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The historical origins of the game theoretic predator-prey pursuit problemcan be traced back to Benda, et al., 1985 [1]. Their work adapted thepredator-prey ecology problem into a pursuit environment which focused on thedynamics of cooperative behavior between predator agents. Modifications to thepredator-prey ecology problem [2] have been implemented to understand howvariations to predator [3] and prey [3-5] attributes, including communication[6], can modify dynamic interactions between entities that emerge within thatenvironment [7-9]. Furthermore, the predator-prey pursuit environment hasbecome a testbed for simulation experiments with computational multiagentsystems [10-12]. This article extends the theoretical contributions of previouswork by providing 1) additional variations to predator and prey attributes forsimulated multiagent systems in the pursuit problem, and 2) military-relevantpredator-prey environments simulating highly dynamic, tactical edge scenariosthat Soldiers might encounter on future battlefields. Through this explorationof simulated tactical edge scenarios with computational multiagent systems,Soldiers will have a greater chance to achieve overmatch on the battlefields oftomorrow.

Adapting the Predator-Prey Game Theoretic Environment to Army Tactical Edge Scenarios with Computational Multiagent Systems