This analysis employs computational fluid dynamics and neural networks in mission planning, highlighting privacy in agent interactions.
The paper considers the problem of the safe operation of multiple agents with different capabilities and access authorities to effectively and safely accomplish a complex mission. This problem is decomposed into two main sub-problems. The first sub-problem is to obtain the desired configuration of the agent team so that the best coverage of a distributed target is achieved while distinct inaccessible regions are avoided. To achieve this, we first apply the principles of computational fluid dynamics to establish a nonsingular mapping between the motion space and a planning space that excludes all inaccessible regions. We then develop a novel deep neural network forward learning (DNNFL) to abstractly represent the target by a finite number of points specifying the desired configuration of the agent team. The second sub-problem is the mission planning that is defined as the event-triggered Markov Decision Process (ET-MDP) with constrained actions and components that are updated by a deterministic finite automaton.
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Hossein Rastgoftar (2025) studied this question.
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