Abstract C, N and P are three of the most important elements used to build living beings, and
their uptake from the environment is consequently essential for all organisms. We have …

Human‐driven changes in nitrogen (N) and phosphorus (P) inputs are modifying
biogeochemical cycles and the trophic state of many habitats worldwide. These alterations …

We present a framework to explain how prey stress responses to predation can resolve
context dependency in ecosystem properties and functions such as food chain length …

The application of ionomics and ecological stoichiometry benefits conservation biology with
necessary ecological and evolutionary relevance, allowing unresolved problems to be …

Nitrogen (N) deposition has increased substantially since the second half of the 20th century
due to human activities. This increase of reactive N into the biosphere has major …

The niche concept is essential to understanding how biotic and abiotic factors regulate the
abundance and distribution of living entities, and how these organisms utilize, affect and …

Stoichiometric differences among organisms can affect trophic interactions and rates of
nutrient cycling within ecosystems. However, we still know little about either the underlying …

Global change analyses usually consider biodiversity as a global asset that needs to be
preserved. Biodiversity is frequently analysed mainly as a response variable affected by …

Ecological stoichiometry expresses ecological interactions as the balance between multiple
elements. It relates the ecological function of organisms to their elemental composition, or …

Key processes such as trophic interactions and nutrient cycling are often influenced by the
element content of organisms. Previous analyses have led to some preliminary …