3D Guidance Law for Flexible Target Enclosing with Inherent Safety

Fuente: arXiv
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Main Authors: Ranjan, Praveen Kumar, Sinha, Abhinav, Cao, Yongcan
Format: Preprint
Published: 2024
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author Ranjan, Praveen Kumar
Sinha, Abhinav
Cao, Yongcan
author_facet Ranjan, Praveen Kumar
Sinha, Abhinav
Cao, Yongcan
contents In this paper, we address the problem of enclosing an arbitrarily moving target in three dimensions by a single pursuer while ensuring the pursuer's safety by preventing collisions with the target. The proposed guidance strategy steers the pursuer to a safe region of space surrounding and excluding the target, allowing it to maintain a certain distance from the latter while offering greater flexibility in positioning and converging to any orbit within this safe zone. We leverage the concept of the Lyapunov Barrier Function as a powerful tool to constrain the distance between the pursuer and the target within asymmetric bounds, thereby ensuring the pursuer's safety within the predefined region. Further, we demonstrate the effectiveness of the proposed guidance law in managing arbitrarily maneuvering targets and other uncertainties (such as vehicle/autopilot dynamics and external disturbances) by enabling the pursuer to consistently achieve stable global enclosing behaviors by switching between stable enclosing trajectories within the safe region whenever necessary, even in response to aggressive target maneuvers. To attest to the merits of our work, we conduct experimental tests with various plant models, including a high-fidelity quadrotor model within Software-in-the-loop (SITL) simulations, encompassing various challenging target maneuver scenarios and requiring only relative information for successful execution.
format Preprint
id arxiv_https___arxiv_org_abs_2404_16312
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle 3D Guidance Law for Flexible Target Enclosing with Inherent Safety
Ranjan, Praveen Kumar
Sinha, Abhinav
Cao, Yongcan
Systems and Control
Multiagent Systems
Robotics
In this paper, we address the problem of enclosing an arbitrarily moving target in three dimensions by a single pursuer while ensuring the pursuer's safety by preventing collisions with the target. The proposed guidance strategy steers the pursuer to a safe region of space surrounding and excluding the target, allowing it to maintain a certain distance from the latter while offering greater flexibility in positioning and converging to any orbit within this safe zone. We leverage the concept of the Lyapunov Barrier Function as a powerful tool to constrain the distance between the pursuer and the target within asymmetric bounds, thereby ensuring the pursuer's safety within the predefined region. Further, we demonstrate the effectiveness of the proposed guidance law in managing arbitrarily maneuvering targets and other uncertainties (such as vehicle/autopilot dynamics and external disturbances) by enabling the pursuer to consistently achieve stable global enclosing behaviors by switching between stable enclosing trajectories within the safe region whenever necessary, even in response to aggressive target maneuvers. To attest to the merits of our work, we conduct experimental tests with various plant models, including a high-fidelity quadrotor model within Software-in-the-loop (SITL) simulations, encompassing various challenging target maneuver scenarios and requiring only relative information for successful execution.
title 3D Guidance Law for Flexible Target Enclosing with Inherent Safety
topic Systems and Control
Multiagent Systems
Robotics
url https://arxiv.org/abs/2404.16312