Organisms must survive a variety of stressful conditions, including sudden temperature
increases that damage important cellular structures and interfere with essential functions. In …

Environmental metabolomics is the application of metabolomics to characterise the
interactions of organisms with their environment. This approach has many advantages for …

We review the evidence of how organisms and populations are currently responding to
climate change through phenotypic plasticity, genotypic evolution, changes in distribution …

Phenotypic plasticity can serve as a step** stone towards adaptation. Recently, studies
have shown that gene expression contributes to emergent stress responses such as thermal …

Plants possess inducible tolerance mechanisms that extend the temperature range for
survival during acute temperature stress. The inducible mechanisms of cold acclimation and …

Over the last decade, numerous studies have investigated the role of oxygen in setting
thermal tolerance in aquatic animals, and there has been particular focus on arthropods …

The field of metabolomics continues to grow rapidly over the last decade and has been
proven to be a powerful technology in predicting and explaining complex phenotypes in …

Shifts in the elemental stoichiometry of organisms in response to their ontogeny and to
changing environmental conditions should be related to metabolomic changes because …

Understanding the genetic basis of climatic adaptation is essential for predicting species'
responses to climate change. However, intraspecific variation of these responses arising …

Ecometabolomics, which aims to analyze the metabolome, the total number of metabolites
and its shifts in response to environmental changes, is gaining importance in ecological …