Genetic diversity influences the evolutionary potential of forest trees under changing
environmental conditions, thus indirectly the ecosystem services that forests provide …

The evolutionary potential of long‐lived species, such as forest trees, is fundamental for their
local persistence under climate change (CC). Genome–environment association (GEA) …

The conservation and sustainable use of forests and forest genetic resources (FGR) is a
challenging task for scientists and foresters. Forest management practices can affect …

High genetic variation and extensive gene flow may help forest trees with adapting to
ongoing climate change, yet the genetic bases underlying their adaptive potential remain …

Forest trees facing climate change may persist in a short term through acclimation within the
limits of their phenotypic plasticity. In the longer term, however, evolutionary adaptation …

Predicting species‐level effects of climatic changes requires unraveling the factors affecting
the spatial genetic composition. However, disentangling the relative contribution of historical …

The availability of high-resolution, cost-effective polymorphic genetic markers displaying
Mendelian inheritance is a prerequisite for fine-scale population genetic analyses as well as …

Fagus sylvatica L., one of the most common Central European deciduous tree species, is
one of the species globally suffering from changing and stressful environmental conditions. It …

We aim to understand the role of past and ongoing anthropogenic impacts on genetic
variation patterns at different spatial scales for the dominant tree species European beech …

In species with long‐distance dispersal capacities and inhabiting a large ecological niche,
local selection and gene flow are expected to be major evolutionary forces affecting the …