Biodiversity conservation requires conserving evolutionary potential—the capacity for wild
populations to adapt. Understanding genetic diversity and evolutionary dynamics is critical …

Over the past decade, there has been a rapid increase in the development of predictive
models at the intersection of molecular ecology, genomics, and global change. The common …

As climate change causes the environment to shift away from the local optimum that
populations have adapted to, fitness declines are predicted to occur. Recently, methods …

Local adaptation is key for ecotypic differentiation and species evolution. Understanding
underlying genomic patterns can allow the prediction of future maladaptation and ecosystem …

Introduction Ecological genomic models are increasingly used to guide climate-conscious
restoration and conservation practices in the light of accelerating environmental change …

Understanding the genetic basis of how plants defend against pathogens is important to
monitor and maintain resilient tree populations. Swiss needle cast (SNC) and Rhabdocline …

Rapid environmental change poses unprecedented challenges to species persistence. To
understand the extent that continued change could have, genomic offset methods have …

Genomic data are increasingly being integrated into macroecological forecasting, offering
an evolutionary perspective that has been largely missing from global change …

Aim Marginal tree populations, either those located at the edges of the species' range or in
suboptimal environments, are often a valuable genetic resource for biological conservation …

Understanding the adaptive potential of populations and species is pivotal for minimizing the
loss of biodiversity in this era of rapid climate change. Adaptive potential has been estimated …