Connectivity is classically considered an emergent property of landscapes encapsulating
individuals' flows across space. However, its operational use requires a precise …

Advancing technologies have facilitated the ever‐widening application of genetic markers
such as microsatellites into new systems and research questions in biology. In light of the …

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 effects of landscape heterogeneity on spatial genetic variation is a
primary goal of landscape genetics. Ecological and geographic variables can contribute to …

Measures of genetic structure among individuals or populations collected at different spatial
locations across a landscape are commonly used as surrogate measures of functional (ie …

Landscape genetics has seen rapid growth in number of publications since the term was
coined in 2003. An extensive literature search from 1998 to 2008 using keywords associated …

Understanding how spatial genetic patterns respond to landscape change is crucial for
advancing the emerging field of landscape genetics. We quantified the number of …

Thanks to genome‐scale diversity data, present‐day studies can provide a detailed view of
how natural and cultivated species adapt to their environment and particularly to …

Intraspecific variation is a major component of biodiversity, yet it has received relatively little
attention from governmental and nongovernmental organizations, especially with regard to …

Landscape features exist at multiple spatial and temporal scales, and these naturally affect
spatial genetic structure and our ability to make inferences about gene flow. This article …