Global change includes a substantial increase in the frequency and intensity of extreme high
temperatures (EHTs), which influence insects at almost all levels. The number of studies …

Upper thermal limits (CTmax) are frequently used to parameterize the fundamental niche of
ectothermic animals and to infer biogeographical distribution limits under current and future …

Both oxygen and temperature are fundamental factors determining metabolic performance,
fitness, ecological niches, and responses of many aquatic organisms to climate change …

Understanding the physiological mechanisms that limit animal thermal tolerance is crucial in
predicting how animals will respond to increasingly severe heat waves. Despite their …

Forecasting long‐term consequences of global warming requires knowledge on thermal
mortality and how heat stress interacts with other environmental stressors on different …

Warming of aquatic environments as a result of climate change is already having
measurable impacts on fishes, manifested as changes in phenology, range shifts and …

Determining the resilience of a species or population to climate change stressors is an
important but difficult task because resilience can be affected both by genetically based …

In an ocean that is rapidly warming and losing oxygen, accurate forecasting of species'
responses must consider how this environmental change affects fundamental aspects of …

Changing environmental temperatures impact the physiological performance of fishes, and
consequently their distributions. A mechanistic understanding of the linkages between …

Oxygen bioavailability is declining in aquatic systems worldwide as a result of climate
change and other anthropogenic stressors. For aquatic organisms, the consequences are …