Thermal acclimation is hypothesized to offer a selective advantage in seasonal habitats and
may underlie disparities in geographic range size among closely‐related species with …

Global warming is influencing the biology of the world's biota. Temperature increases are
occurring at a faster pace than that experienced by organisms in their evolutionary histories …

Thermal adaptation predicts that thermal sensitivity of physiological traits should be
optimized to thermal conditions most frequently experienced. Furthermore, thermodynamic …

Recent syntheses indicate that global warming affects diverse biological processes, but also
highlight the potential for some species to adapt behaviourally or evolutionarily to rapid …

Despite the recognition that some species might quickly adapt to new conditions under
climate change, demonstrating and predicting such a fundamental response is challenging …

Physiological acclimation has the potential to improve survival during climate change by
reducing sensitivity to warming. However, acclimation can produce trade-offs due to links …

Rapid global change has increased interest in developing ways to identify suitable refugia
for species of conservation concern. Correlative and mechanistic species distribution …

Widespread species often possess physiological mechanisms for coping with thermal
heterogeneity, and uncovering these mechanisms provides insight into species' responses …

Human activities often replace native forests with warmer, modified habitats that represent
novel thermal environments for biodiversity. Reducing biodiversity loss hinges upon …

Macroclimatic niches are indirect and potentially inadequate predictors of the realized
environmental conditions that many species experience. Consequently, analyses of niche …