Tropical forests vary widely in biomass carbon (C) stocks and fluxes even after controlling for
forest age. A mechanistic understanding of this variation is critical to accurately predicting …

Realistic forecasting of forest responses to climate change critically depends on key
advancements in global vegetation modelling. Compared with traditional 'big-leaf'models …

Forests are major components of the global carbon (C) cycle and thereby strongly influence
atmospheric carbon dioxide (CO 2) and climate. However, efforts to incorporate forests into …

Tropical forests take up more carbon (C) from the atmosphere per annum by photosynthesis
than any other type of vegetation. Phosphorus (P) limitations to C uptake are paramount for …

Tropical forests are hyper‐diverse and perform critical functions that regulate global climate,
yet they are also threatened by rising temperatures. Canopy temperatures depart …

Mapping tropical forest aboveground biomass (AGB) is important for quantifying emissions
from land use change and evaluating climate mitigation strategies but remains a challenging …

Atmospheric CO2 (ca) rise changes the physiology and possibly growth of tropical trees, but
these effects are likely modified by climate. Such ca× climate interactions importantly drive …

Forest dynamic models predict the current and future states of ecosystems and are a nexus
between physiological processes and empirical data, forest plot inventories and remote …

Given their ability to provide food, raw material and alleviate poverty, oil palm (OP)
plantations are driving significant losses of biodiversity-rich tropical forests, fuelling a heated …

Forests play an influential role in the global carbon (C) cycle, storing roughly half of
terrestrial C and annually exchanging with the atmosphere more than five times the carbon …