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Bibliographic Details
Main Authors: Surma, Filip, Jamshidnejad, Anahita
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2503.21065
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author Surma, Filip
Jamshidnejad, Anahita
author_facet Surma, Filip
Jamshidnejad, Anahita
contents This paper introduces a novel concept, fuzzy-logic-based model predictive control (FLMPC), along with a multi-robot control approach for exploring unknown environments and locating targets. Traditional model predictive control (MPC) methods rely on Bayesian theory to represent environmental knowledge and optimize a stochastic cost function, often leading to high computational costs and lack of effectiveness in locating all the targets. Our approach instead leverages FLMPC and extends it to a bi-level parent-child architecture for enhanced coordination and extended decision making horizon. Extracting high-level information from probability distributions and local observations, FLMPC simplifies the optimization problem and significantly extends its operational horizon compared to other MPC methods. We conducted extensive simulations in unknown 2-dimensional environments with randomly placed obstacles and humans. We compared the performance and computation time of FLMPC against MPC with a stochastic cost function, then evaluated the impact of integrating the high-level parent FLMPC layer. The results indicate that our approaches significantly improve both performance and computation time, enhancing coordination of robots and reducing the impact of uncertainty in large-scale search and rescue environments.
format Preprint
id arxiv_https___arxiv_org_abs_2503_21065
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Fuzzy-Logic-based model predictive control: A paradigm integrating optimal and common-sense decision making
Surma, Filip
Jamshidnejad, Anahita
Robotics
Optimization and Control
93B45, 93C42
This paper introduces a novel concept, fuzzy-logic-based model predictive control (FLMPC), along with a multi-robot control approach for exploring unknown environments and locating targets. Traditional model predictive control (MPC) methods rely on Bayesian theory to represent environmental knowledge and optimize a stochastic cost function, often leading to high computational costs and lack of effectiveness in locating all the targets. Our approach instead leverages FLMPC and extends it to a bi-level parent-child architecture for enhanced coordination and extended decision making horizon. Extracting high-level information from probability distributions and local observations, FLMPC simplifies the optimization problem and significantly extends its operational horizon compared to other MPC methods. We conducted extensive simulations in unknown 2-dimensional environments with randomly placed obstacles and humans. We compared the performance and computation time of FLMPC against MPC with a stochastic cost function, then evaluated the impact of integrating the high-level parent FLMPC layer. The results indicate that our approaches significantly improve both performance and computation time, enhancing coordination of robots and reducing the impact of uncertainty in large-scale search and rescue environments.
title Fuzzy-Logic-based model predictive control: A paradigm integrating optimal and common-sense decision making
topic Robotics
Optimization and Control
93B45, 93C42
url https://arxiv.org/abs/2503.21065