Limited survival strategy in starving subterranean termite colonies

  • T. ChouvencEmail author
Research Article


Termites feed on a carbon-rich but nitrogen-poor diet and evolved efficient nitrogen conservation strategies. It was previously suggested that during time of low access to resources (i.e., starvation), subterranean termites (Rhinotermitidae) colonies would adopt an energy conservation strategy by cannibalizing soldiers, a dependent caste. However, such hypothesis was tested with relatively small groups of foragers, which may not have reflected how resources are reallocated in whole colonies when food (carbon) is scarce. The current study subjected 2-year-old colonies (≈ 3000 termites with all castes and instars) to starvation, in order to reexamine if cannibalism is part of an active energy conservation strategy. Within 12 days of starvation, eggs and larvae were all cannibalized, followed by young workers. Soldiers then died marginally faster than old workers. By 22 days, cannibalism was no longer observed, and the king and queen were among the last individuals to die. Termites that engaged in the process of ecdysis with no energetic resources, failed to molt, died in the process, and the subsequent cannibalism was a passive mortality-driven process. Therefore, cannibalism was primarily the result of the inherent termite behavior for recycling nitrogen resources. The hemimetabolous developmental pathway, the difference of timing in the molting cycle of termite instars and the relatively rapid exhaustion of soldiers, indirectly determined the sequence of starvation-induced mortality and subsequent cannibalism. Although termites have evolved efficient nitrogen conservation strategies, they have not evolved an efficient carbon conservation strategy, which is essentially limited to keeping the primary reproductives alive as long as possible.


Larval instar Resource limitation Starvation Coptotermes Colony level 



Thanks to Zachary Kaplan, Ronald Pepin, Reynaldo Moscat and Alvin Puzio for technical assistance, Aaron Mullins, Nan-Yao Su and two anonymous reviewers for providing constructive comments on early versions of this manuscript. This study was supported in part by a grant from USDA-ARS under the Grant agreement no. 58-6435-8-276, by NSF-DEB Grant agreement no. 1754083, and by a research opportunity fund of the University of Florida under the Grant agreement no. 00094648.


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© International Union for the Study of Social Insects (IUSSI) 2019

Authors and Affiliations

  1. 1.Entomology and Nematology Department, Fort Lauderdale Research and Education CenterUniversity of Florida, Institute of Food and Agricultural SciencesFort LauderdaleUSA

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