Understanding the genetic basis of adaptation to climate is of paramount importance for
preserving and managing genetic diversity in plants in a context of climate change. Yet, this …

In response to selective pressure, adaptation may follow different genetic pathways
throughout the natural range of a species due to historical differentiation in standing genetic …

Local adaptation to climate is common in plant species and has been studied in a range of
contexts, from improving crop yields to predicting population maladaptation to future …

Forest trees generally show high levels of local adaptation and efforts focusing on
understanding adaptation to climate will be crucial for species survival and management …

Local adaptation to climate allows plants to cope with temporally and spatially
heterogeneous environments, and parallel phenotypic clines provide a natural experiment …

Genecological studies in widespread tree species have revealed steep genetic clines along
environmental gradients for climate‐related traits. In a changing climate, the ecological and …

Climate is the primary driver of the distribution of tree species worldwide, and the potential
for adaptive evolution will be an important factor determining the response of forests to …

Conifers are characterized by a large genome size and a rapid decay of linkage
disequilibrium, most often within gene limits. Genome scans based on noncoding markers …

Understanding the genomic basis of local adaptation is crucial to determine the potential of
long-lived woody species to withstand changes in their natural environment. In the past …

Understanding adaptive genetic responses to climate change is a main challenge for
preserving biological diversity. Successful predictive models for climate-driven range shifts …