Anthropogenic environmental changes, or 'stressors', increasingly threaten biodiversity and
ecosystem functioning worldwide. Multiple-stressor research is a rapidly expanding field of …

Wildlife populations and their habitats are exposed to an expanding diversity and intensity of
stressors caused by human activities, within the broader context of natural processes and …

Understanding the interactions among anthropogenic stressors is critical for effective
conservation and management of ecosystems. Freshwater scientists have invested …

In the context of global changes, fish are increasingly exposed to multiple stressors that
have cascading effects from molecules to the whole individual, thereby affecting wild fish …

Climate warming is a ubiquitous stressor in freshwater ecosystems, yet its interactive effects
with other stressors are poorly understood. We address this knowledge gap by testing the …

Predicting the impacts of multiple stressors is important for informing ecosystem
management but is impeded by a lack of a general framework for predicting whether …

Climate change threatens freshwater fish species due to predicted changes in thermal,
sedimentary and hydrological properties of stream ecosystems. Gravel-spawning fish are …

Shallow or near-shore environments, such as ponds, estuaries and intertidal zones, are
among the most physiologically challenging of all aquatic settings. Animals inhabiting these …

Humans are placing more strain on the world's oceans than ever before. Furthermore,
marine ecosystems are seldom subjected to single stressors, rather they are frequently …

Global change encompasses many co‐occurring anthropogenic stressors. Understanding
the interactions between these multiple stressors, whether they be additive, antagonistic or …