Landscape genomics identifies how spatial and environmental factors structure the amount
and distribution of genetic variation among populations. Landscape genomic analyses have …

In an epoch of rapid environmental change, understanding and predicting how biodiversity
will respond to a changing climate is an urgent challenge. Since we seldom have sufficient …

The unprecedented rate of extinction calls for efficient use of genetics to help conserve
biodiversity. Several recent genomic and simulation-based studies have argued that the …

Understanding the factors that cause endangered populations to either grow or decline is
crucial for preserving biodiversity. Conservation efforts often address extrinsic threats, such …

The current rate of species extinction is rapidly approaching unprecedented highs, and life
on Earth presently faces a sixth mass extinction event driven by anthropogenic activity …

Extinction‐risk assessments play a major role in prioritizing conservation action at national
and international levels. However, quantifying extinction risk is challenging, especially when …

Linking genetic diversity to extinction is a common goal in genomic studies. Recently, a
debate has arisen regarding the importance of genetic variation in conservation as some …

The increasing feasibility of assembling large genomic datasets for non-model species
presents both opportunities and challenges for applied conservation and management. A …

Wild populations must continuously respond to environmental changes or they risk
extinction. Those responses can be measured as phenotypic rates of change, which can …

Genomic reaction norms represent the range of gene expression phenotypes (usually
mRNA transcript levels) expressed by a genotype along an environmental gradient …