Data from: Sequential divergence and the multiplicative origin of community diversity
Data files
Sep 22, 2016 version files 1.04 MB
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Table 1. Collecting Sites.xlt
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Table 10. Genotypes x Eclosion Timing for U. canaliculatus.xlt
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Table 11. Genotypes x Eclosion Timing for D. mellea.xlt
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Table 2. Microsatellite Loci Details.xlt
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Table 3. Microsatellite allele frequencies for Utetes canaliculatus.xlt
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Table 4. Microsatellite Allele Frequencies for Diachasmimorpha mellea.xlt
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Table 5. Results From Host Fruit Odor Discrimination of D. mellea and U. canaliculatus.xlt
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Table 6. Results From Cross-reared D. alloeum Host Odor Discrimination.xlt
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Table 7. The Site of Mating Assembly For U. canaliculatus and D. mellea..xlt
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Table 8. Eclosion timing for flies and wasps.xlt
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Table 9. Longevity Estimates for U. canaliculatus and D. mellea.xlt
Abstract
Understanding how new life forms originate is a central question in biology. Population divergence is usually studied with respect to how single lineages diverge into daughter taxa. However, populations may not always differentiate in isolation; divergence of one taxon could create new niche opportunities in higher trophic levels, leading to the sequential origin of many new taxa. Here, we show that this may be occurring for three species of parasitoid wasps attacking Rhagoletis fruit flies. As flies shift and adapt to new host plants, wasps follow suit and diverge in kind, resulting in a multiplicative increase of diversity as the effects of ecologically based divergent selection cascade through the ecosystem. Biodiversity therefore may potentially beget increasing levels of biodiversity.