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

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 …

As populations diverge in allopatry, but under similar thermal conditions, do similar thermal
performance phenotypes evolve by maintaining similar gene expression patterns, or does …

Geographic variation in environmental temperature can select for local adaptation among
conspecific populations. Divergence in gene expression across the transcriptome is a key …

Differences in population vulnerability to warming are defined by spatial patterns in thermal
adaptation. These patterns may be driven by natural selection over spatial environmental …

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

Background Geographic variation in the thermal environment impacts a broad range of
biochemical and physiological processes and can be a major selective force leading to local …

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 …

Adaptive evolution and phenotypic plasticity will fuel resilience in the geologically
unprecedented warming and acidification of the earth's oceans, however, we have much to …

As species struggle to keep pace with the rapidly warming climate, adaptive introgression of
beneficial alleles from closely related species or populations provides a possible avenue for …