Abstract

The parasitoid wasp genus Nasonia has rapidly become a genetic model system for developmental and evolutionary biology. The release of its genome sequence led to the development of high-resolution genomic tools, for both interspecific and intraspecific research, which has resulted in great advances in understanding Nasonia biology. To further advance the utility of Nasonia vitripennis as a genetic model system and to be able to fully exploit the advantages of its fully sequenced and annotated genome, we developed a genetically variable and well-characterized experimental population. In this study, we describe the establishment of the genetically diverse HVRx laboratory population from strains collected from the field in the Netherlands. We established a maintenance method that retains genetic variation over generations of culturing in the laboratory. As a characterization of its genetic composition, we provide data on the standing genetic variation and estimate the effective population size (Ne) by microsatellite analysis. A genome-wide description of polymorphism is provided through pooled resequencing, which yielded 417 331 high-quality SNPs spanning all five Nasonia chromosomes. The HVRx population and its characterization are freely available as a community resource for investigators seeking to elucidate the genetic basis of complex trait variation using the Nasonia model system.

Highlights

  • The parasitoid wasp genus Nasonia has rapidly become a genetic model system for developmental and evolutionary biology (Desplan & Beukeboom 2003; Werren & Loehlin 2009; Brown 2010; Godfray 2010; Muers 2010)

  • The release of its genome sequence led to the development of high-resolution genomic tools, for both interspecific

  • We describe the establishment of the genetically diverse outbred HVRx laboratory population from strains that were collected from birds nest boxes and carrion baits in the Netherlands

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Summary

Introduction

The parasitoid wasp genus Nasonia has rapidly become a genetic model system for developmental and evolutionary biology (Desplan & Beukeboom 2003; Werren & Loehlin 2009; Brown 2010; Godfray 2010; Muers 2010). The last years have seen a large number of studies that used the Nasonia genome sequence, reporting scientific breakthroughs in fundamental and applied biology (Loehlin et al 2010b; Pannebakker et al 2010, 2011; Verhulst et al 2010; Werren et al 2010; Lynch et al 2011; Koevoets et al 2012; Loehlin & Werren 2012; Brucker & Bordenstein 2013; Gibson et al 2013; Niehuis et al 2013; Paolucci et al 2013). To further advance the utility of N. vitripennis as a genetic model system and to be able to fully exploit the advantages of its fully sequenced and annotated genome, a genetically variable and well-characterized experimental population, which is available for use in research worldwide, is highly required To further advance the utility of N. vitripennis as a genetic model system and to be able to fully exploit the advantages of its fully sequenced and annotated genome, a genetically variable and well-characterized experimental population, which is available for use in research worldwide, is highly required (e.g. Burke et al 2010; Huang et al 2012; Svenson et al 2012)

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