In experimental evolution, laboratory-controlled conditions select for the adaptation of
species, which can be monitored in real time. Despite the current popularity of such …

Phenotypic plasticity can allow organisms to cope with environmental changes. Although
reaction norms are commonly used to quantify plasticity along gradients of environmental …

With rapid and less predictable environmental change emerging as the 'new norm',
understanding how individuals tolerate environmental stress via plastic, often reversible …

Rapid anthropogenic climate change is a major threat to ocean biodiversity, increasing the
challenge for marine conservation. Strategic conservation planning, and more recently …

Environmental heterogeneity is considered a general explanation for phenotypic
diversification, particularly when heterogeneity causes populations to diverge via local …

Climate change is altering life at multiple scales, from genes to ecosystems. Predicting the
vulnerability of populations to climate change is crucial to mitigate negative impacts. We …

Highlights•Temperature and nutrition interact to affect key life history traits: size at maturity,
development rate, reproduction and survival.•Rates of development vary considerably …

Experimental evolution and the associated theory are underutilized in marine microbial
studies; the two fields have developed largely in isolation. Here, we review evolutionary …

Understanding species' responses to upwelling may be especially important in light of
ongoing environmental change. Upwelling frequency and intensity are expected to increase …

Temperatures are increasing due to global changes, putting biodiversity at risk. Organisms
are faced with a limited set of options to cope with this situation: adapt, disperse or die. We …