Climate change has often led to unequal shifts in the seasonal timing (phenology) of
interacting species, such as consumers and their resource, leading to phenological …

Phenology has achieved a prominent position in current scenarios of global change
research given its role in monitoring and predicting the timing of recurrent life cycle events …

Boreal forest soils function as a terrestrial net sink in the global carbon cycle. The prevailing
dogma has focused on aboveground plant litter as a principal source of soil organic matter …

Using historic data sets, we quantified the degree to which global change over 120 years
disrupted plant-pollinator interactions in a temperate forest understory community in Illinois …

Phenology—the timing of biological events—is highly sensitive to climate change. However,
our general understanding of how phenology responds to climate change is based almost …

Species interactions, ranging from antagonisms to mutualisms, form the architecture of
biodiversity and determine ecosystem functioning. Understanding the rules responsible for …

Globally, plants display enormous variation in life‐history strategies and trait combinations.
However, evidence suggests that evolutionary and physiological constraints limit the …

Climate change is altering the timing of life history events in a wide array of species, many of
which are involved in mutualistic interactions. Because many mutualisms can form only if …

Current evidence of phenological responses to recent climate change is substantially biased
towards northern hemisphere temperate regions. Given regional differences in climate …

Pollinators play an important role in terrestrial ecosystems by providing key ecosystem
functions and services to wild plants and crops, respectively. The sustainable provision of …