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Climate-change ecology is the study of the effects of anthropogenic climate change on any aspect of ecology. It includes the effects of altered temperature and precipitation on the distribution, abundance, behaviour and physiology of populations and communities.
Vocal communication is essential for information transmission in many species, such as that related to mating opportunities or predator presence. Recent research revealing how phenotypic changes brought about by a changing climate may influence vocal communication raises some serious concerns for conservation management.
Seasonal variations of temperature modify coral thermal tolerance threshold for Pocillopora verrucosa species while Acropora spp. remain unchanged when exposed to the same in situ conditions.
Climate change is inducing widespread shifts in the phenology of terrestrial organisms. This global analysis reveals a growing asymmetry between plant and animal responses, with more pronounced phenological shifts in plants.
How climate change will impact microbial community growth is unclear. Here, the authors use a field experiment with varying global change factors, finding fungal growth more drought-resistant than microbial growth and overall changes in bacterial growth strategies.
Understanding how global changes affect both aboveground plants and belowground soil organisms is essential for preserving ecosystem functions and biodiversity. This study synthesizes extensive data, revealing decoupled responses in plant and soil biota to global changes across different biomes.
Vocal communication is essential for information transmission in many species, such as that related to mating opportunities or predator presence. Recent research revealing how phenotypic changes brought about by a changing climate may influence vocal communication raises some serious concerns for conservation management.
High-severity wildfires in the Alaskan Arctic tundra promote shrub growth, which drives a fire–greening positive feedback loop. The existence of this feedback loop suggests that wildfires have an important role in the changing tundra landscape amid rapid Arctic warming.
Atmospheric CO2 enrichment inhibits the growth and activity of autotrophic nitrifiers through aggravation of anoxic stress in a nitrogen-rich paddy soil, according to a long-term free-air CO2 enrichment experiment. This CO2-induced inhibition effect on nitrifiers might contribute to the decline of inorganic nitrogen pools in lowland soil systems.
Compositional shifts in forest communities are known to not keep pace with climate change, which leads to accumulating ‘climatic debts’. We show that grassland communities in California are transforming rapidly, at a pace similar to that of climate warming and drying, and are paying off their climatic debts continuously.