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Canonical Ordination

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Numerical Ecology with R

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Abstract

Canonical ordination associates two or more data sets in the ordination process itself. Consequently, if one wishes to extract structures of a data set that are related to (or can be interpreted by) another data set, and/or formally test statistical hypotheses about the significance of these relationships, canonical ordination is the way to go. in this chapter, you will learn how to choose among various canonical ordination techniques: asymmetric (RDA, db-RDA, CCA, LDA, PRC and CoCA) and symmetric (CCorA, CoIA and MFA); explore methods devoted to the study of the relationships between species traits and environment; compute them using the correct options and properly interpret the results; apply these techniques to the Doubs River and other data sets; explore particular applications of some canonical ordination methods, for instance variation partitioning and multivariate analysis of variance by RDA; and write your own RDA function.

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Notes

  1. 1.

    For convenience, some programs and functions standardize the X variables at the beginning of the calculation. This does not change the RDA results because standardizing X, or not, does not change the matrix Ŷ of fitted values of the multivariate regression, upon which the RDA statistics, tests of significance, and PCA are computed.

  2. 2.

    Obtained with RsquareAdj( spe.rda).

  3. 3.

    Mathematically, to partial out the effect of a matrix W from a canonical ordination of Y by X, one computes the residuals of a multivariate multiple regression of X on W and uses these residuals as the explanatory variables .

  4. 4.

    Two important conditions are that the species must have been sampled along their whole ecological range and that they display unimodal responses towards their main ecological constraints. These conditions are difficult to test formally, but graphs of species abundances in sites arranged along their scores on the first few CA ordination axes may help visualize their distributions along the main ecological gradients.

  5. 5.

    Note that ade4 has been developed around a general mathematical framework involving entities that will not be described here, called duality diagrams (Escoufier 1987); hence the dudi part of the function names. Readers are invited to consult the original publication to learn more about this framework.

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Borcard, D., Gillet, F., Legendre, P. (2018). Canonical Ordination. In: Numerical Ecology with R. Use R!. Springer, Cham. https://doi.org/10.1007/978-3-319-71404-2_6

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