As populations diverge, genetic differences accumulate across the genome. Spurred by
rapid developments in sequencing technology, genome-wide population surveys of natural …

Speciation is a fundamental evolutionary process, the knowledge of which is crucial for
understanding the origins of biodiversity. Genomic approaches are an increasingly …

Speciation is a fundamental process responsible for the diversity of life. Progress has been
made in detecting individual 'speciation genes' that cause reproductive isolation. In contrast …

The emerging field of speciation genomics is advancing our understanding of the evolution
of reproductive isolation from the individual gene to a whole-genome perspective. In this …

Speciation, the evolution of reproductive isolation among populations, is continuous,
complex, and involves multiple, interacting barriers. Until it is complete, the effects of this …

It is only in the past five years that studies of speciation have truly entered the molecular era.
Recent molecular analyses of a handful of genes that are involved in maintaining …

The long-standing goal of finding genes causing reproductive isolation is being achieved.
To better link the genetics with the process of speciation, we propose that 'speciation …

Understanding speciation requires determining how inherent barriers to gene flow
(reproductive isolation, RI) evolve between populations. The field of population genomics …

As is true of virtually every realm of the biological sciences, our understanding of speciation
is increasingly informed by the genomic revolution of the past decade. Investigators can ask …

Understanding the genetic basis of reproductive isolation is a central issue in the study of
speciation. Structural variants (SVs); that is, structural changes in DNA, including inversions …