A plant species' genetic population structure is the result of a complex combination of its life history, ecological preferences, position in the ecosystem, and historical factors. As a result, many different statistical methods exist that measure different aspects of species’ genetic structure. However, little is known about how these methods are interrelated and how they are related to a species’ ecology and life history. In this study, we used the IntraBioDiv AFLP-dataset from 27 high-alpine species to calculate eight genetic summary statistics that we jointly correlate to a set of six ecological and life-history traits. We found that there is a large amount of redundancy among the calculated summary statistics and that there is a signif...
Alpine ecosystems are seriously threatened by climate change. One of the key mechanisms by which pla...
In the alpine landscape, characterized by high spatiotemporal heterogeneity and barriers, divergent ...
Including population genetic aspects into the selection of planting material within the framework of...
A plant species' genetic population structure is the result of a complex combination of its life his...
A plant species’ genetic population structure is the result of a complex combination of its life his...
A plant species' genetic population structure is the result of a complex combination of its life his...
Species range shifts in response to climate and land use change are commonly forecasted with species...
Genetic responses to environmental changes take place at different spatial scales. While the effect ...
The Convention on Biological Diversity (CBD) aims at the conservation of all three levels of biodive...
The European Alpine system is an extensive mountain range, whose heterogeneous landscape together wi...
Aim: Plants occurring on high-alpine summits are generally expected to persist due to adaptations to...
Temperate mountain ranges such as the European Alps have been strongly affected by the Pleistocene g...
Recent evidence suggests that survival of arctic-alpine organisms in peripheral or interior glacial ...
Background: Due to the environmental heterogeneity along elevation gradients, alpine ecosystems are ...
Alpine ecosystems are seriously threatened by climate change. One of the key mechanisms by which pla...
In the alpine landscape, characterized by high spatiotemporal heterogeneity and barriers, divergent ...
Including population genetic aspects into the selection of planting material within the framework of...
A plant species' genetic population structure is the result of a complex combination of its life his...
A plant species’ genetic population structure is the result of a complex combination of its life his...
A plant species' genetic population structure is the result of a complex combination of its life his...
Species range shifts in response to climate and land use change are commonly forecasted with species...
Genetic responses to environmental changes take place at different spatial scales. While the effect ...
The Convention on Biological Diversity (CBD) aims at the conservation of all three levels of biodive...
The European Alpine system is an extensive mountain range, whose heterogeneous landscape together wi...
Aim: Plants occurring on high-alpine summits are generally expected to persist due to adaptations to...
Temperate mountain ranges such as the European Alps have been strongly affected by the Pleistocene g...
Recent evidence suggests that survival of arctic-alpine organisms in peripheral or interior glacial ...
Background: Due to the environmental heterogeneity along elevation gradients, alpine ecosystems are ...
Alpine ecosystems are seriously threatened by climate change. One of the key mechanisms by which pla...
In the alpine landscape, characterized by high spatiotemporal heterogeneity and barriers, divergent ...
Including population genetic aspects into the selection of planting material within the framework of...