In response to environmental change, organisms rely on both genetic adaptation and
phenotypic plasticity to adjust key traits that are necessary for survival and reproduction …

Thermal adaptation to spatially varying environmental conditions occurs in a wide range of
species, but what is less clear is the nature of fitness trade-offs associated with this …

Understanding how populations adapt to heterogeneous thermal regimes is essential for
comprehending how latitudinal gradients in species diversification are formed, and how taxa …

Organisms may respond to changing environments through phenotypic plasticity or adaptive
evolution. These two processes are not mutually exclusive and may either dampen or …

Thermal stress experiments are essential for understanding organisms' thermal limits and
the physiological processes that contribute to establishing those limits. Experiments typically …

Trade‐offs may influence both physiological and evolutionary responses to co‐occurring
stressors, but their effects on both plastic and adaptive responses to climate change are …

Understanding the factors affecting thermal tolerance is crucial for predicting the impact
climate change will have on ectotherms. However, the role developmental plasticity plays in …

Because of their complex life histories, different life stages of many marine invertebrates may
be exposed to varying environmental challenges. Ultimately, the life stage that is least …

Whether populations can adapt to predicted climate change conditions, and how rapidly, are
critical questions for the management of natural systems. Experimental evolution has …

The study of a species' thermal tolerance and vital rates responses provides useful metrics
to characterize its vulnerability to ocean warming. Under prolonged thermal stress, plastic …