Free-air CO2 enrichment (FACE) experiments have provided novel insights into the
ecological mechanisms controlling the cycling and storage of carbon in terrestrial …

The fungal symbionts forming ectomycorrhizas, as well as their associated bacteria, benefit
forest trees in a number of ways although the most important is enhancing soil nutrient …

Respiration of soil organic carbon is one of the largest fluxes of CO 2 on earth.
Understanding the processes that regulate soil respiration is critical for predicting future …

Fungi are the agents primarily responsible for the transformation of plant‐derived carbon in
terrestrial ecosystems. However, little is known of their responses to the seasonal changes …

There is growing evidence of the importance of extramatrical mycelium (EMM) of mycorrhizal
fungi in carbon (C) cycling in ecosystems. However, our understanding has until recently …

Mycorrhizal fungi are responsible for most nutrient uptake by the majority of land plants. As
such, mycorrhizas are increasingly recognized as important drivers of terrestrial ecosystem …

A common finding in multiple CO 2 enrichment experiments in forests is the lack of soil
carbon (C) accumulation owing to microbial priming of 'old'soil organic matter (SOM) …

Fungi dominate the microbial biomass of temperate forest soils and are a key driver of
ecosystem nutrient cycling. Chronic nitrogen (N) amendments frequently cause the …

Anthropogenic nitrogen (N) deposition alters ectomycorrhizal fungal communities, but the
effect on functional diversity is not clear. In this review we explore whether fungi that respond …

Estimates suggest that only one-tenth of the true fungal diversity has been described.
Among numerous fungal lineages known only from environmental DNA sequences, Soil …