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

To better predict how populations and communities respond to climatic temperature
variation, it is necessary to understand how the shape of the response of fitness-related …

Organisms in natural environments experience diel temperature fluctuations, including
sporadic extreme conditions, rather than constant temperatures. Studies based mainly on …

Abstract Models of marine biogeochemistry capture the effects of temperature on
phytoplankton growth via the monotonic, exponential Eppley coefficient, without considering …

With both global surface temperatures and the incidence and intensity of extreme
temperature events projected to increase, the assessment of species' sensitivity to chronic …

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

In this review we consider how small-scale temporal and spatial variation in body
temperature, and biochemical/physiological variation among individuals, affect the …

Phytoplankton are key components of ecosystems. Their growth is deeply influenced by
temperature. In a context of global change, it is important to precisely estimate the impact of …

The effect of climate warming on community composition is expected to be contingent on
competitive outcomes, yet approaches to projecting ecological outcomes often rely on …

Environmental variability is ubiquitous, but its effects on populations are not fully understood
or predictable. Recent attention has focused on how rapid evolution can impact ecological …