Abstract
Animals with complex life cycles respond to early food limitation by altering the way resources are allocated in the adult stage. Response to food limitation should differ between males and females, especially in organisms whose mating systems include nutritional nuptial gifts. In these organisms, males are predicted to keep their allocation to reproduction (sperm and nuptial gift production) constant, while females are predicted to sacrifice allocation to reproduction (egg production) since they can compensate by acquiring nuptial gifts when mating. In this study, we investigated how dietary nitrogen limitation during the larval stage affects sex-specific resource allocation in Pieris rapae butterflies. Also, we tested whether nutrient-limited females increased nuptial gift acquisition as a way to compensate for low allocation to reproduction. We found that as predicted females, but not males, sacrifice allocation to reproduction when larval dietary nitrogen is limited. However, females were unable to compensate for this low reproductive allocation by increasing their mating rate to acquire additional gifts. Females reared on low nitrogen diets also reduced wing coloration, a potential signal of female fecundity status. We suggest that female mating frequency is constrained by male mate choice based on females’ wing coloration. This study provides new insights into how larval dietary nitrogen, a key nutritional resource for all herbivores, alters male and female allocation to reproduction as well as to ornamentation.
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Acknowledgments
We thank Nathan Morehouse and Francie Chew for many helpful discussions throughout this Project, and to Wilson Andres Acuna and Diana Lu for help with data collection. This research was supported by an NSF REU award, and Sigma Xi and Tufts Graduate School Research awards to N.T.
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Tigreros, N., Sass, E.M. & Lewis, S.M. Sex-specific response to nutrient limitation and its effects on female mating success in a gift-giving butterfly. Evol Ecol 27, 1145–1158 (2013). https://doi.org/10.1007/s10682-013-9647-x
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DOI: https://doi.org/10.1007/s10682-013-9647-x