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Pheromone-Sensing Neurons Expressing the Ion Channel Subunit Stimulate Male Courtship and Female Receptivity


Drosophila mating behaviors serve as an attractive model to understand how external sensory cues are detected and used to generate appropriate behavioral responses. Pheromones present on the cuticle of Drosophila have important roles in stimulating male courtship toward females and inhibiting male courtship directed at other males. Recently, stimulatory pheromones emitted by females and inhibitory pheromones emitted by males have been shown to stimulate distinct subsets of gustatory neurons on the legs. We have previously shown that a DEG/ENaC ion channel subunit, ppk25, is involved in male courtship toward females but not in inhibition of male-male courtship. Here we show that ppk25 is specifically expressed and functions in a subset of gustatory neurons that mediate physiological and behavioral responses to female-specific stimulatory pheromones. Furthermore, ppk25 is also required for the function of those neurons to activate male courtship in response to other pheromones that are not female-specific. In addition to their roles in males, we find that ppk25, and the related DEG/ENaC subunits ppk23 and ppk29, also stimulate female mating behavior. In conclusion, these results show that, in both sexes, ppk25 functions in a group of neurons with a specialized role in stimulating mating behaviors.


Vyšlo v časopise: Pheromone-Sensing Neurons Expressing the Ion Channel Subunit Stimulate Male Courtship and Female Receptivity. PLoS Genet 10(3): e32767. doi:10.1371/journal.pgen.1004238
Kategorie: Research Article
prolekare.web.journal.doi_sk: https://doi.org/10.1371/journal.pgen.1004238

Souhrn

Drosophila mating behaviors serve as an attractive model to understand how external sensory cues are detected and used to generate appropriate behavioral responses. Pheromones present on the cuticle of Drosophila have important roles in stimulating male courtship toward females and inhibiting male courtship directed at other males. Recently, stimulatory pheromones emitted by females and inhibitory pheromones emitted by males have been shown to stimulate distinct subsets of gustatory neurons on the legs. We have previously shown that a DEG/ENaC ion channel subunit, ppk25, is involved in male courtship toward females but not in inhibition of male-male courtship. Here we show that ppk25 is specifically expressed and functions in a subset of gustatory neurons that mediate physiological and behavioral responses to female-specific stimulatory pheromones. Furthermore, ppk25 is also required for the function of those neurons to activate male courtship in response to other pheromones that are not female-specific. In addition to their roles in males, we find that ppk25, and the related DEG/ENaC subunits ppk23 and ppk29, also stimulate female mating behavior. In conclusion, these results show that, in both sexes, ppk25 functions in a group of neurons with a specialized role in stimulating mating behaviors.


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