Frontiers in Microbiology · 2017 · 44 citations · 65 references
Life SciencesEcologyMicrobiologyForest EcologyMicrobial EcologyMycologyForest BiodiversityFungal DiversityPlant-associated Microbial CommunitiesWood DecayDeadwood Decomposition DynamicsDeadwood EcologyDeadwood Nutrient CyclingDeadwood Species CompositionDecomposition In Forest SoilsForest Fungal EcologyFungal Ecology In WoodInternal Transcribed Spacer Sequencing
< 0.001). Variations in WIF community composition of both tree species were significantly explained by wood pH and ecological factors (biotic: deadwood species, basal area and abiotic: soil pH), but the WIF communities derived from each tree species correlated differently with abiotic factors. Interestingly, we found that deadwood decomposition rate significantly correlated with WIF communities and negatively correlated with WIF OTU richness. We conclude that the pattern of WIF OTU richness and community composition are controlled by multiple interacting biotic and abiotic factors. Overall, our study provides an in-depth picture of the deadwood mycobiome in this subtropical forest. Furthermore, by comparing our results to results from temperate and boreal forests we contribute to a better understanding of patterns of WIF communities across different biomes and geographic locations.
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