Many species of salamanders (newts and salamanders per se) have a pivotal role in energy
flow pathways as they include individuals functioning as prey, competitors, and predators …

A mechanistic understanding of phenology, the seasonal timing of life history events, is
important for understanding species' interactions and the potential responses of ecological …

A shift in the relative arrival of offspring, for example a shift in hatching time, can affect
competition at the intraspecific level through size‐mediated priority effects, where the larger …

Although there is mounting evidence indicating that the relative timing of predator and prey
phenologies determines the outcome of trophic interactions, we still lack a comprehensive …

As reproduction phenologies shift with climate change, populations can experience
intraspecific priority effects, wherein early hatching cohorts experience an advantage over …

Reduced trophic resources can pose relevant constraints to the development of freshwater
animals with complex life cycles. For amphibians, food deprived environments, such as high …

Virtually all natural community assemblages are dominated by a handful of common
species. Dominant species can exert negative impacts on biodiversity through competitive …

Understanding attributes of phenology beyond the mean date of a life history event, such as
variability among individuals within a population, is critical to predict how climate‐induced …

Phenological mismatches caused by climate change pose a major threat to global
biodiversity, yet relatively few studies have reported population declines resulting from …

Variability in phenological shifts (seasonal changes in biological events) has become more
common with climate change. As phenological variability increases due to climatic factors …