Phenotypic plasticity is ubiquitous and generally regarded as a key mechanism for enabling
organisms to survive in the face of environmental change. Because no organism is infinitely …

Variation in life‐history traits can have major impacts on the ecological and evolutionary
responses of populations to environmental change. Life‐history variation often results from …

The evolution of male ornamentation often reflects compromises between sexual and
natural selection, but it may also be influenced by phenotypic plasticity. We investigated the …

There is a growing effort to understand how sexual selection varies over space and time
under different ecological conditions and how this can maintain variation in sexual traits. An …

Highlights•Butterflies did not alter oviposition with respect to sodium levels in
plants.•Caterpillars did not avoid plants containing moderate levels of sodium.•Caterpillars …

In sexual species, phenotypic divergence between males and females, or sexual
dimorphism, is often the source of the most staggering examples of phenotypic variation in …

Divergent natural selection regimes can contribute to adaptive population divergence, but
can be sensitive to human‐mediated environmental change. Nutrient loading of aquatic …

Cryptic pigmentation of prey is often thought to evolve in response to predator‐mediated
selection, but pigmentation traits can also be plastic, and change with respect to both abiotic …

Measuring sexual selection in changing environments is challenging, as the targets and
mechanisms of selection can vary with the environment. Here, we present the results of an …

Although sexually dimorphic traits are often well studied, we know little about sex-specific
resource use strategies that should underlie such dimorphism. We measured sex-specific …