APIS II: Extension and Flight Testing of the Autonomous Persistent Intelligent Swarm Algorithm

Multi-agent Cyber-Physical-Human (CPH) systems in realistic environments operate under uncertain conditions. Task inaccuracies, both in terms of exact location and exact priority, are to be expected. Furthermore, real-world deployment can encounter communication range limitations, leading to disconnected swarm components over short and medium periods. The APIS algorithm, first presented in [1], addresses this issue through a bee-foraging heuristic approach to task completion, balancing direct task completion (harvesting), mapping (dancing), and informational interchange (dancing). We propose to implement the Autonomous Persistent Intelligent Swarm (APIS) system in a real-world heterogeneous swarm setting, evaluating its efficacy in maintaining lines of communication, reducing performance uncertainty, and maintaining swarm cohesion. We will undertake two parallel efforts: First, improving the fidelity of the APIS simulation and evaluating its mission efficacy in various system configurations. Second, creating a physical APIS-compatible system capable of completing various tasks and mapping the environment to validate the simulation results and serve as a proof-of-concept technology demonstrator.

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Publication Details

Journal
Deep Blue (University of Michigan)
Published
2025-09-09
DOI
https://doi.org/10.7302/27314
Primary Topic
Neural Networks and Applications
Type
article
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article

APIS II: Extension and Flight Testing of the Autonomous Persistent Intelligent Swarm Algorithm

J. P. Pye
Deep Blue (University of Michigan)
Neural Networks and Applications
article

APIS II: Extension and Flight Testing of the Autonomous Persistent Intelligent Swarm Algorithm

J. P. Pye
article en

Abstract

Multi-agent Cyber-Physical-Human (CPH) systems in realistic environments operate under uncertain conditions. Task inaccuracies, both in terms of exact location and exact priority, are to be expected. Furthermore, real-world deployment can encounter communication range limitations, leading to disconnected swarm components over short and medium periods. The APIS algorithm, first presented in [1], addresses this issue through a bee-foraging heuristic approach to task completion, balancing direct task completion (harvesting), mapping (dancing), and informational interchange (dancing). We propose to implement the Autonomous Persistent Intelligent Swarm (APIS) system in a real-world heterogeneous swarm setting, evaluating its efficacy in maintaining lines of communication, reducing performance uncertainty, and maintaining swarm cohesion. We will undertake two parallel efforts: First, improving the fidelity of the APIS simulation and evaluating its mission efficacy in various system configurations. Second, creating a physical APIS-compatible system capable of completing various tasks and mapping the environment to validate the simulation results and serve as a proof-of-concept technology demonstrator.

Deep Blue (University of Michigan)
Neural Networks and Applications
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APIS II: Extension and Flight Testing of the Autonomous Persistent Intelligent Swarm Algorithm — J. P. Pye · Deep Blue (University of Michigan) (2025) | TGRS Research Map | TGRS