We review the evidence of how organisms and populations are currently responding to
climate change through phenotypic plasticity, genotypic evolution, changes in distribution …

High‐mountain areas provide excellent opportunities to study the effects of combined abiotic
stresses on plant physiology given their variety of steep ecological gradients, low …

Phenology is often identified as one of the main structural driving forces of plant–flower
visitor networks. Nevertheless, we do not yet have a full understanding of the effects of …

Mediterranean mountains are extraordinarily diverse and hold a high proportion of endemic
plants, but they are particularly vulnerable to climate change, and most species distribution …

Understanding how plants respond and adapt to varying environmental conditions has
attracted the attention of plant ecologists for decades. To study this process, altitudinal …

Environmental variation within a species' range can create contrasting selective pressures,
leading to divergent selection and novel adaptations. The conservation value of populations …

The projected alterations to climate in the High Arctic are likely to result in changes to the
short growing season, particularly with varying predicted effects on winter snowfall, the …

Abstract Background and Aims Flowering is a key process in the life cycle of a plant. Climate
change is shifting flowering phenologies in the Northern Hemisphere, but studies with long …

Plant growth in M editerranean high mountains is limited by the double climatic stress of low
winter temperatures and summer drought. Elevational shifts in response to climate change …

Phenological shifts are a widely studied consequence of climate change. Little is known,
however, about certain critical phenological events, nor about mechanistic links between …