Journal
JOURNAL OF NEUROGENETICS
Volume 35, Issue 3, Pages 249-261Publisher
TAYLOR & FRANCIS LTD
DOI: 10.1080/01677063.2021.1936517
Keywords
Social networks; social network analysis; Drosophila melanogaster; genetics; foraging gene; for gene; social behavior; social interaction; social structure
Categories
Funding
- NSERC
- CIFAR catalyst grant
- CRC program
- CIHR
- David F. Mettrick Fellowship
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Recent research on Drosophila melanogaster has shown that the foraging gene for plays a significant role in affecting social network properties and behavioral elements in fruit flies. Manipulating gene dosage in rover and sitter strains revealed differences in interaction duration, frequency, and reciprocity, as well as variations in assortativity and global efficiency of their social networks. These findings suggest that foraging gene for contributes to the formation and characteristics of social networks in fruit flies.
Drosophila melanogaster displays social behaviors including courtship, mating, aggression, and group foraging. Recent studies employed social network analyses (SNAs) to show that D. melanogaster strains differ in their group behavior, suggesting that genes influence social network phenotypes. Aside from genes associated with sensory function, few studies address the genetic underpinnings of these networks. The foraging gene (for) is a well-established example of a pleiotropic gene that regulates multiple behavioral phenotypes and their plasticity. In D. melanogaster, there are two naturally occurring alleles of for called rover and sitter that differ in their larval and adult food-search behavior as well as other behavioral phenotypes. Here, we hypothesize that for affects behavioral elements required to form social networks and the social networks themselves. These effects are evident when we manipulate gene dosage. We found that flies of the rover and sitter strains exhibit differences in duration, frequency, and reciprocity of pairwise interactions, and they form social networks with differences in assortativity and global efficiency. Consistent with other adult phenotypes influenced by for, rover-sitter heterozygotes show intermediate patterns of dominance in many of these characteristics. Multiple generations of backcrossing a rover allele into a sitter strain showed that many but not all of these rover-sitter differences may be attributed to allelic variation at for. Our findings reveal the significant role that for plays in affecting social network properties and their behavioral elements in Drosophila melanogaster.
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