There is growing recognition of the need to understand the mechanisms underlying
organismal resilience (ie tolerance, acclimatization) to environmental change to support the …

Fishes respond to different abiotic and biotic stressors through changes in gene expression
as a part of an integrated physiological response. Transcriptomics approaches have been …

California's 5-year drought has ended, even as its aftermath lingers. From 2012–2016 much
or all of California was under severe drought conditions, with greatly diminished …

In tropical estuaries, fish diversity varies spatially and temporally due to behavioral
processes such as reproductive migrations, predator avoidance, and foraging, which are …

This chapter reviews and synthesises knowledge on reproduction and recruitment in estuary‐
dependent and estuary‐associated fishes. Resident and migrating species (anadromous …

Natural environments are subject to a range of anthropogenic stressors, with pharmaceutical
pollution being among the fastest-growing agents of global change. However, despite wild …

The need to better understand how plasticity and evolution affect organismal responses to
environmental variability is paramount in the face of global climate change. The potential for …

Thermal tolerance and associated mechanisms are often tested via the critical thermal
maximum (CT max). The agitation temperature is a recently described thermal limit in fishes …

“The basic lesson from the collapse of Delta Smelt is that to save species, ecosystembased
actions have to be taken quickly to halt irreversible change, or at least to guide inevitable …

The upper thermal tolerance of brook trout Salvelinus fontinalis was estimated using critical
thermal maxima (CTmax) experiments on fish acclimated to temperatures that span the …