Temperate forests cover 16% of the global forest area. Within these forests, the understorey
is an important biodiversity reservoir that can influence ecosystem processes and functions …

Aim Experimental nitrogen (N) addition (fertilization) studies are commonly used to quantify
the impacts of increased N inputs on plant biodiversity. However, given that plant community …

The single-atom iron nanozyme (SA-Fe-NZ) exhibits high catalytic activity and excellent
electron transfer efficiency in biosensors. However, the binding of bioreceptors to the surface …

Forest biodiversity and ecosystem services are hitherto predominantly quantified in forest
interiors, well away from edges. However, these edges also represent a substantial …

Plant community composition and functional traits respond to chronic drivers such as climate
change and nitrogen (N) deposition. In contrast, pulse disturbances from ecosystem …

Functional traits respond to environmental drivers, hence evaluating trait‐environment
relationships across spatial environmental gradients can help to understand how multiple …

Nowadays, atmospheric concentrations of nitrogen oxides (NO X) have increased rapidly
and exceeded the threshold of ecosystems, inevitably affecting the plant growth and …

Atmospheric nitrogen and sulfur pollution increased over much of the United States during
the twentieth century from fossil fuel combustion and industrial agriculture. Despite recent …

Ungulate populations are increasing across Europe with important implications for forest
plant communities. Concurrently, atmospheric nitrogen (N) deposition continues to …

The discovery of nitrogen (N), its chemical compounds and reactions has advanced human
understanding of N cycling from the eighteenth century (Galloway et al., 2013). Until the …