Insect Prison Game May 2026

[Generated for Academic Purposes] Journal: Journal of Theoretical Biology & Game Ecology (Hypothetical)

3.1 Slave-Making Ants (Formica sanguinea) Empirical data show that F. sanguinea rarely kills defending F. fusca workers. Instead, they employ a "Contain" strategy: they raid pupae, bring them back, and the eclosing adults function as prison laborers. In IPG terms, Escalate (killing all defenders) yields short-term gain but loss of future labor. Contain yields long-term net benefit (V - M) > (V - C_c) when M is low. insect prison game

The Insect Prison Game expands traditional dyadic game theory by formalizing containment as a distinct, often optimal, strategy. Future empirical work should test the model’s predictions in ant raiding behavior and wasp-host interactions. Understanding the insect prison may also shed light on the evolutionary origins of animal and human carceral systems—where the living opponent is more valuable contained than dead. Instead, they employ a "Contain" strategy: they raid

Classical game theory in biology has long relied on the Prisoner’s Dilemma to explain the evolution of cooperation (Axelrod & Hamilton, 1981). However, many insect interactions do not fit the binary choice of cooperate/defect. In particular, slave-making ants ( Polyergus spp.) and parasitoid wasps ( Ampulex compressa ) exhibit a third outcome: the permanent containment of a live opponent as a functional prisoner. We term this the . The Insect Prison Game expands traditional dyadic game

| R \ D | Escalate | Submit | Contain | |-------|----------|--------|---------| | | (E_c, E_c) | (V, 0) | (V - C_c, -P) | | Submit | (0, V) | (V/2, V/2) | (0, V) | | Contain | (-P, V - C_c) | (V, 0) | (V/2 - M, V/2 - M) |