The genomics revolution has sparked interest in using our increased understanding of the
loci involved in phenotypic variation and adaptation to advance the conservation of …

Continuing advances in whole genome scale approaches integrated with other
'omic'technologies promise to revolutionise understanding about the relevance of genetic …

Potential for, and limits to, adaptation to environmental changes are critical for resilience and
risk mitigation. The Mediterranean basin is a mosaic of biodiversity‐rich ecosystems long …

The delineation of conservation units (CUs) is a challenging issue that has profound
implications for minimizing the loss of biodiversity and ecosystem services. CU delineation …

Despite its recognised importance for species' persistence, integrating genetics into
conservation management has proved problematic, creating a “conservation genetics gap” …

Conservation biology needs a bigger toolbox to meet unprecedented challenges. Genomics,
fueled by declining sequencing costs, offers novel tools with increased precision for genetic …

The genomic era has led to an unprecedented increase in the availability of genome‐wide
data for a broad range of taxa. Wildlife management strives to make use of these vast …

New computational methods and next‐generation sequencing (NGS) approaches have
enabled the use of thousands or hundreds of thousands of genetic markers to address …

Understanding how natural selection generates and maintains adaptive genetic diversity in
heterogeneous environments is key to predicting the evolutionary response of populations …

DNA sequence data from genetic (traditional) and genomic (high-throughput) instruments
have been highlighted as important information for biodiversity conservation. Despite a high …