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Research Article Open access CC BY 4.0

On General Mathematical Constraints Applying to the Kinetics of Species Discovery during Progressive Sampling: Consequences on the Theoretical Expression of the Species Accumulation Curve

Jean Béguinot

Advances in Research · pp. 1–17 · Published 3 Mar 2017

10.9734/AIR/2016/31791

Abstract

The “Species Accumulation Curve” accounts for the rate of increase of the number of recorded species during progressive sampling of an assemblage of species. Due to the usual incompleteness of samplings, the accurate extrapolation of the Species Accumulation Curve has become an essential tool to estimate the total species richness of a sampled assemblage and to predict the additional sampling effort required to obtain a given increase of sample completeness. In this perspective, important efforts have been devoted to improve the accuracy of the extrapolation of the Species Accumulation Curves. Substantial progress in this respect was achieved recently by considering a general mathematical relationship that constrains the theoretical expression of any kind of Species Accumulation Curves. Moreover, this general relationship proves having interesting corollaries applying specifically to the detailed process of species accumulation during progressive sampling. Hereafter, I first derive these correlative relationships and then I show how they link together the variations of the numbers of species respectively recorded 1-, 2-, 3- …, x- times and their cumulative contributions to the Species Accumulation Curve. This, in turn, provides suggestive insights regarding the remarkably regulated mechanism of species discovery and accumulation during progressive sampling effort.

Species diversity collector curve extrapolation estimation species richness incomplete sampling regulation Jackknife estimator

References (12)

  1. 1 INTERPOLATING, EXTRAPOLATING, AND COMPARING INCIDENCE-BASED SPECIES ACCUMULATION CURVES [DOI]
  2. 2 The Use of Species Accumulation Functions for the Prediction of Species Richness [DOI]
  3. 3 The species–accumulation curve and estimation of species richness [DOI]
  4. 4 Estimating Population Size Via Sample Coverage for Closed Capture-Recapture Models [DOI]
  5. 5 Discovering and rediscovering the sample-based rarefaction formula in the ecological literature [DOI]
  6. 6 Assessing biodiversity with species accumulation curves; inventories of small reptiles by pit‐trapping in Western Australia [DOI]
  7. 7 Comparing species richness among assemblages using sample units: why not use extrapolation methods to standardize different sample sizes? [DOI]
  8. 8 Applications of species accumulation curves in large‐scale biological data analysis [DOI]
  9. 9 Theoretical Derivation of a Bias-reduced Expression for the Extrapolation of the Species Accumulation Curve and the Associated Estimation of Total Species Richness [DOI]
  10. 10 A butterfly hotspot in western China, its environmental threats and conservation [DOI]
  11. 11 Butterfly fauna in Mount Gariwang-san, Korea [DOI]
  12. 12 Measuring and Estimating Species Richness, Species Diversity, and Biotic Similarity from Sampling Data [DOI]

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