Adaptive thermal plasticity allows organisms to adjust their physiology to cope with
fluctuating environments. However, thermal plasticity is rarely studied in response to thermal …

Migratory insects display diverse behavioral strategies in response to external
environmental shifts, via energy allocation of migration-reproduction trade-offs. However …

Potential effects of future warming should be reflected in life history patterns of aquatic
organisms observed in warmer climates or in habitats that are different in ambient …

The developmental response of insects to temperature is important in understanding the
ecology of insect life histories. Temperature-dependent phenology models permit …

Historical data show that recent climate change has caused advances in seasonal timing
(phenology) in many animals and plants, particularly in temperate and higher latitude …

Global warming appears to favour smaller-bodied organisms, but whether larger species are
also more vulnerable to thermal extremes, as suggested for past mass-extinction events, is …

Global warming is expected to drive species toward higher altitudes. Indeed, most
documented range shifts are upward, but observed shifts are often far from model …

Though organisms may use thermal plasticity to cope with novel temperature regimes, our
understanding of plastic responses is limited. Research on thermal plasticity has traditionally …

Beet webworm, Loxostege sticticalis (L.) is a facultative long-distance migratory insect pest
in many regions between 36° and 55° N latitude. The outbreaks of larvae are closely related …

Elevated temperature often has life stage-specific effects on ectotherms because thermal
tolerance varies throughout ontogeny. Impacts of elevated temperature may extend beyond …