf. Bohanak and Jenkins…”
• Does size matter for dispersal distance (2007, background): “Hebert & Wilson, 1994; Havel & Shurin, 2004; Gomez, 2005).”