All species within ecosystems contribute to regulating carbon cycling because of their
functional integration into food webs. Yet carbon modeling and accounting still assumes that …

Wetlands cover a small portion of the world, but have disproportionate influence on global
carbon (C) sequestration, carbon dioxide and methane emissions, and aquatic C fluxes …

Climate change leads to unequal shifts in the phenology of interacting species, such as
consumers and their resources, leading to potential phenological mismatches. While studies …

Arctic terrestrial herbivores influence tundra carbon and nutrient dynamics through their
consumption of resources, waste production, and habitat‐modifying behaviors. The strength …

Given the current rates of climate change, with associated shifts in herbivore population
densities, understanding the role of different herbivores in ecosystem functioning is critical …

Plants have different physiological characteristics as the season changes, grazing
management in compliance with plant growth and development characteristics may provide …

Climate warming is anticipated to make high latitude ecosystems stronger C sinks through
increasing plant production. This effect might, however, be dampened by insect herbivores …

Caribou (Rangifer tarandus) rely on the short Arctic growing season to restore body
condition, support the demands of lactation, and prepare for the long arctic winter, making …

Global change drivers that modify the quality and quantity of litter inputs to soil affect
greenhouse gas fluxes, and thereby constitute a feedback to climate change. Carbon cycling …

Deltas have a remarkable capacity to sustain human populations, owing to their productivity
and biodiversity. The increasing demand for fertile land and valuable resources in deltas …