Temperature profoundly impacts both the phenotypes and distributions of organisms. These
thermal effects exert strong selective pressures on behaviour, physiology and life history …

Today's scientists are facing the enormous challenge of predicting how climate change will
affect species distributions and species assemblages. To do so, ecologists are widely using …

We urgently need to predict species responses to climate change to minimize future
biodiversity loss and ensure we do not waste limited resources on ineffective conservation …

Most climate change predictions omit species interactions and interspecific variation in
dispersal. Here, we develop a model of multiple competing species along a warming …

Studies of evolutionary responses to novel environments typically consider single species or
perhaps pairs of interacting species. However, all organisms co-occur with many other …

Evolution proceeds unceasingly in all biological populations. It is clear that climate‐driven
evolution has molded plants in deep time and within extant populations. However, it is less …

The finding that adaptive evolution can often be substantial enough to alter ecological
dynamics challenges traditional views of community ecology that ignore evolution. Here, we …

An increasing number of studies demonstrate phenotypic and genetic changes in natural
populations that are subject to climate change, and there is hope that some of these …

Experimental studies of microbial evolution have largely focused on monocultures of model
organisms, but most microbes live in communities where interactions with other species may …

Rapid climate change both imposes strong selective pressures on natural populations–
potentially reducing their growth rate and causing genetic evolution–and affects the …