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. 2015 Jan 28;10(1):e0117026. doi: 10.1371/journal.pone.0117026

Table 3. Fungal phyla and orders for which vegetation type, depth and/or an interaction between the two significantly impacted their proportion in the sequence libraries.

Phylum Vegetation Type Depth 1 Vegetation Type x Depth 1
Ascomycota nse 6.16; 1,∞; 0.013 nse
Chytridiomycota 12.59; 1,7.11; 0.0091 7.22; 1,∞; 0.0072 6.44; 1,∞; 0.011
Fungi incertae sedis 7.22; 1,9.62; 0.024 19.81; 1,∞; 8.56 x10–6 nse
Glomeromycota nse 12.05; 1,∞; 0.0005 nse
Order
Cantharellales 29.34; 1,9.28; 0.00038 nse nse
Coniochaetales 5.54; 1,7.86; 0.047 14.21;1,∞; 0.00016 nse
Pezizales 12.38; 1,6.24; 0.012 27.11; 1,∞; 1.93 x 10-7 nse
Spizellomycetales 8.03; 1,7.98; 0.022 18.56; 1,∞; 1.65 x10-5 7.47; 1,∞; 0.0063
Teloschistales 12.16; 1,9.27; 0.0065 25.38; 1,∞; 4.71 x 10-7 7.61; 1,∞; 0.0058
Capnodiales nse 68.04 1,∞; 2.22x10-16 11.06; 1,∞; 0.0009
Sordariales nse 14.03; 1,∞; 0.0002 11.44; 1,∞; 0.0007

1As noted in the results section, in the method of Brunner et al. [37], the denominator degrees of freedom for the test for split plot effects and the interaction of whole and split plots will be infinite. As a practical matter, the upper tailed probabilities for large and infinite denominator degrees of freedom will be subequal. Thus, the code for this algorithm in [38] uses 10,000 denominator degrees of freedom for these tests.