Increase in nitrogen (N) deposition will cause changes of root morphological and functional
traits, thus deeply affecting ecosystem carbon (C) and N cycles. However, the influence of N …

While multiple experiments have demonstrated that trees exposed to elevated CO 2 can
stimulate microbes to release nutrients from soil organic matter, the importance of root …

Plants allocate biomass to different organs in response to resource variation for maximizing
performance, yet we lack a framework that adequately integrates plant responses to the …

Projections of future climate are highly sensitive to uncertainties regarding carbon (C)
uptake and storage by terrestrial ecosystems. The Eucalyptus Free‐Air CO 2 Enrichment …

We present a representation of nitrogen and phosphorus cycling in the Functionally
Assembled Terrestrial Ecosystem Simulator, a demographic vegetation model within the …

Elevated atmospheric CO2 concentration (eCO2) typically stimulates tree growth, which is
mediated by nitrogen (N) availability; but how N regulates tree biomass responses to eCO2 …

Predicting the response of fine roots to increased atmospheric CO2 concentration has
important implications for carbon (C) and nutrient cycling in forest ecosystems. Root …

While it is increasingly recognized that ectomycorrhizal (ECM) and arbuscular mycorrhizal
(AM) tree species vary in their effects on soil nitrogen (N) cycling, little is known about the …

Understanding the synergic interactions between arbuscular mycorrhizal fungi (AMF) and its
host mulberry (Morus alba L.), an important perennial multipurpose plant, has theoretical …

Plant roots play a crucial role in regulating key ecosystem processes such as carbon (C)
sequestration and nutrient solubilisation. Elevated (e) CO2 is expected to alter the biomass …