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Recent advances in genetic and genomic techniques have led to explosive advances in the fields of biology and ecology. Perhaps nowhere is the stark difference between what was possible in genetics research 10 years ago compared to what can be done today as obvious as in field-based studies of animals. Whereas biologists of the past were severely limited by the costs of most genetic analyses, the biologists of today must cope with the timeand information-processing constraints associated with analyzing huge quantities of data—a privileged problem to be sure. This shift has been brought about most directly by the widespread use of massively parallel (or next-generation) sequencing, which has drastically reduced not only the costs of genotyping (a trend that continues), but also the quantity and quality of requisite DNA, as well as the amount of time required to complete genetics projects (Bradley and Lawler 2011; Perry 2014; Tung et al. 2010). These advances, in addition to the now commonplace presence of shared genomics infrastructure in research institutes and universities, have removed most of the major limitations to the use of genetic information by animal biologists. Scholars that study nonhuman primates are particularly well poised to take advantage and benefit from this new wave of genetics. Interests in primates from the biomedical community, which stem from our shared taxonomic membership (McClure 1984; Rogers and Hixson 1997; Watson and Platt 2012), have resulted in the fullgenome sequencing of a relatively large number of primate species. The full-genome sequence has been published or is underway for at least 23 primate species (Bradley Int J Primatol (2014) 35:1–10 DOI 10.1007/s10764-013-9732-6

The Genetic Basis of Primate Behavior: Genetics and Genomics in Field-Based Primatology