Genetic time‐series data from historical samples greatly facilitate inference of past
population dynamics and species evolution. Yet, although climate and landscape change …

Landscape genetics seeks to determine the effect of landscape features on gene flow and
genetic structure. Often, such analyses are intended to inform conservation and …

Understanding the evolutionary consequences of anthropogenic change is imperative for
estimating long‐term species resilience. While contemporary genomic data can provide us …

Monitoring the evolutionary responses of species to ongoing global climate change is critical
for informing conservation. Population genomic studies that use samples from multiple time …

Climate change is a threat to biodiversity. One way that this threat manifests is through
pronounced shifts in the geographical range of species over time. To predict these shifts …

Persistence of natural populations during periods of climate change is likely to depend on
migration (range shifts) or adaptation. These responses were traditionally considered …

Evolutionary changes are determined by a complex assortment of ecological, demographic,
and adaptive histories. Predicting how evolution will shape the genetic structures of …

Ecological changes in the phenology and distribution of plants and animals are occurring in
all well-studied marine, freshwater, and terrestrial groups. These observed changes are …

Local adaptation is a central feature of most species occupying spatially heterogeneous
environments, and may factor critically in responses to environmental change. However …

Landscape genomics is a rapidly advancing research field that combines population
genomics, landscape ecology, and spatial analytical techniques to explicitly quantify the …