The adequacy of collecting techniques for estimating species richness of grassland invertebrates

By V. Standen. 2000

144 citations recorded by the source corpus.

Subfields: Ecology, Evolution, Behavior and Systematics, Insect Science, Oceanography

View Paper: https://www.semanticscholar.org/paper/2c3a0a48196780de07875ddd0162162ea83741be

How researchers see this paper

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

In Ecology, Evolution, Behavior and Systematics

1. P. Batáry
2. C. Scherber
3. F. Samu
4. B. Woodcock
5. K. Orci
6. Verena Rösch
7. T. Tscharntke
8. Urs G. Kormann

In Insect Science

1. P. Batáry
2. T. Tscharntke
3. R. Arlettaz
4. Verena Rösch
5. A. Britschgi
6. F. Samu
7. Urs G. Kormann
8. Reto Spaar

In Oceanography

1. R. Arlettaz
2. Verena Rösch
3. A. Britschgi
4. T. Tscharntke
5. P. Batáry
6. F. Samu
7. Urs G. Kormann
8. Reto Spaar

Citations in the corpus

• Top-down and bottom-up consequences of unchecked ungulate browsing on plant and animal diversity in temperate forests: lessons from a deer introduction (2010, unknown): “They are most efficient for active groups such as ground beetles or spiders (Standen 2000) but work also for gastropods (Suominen 1999).”
• Biological consequences of invasion by reed canary grass (Phalaris arundinacea) (2009, background): “Sweeps provide an accurate and easily quantifiable sample of arthropod communities (Buffington and Redak 1998; Evans et al. 1983; Haddad et al. 2001; Standen 2000).”
• Impact of grassland farming intensification on the breeding ecology of an indicator insectivorous passerine, the Whinchat Saxicola rubetra: Lessons for overall Alpine meadowland management (2006, methodology): “To estimate accurately arthropod abundance and species diversity in the six grassland study plots, we used a combination of pitfall traps (epigeal fauna) and sweep-net sampling (epiphytic fauna) ( Standen, 2000 ).”
• Experimental verification of suction sampler capture efficiency in grasslands of differing vegetation height and structure (2008, background): “The effect of sward height on the efficiency of suction samplers is perhaps the most well-recognized of the problems associated with their use (e.g. Hossain, Gurr & Wratten 1999; Standen 2000; Southwood & Henderson 2000), and this is corroborated here.”
• Structural indicators of spider communities across the forest plantation cycle (2005, background): “Although pitfall traps will not efficiently sample web spinners which inhabit the upper vegetation layers, other web spinners, such as those from the family Linyphiidae, can be adequately sampled (Standen, 2000).”
• Landscape effects on recolonisation patterns of spiders in arable fields (2008, unknown): “However, lycosid spiders are most effectively collected with pitfall traps and it has been shown that the number of linyphiid species caught is about the same in pitfall traps as in D-vac trapping (Dinter, 1995; Standen, 2000).”
• The hydroecological controls and conservation value of beetles on exposed riverine sediments in England and Wales (2004, background): “In a study aimed at assessing which techniques were best suited to sample ERS invertebrates (Sadler and Petts, 2000) it was found that pitfall trap captures overrepresent large and mobile species (Andersen, 1995; Standen, 2000), many of which are habitat generalists and not strictly associated with ”
• Local and landscape management drive trait‐mediated biodiversity of nine taxa on small grassland fragments (2015, methodology): “Spiders were sampled by both suction sampling and pitfall trapping (see below) to improve coverage of species sampled (Standen, 2000).”