Forest ecosystems are subjected to global change drivers worldwide, such as increasing
temperature, atmospheric carbon dioxide, nutrient pollution, as well as changes in fire and …

Maintaining stability of ecosystem functions in the face of global change calls for a better
understanding regulatory factors of functionally specialized microbial groups and their …

Abstract Carbon (C): nitrogen (N): phosphorus (P) stoichiometry in terrestrial ecosystems
largely determines nutrient cycling in plant-soil-microorganism systems. However, a …

Over the last few decades, there has been an increasing number of controlled‐manipulative
experiments to investigate how plants and soils might respond to global change. These …

Forests cover ca. 42 million square kilometer in tropical, temperate, and boreal lands (ca.
30% of the land surface), store ca. 45% of terrestrial C, contribute ca. 50% of terrestrial net …

Nitrogen (N) and phosphorus (P) are essential elements limiting plant–microbial growth in
forest ecosystems. However, whether the pattern of plant–microbe nutrient limitation is …

Controlled experiments have shown that global changes decouple the biogeochemical
cycles of carbon (C), nitrogen (N), and phosphorus (P), resulting in shifting stoichiometry that …

World soils are subjected to a number of anthropogenic global change factors. Although
many previous studies contributed to understand how single global change factors affect soil …

Global warming has significantly affected terrestrial ecosystems. Biomass and C: N: P
stoichiometry of plants and soil is crucial for enhancing plant productivity, improving human …

It is globally accepted that soil carbon (C) dynamics are at the core of interlinked
environmental problems, deteriorating soil quality and changing climate. Its management …