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 learn …

The killifish Fundulus heteroclitus is an estuarine species with broad physiological plasticity,
enabling acclimation to diverse stressors. Previous work suggests that freshwater …

Predicting the response of marine animals to climate change is hampered by a lack of
multigenerational studies on evolutionary adaptation, particularly to combined ocean warming …

Adaptation to salinity affects species distributions, promotes speciation, and guides many
evolutionary patterns in fishes. To uncover the basis of a complex trait like osmoregulation, …

Metazoan adaptation to global change relies on selection of standing genetic variation.
Determining the extent to which this variation exists in natural populations, particularly for …

Adaptive divergence between marine and freshwater (FW) environments is important in
generating phyletic diversity within fishes, but the genetic basis of this process remains poorly …

The resilience of organisms to climate change through adaptive evolution is dependent on
the extent of genetically based variation in key phenotypic traits and the nature of genetic …

Standing genetic variation is important for population persistence in extreme environmental
conditions. While some species may have the capacity to adapt to predicted average future …

Phylogeographic inference has typically relied on analyses of data from one or a few genes
to provide estimates of demography and population histories. While much has been learned …

Regulation of internal ion homeostasis is essential for fishes inhabiting environments where
salinities differ from their internal concentrations. It is hypothesized that selection will reduce …