Physiological studies contribute to a cause and effect understanding of ecological patterns
under climate change and identify the scope and limits of adaptation. Across most habitats …

In this article, we pointed out that understanding the physiology of differential climate change
effects on organisms is one of the many urgent challenges faced in ecology and …

Observations of climate impacts on ecosystems highlight the need for an understanding of
organismal thermal ranges and their implications at the ecosystem level. Where changes in …

Climate change effects on marine ecosystems involve various stressors, predominantly
temperature, hypoxia and CO 2, all of which may combine with further anthropogenic …

Understanding thermal ranges and limits of organisms becomes important in light of climate
change and observed effects on ecosystems as reported by the IPCC (2014). Evolutionary …

Although many studies have modeled the effects of climate change on future species
distributions and extinctions, the theoretical approach most commonly used—climate …

Warming, the most prominent aspect of global environmental change, already affects most
ecosystems on Earth. In recent years, biologists have increasingly integrated the effects of …

Predicting species responses to global warming is the holy grail of climate change science.
As temperature directly affects physiological rates, it is clear that a mechanistic …

Accurately forecasting the response of global biota to warming is a fundamental challenge
for ecology in the Anthropocene. Within-species variation in thermal sensitivity, caused by …

Organisms living in seasonal environments often adjust physiological capacities and
sensitivities in response to (or in anticipation of) environment shifts. Such physiological and …