Natural nests of egg-laying birds and reptiles exhibit substantial thermal variation, at a range
of spatial and temporal scales. Rates and trajectories of embryonic development are highly …

Patterns in functional diversity of organisms at large spatial scales can provide insight into
possible responses to future climate change, but it remains a challenge to link large‐scale …

Flight ability is essential for the enormous diversity and evolutionary success of insects. The
migratory locusts exhibit flight capacity plasticity in gregarious and solitary individuals …

Warming temperatures caused by climate change are predicted to vary temporally and
spatially. For mid‐and high‐latitude reptiles, the seasonal variation in warming temperatures …

Flight of nocturnal insects may be limited by cool nighttime environmental temperatures. We
used laboratory and field experiments to explore the thermal basis of nocturnal flight in wing …

Climate warming poses a significant threat to species worldwide, particularly those
inhabiting arid and semi‐arid regions where extreme temperatures are increasingly …

Introduction Understanding the physiological responses to warming temperatures is critical
for evaluating the vulnerabilities of animals to climate warming. The physiological responses …

Parental effects may produce adaptive or maladaptive plasticity that either facilitates
persistence or increases the extinction risk of species and populations in a changing …

Survival of the immobile embryo in response to rising temperature is important to determine
a species' vulnerability to climate change. However, the collective effects of 2 key thermal …

Due to the speed of climate changes, rapid buffering mechanisms such as phenotypic
plasticity–which may depend on breeding phenology–could be key to avoid extinction. The …