In mammals, how populations respond to extremes in the weather is related to their pace of life, with shorter living species having stronger responses than their longer living counterparts.

Models of plant behaviour show that flowering early in a warming world is an adaptive strategy to insulate progeny seed behaviour from the affects of climate change.

Bird species with higher plasma glucose show comparatively lower albumin glycation, suggesting the evolution of glycation resistance mechanisms, and terrestrial carnivores present higher glycation than omnivores.

Elevated growth rates and increased size-at-age leads to a larger population size structure, despite higher mortality and a younger population after three decades of exposure to 5–10°C higher temperatures in a large-scale natural climate change experiment.

Being born late in the active season is associated with a fast life history in a hibernating species, the garden dormouse (Eliomys quercinus).

Population genetics in turquoise killifish wild populations reveals how small population size and genetic drift determine the accumulation of deleterious gene variants leading to short lifespan.

Experiments in ex-germ-free mice establish a measurable effect of colonization history on gut microbiota assembly, illuminating a potential cause for the high levels of unexplained individuality in host-associated microbial communities.

A genome-organizing protein that is present only in the olfactory system of mice has been found to orchestrate changes in the relative numbers of different odor-sensing neurons on the basis of how active these neurons are.

Among captive chimpanzees, higher agreeableness males and higher openness females survive longer.

The multi-stage model of carcinogenesis requires the incorporation of aging-dependent somatic selection and life history-dependent evolution of species-specific tumor suppressor mechanisms in order to generalize carcinogenesis across tissues and species.