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

The relevance of considering environmental variability for understanding and predicting
biological responses to environmental changes has resulted in a recent surge in variability …

Climate warming may lower environmental resource levels, growth, and fitness of many
ectotherms. In a classic experiment, Brett and colleagues documented that growth rates of …

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

As thermal regimes change worldwide, projections of future population and species
persistence often require estimates of how population growth rates depend on temperature …

Thermal variability is a key driver of ecological processes, affecting organisms and
populations across multiple temporal scales. Despite the ubiquity of variation, biologists lack …

Originally developed in bacterial and fungal models, Adaptive Laboratory Evolution (ALE)
experimentally selects for targeted phenotypes by allowing cells containing beneficial …

Although phenotypic plasticity is a widespread phenomenon, its implications for species
responses to climate change are not well understood. For example, toxic cyanobacteria can …

Phenotypic adjustments following environmental change are ubiquitous, and trait changes
arising through phenotypic plasticity often lag behind their environmental stimuli …

Evolutionary theory predicts that organismal plasticity should evolve in environments that
fluctuate regularly. However, in environments that fluctuate less predictably, plasticity may …