Metaheuristic-Based Team Coordination of Heterogeneous UAVs for Wildfire Suppression

This paper presents an efficient metaheuristic approach, Hybrid PSO-based Routing and Scheduling with Time constraints (HPSO-RST), to address the coordination of heterogeneous UAV teams for wildfire suppression. Unlike static task scheduling, wildfires are dynamic and critical tasks that demand timely intervention with limited resources. The primary goal of this research is to suppress fires before they surpass the capacity of a single UAV, taking into account heterogeneous time constraints while minimizing total quench time. The HPSO-RST incorporates operators such as velocity and position updates, local search and mutation within a swarm intelligence framework to effectively explore and exploit the solution space, balancing diversity and convergence. HPSO-RST is successful in generating better particles over iterations. The Monte-Carlo analysis demonstrates that HPSO-RST achieves a [Formula: see text] higher success rate in managing multiple fires compared to existing approaches, along with reduced mean completion times and minimized destruction of wildlands. The robustness of the HPSO-RST in addressing the NP-complete problem of dynamic wildfire management ultimately enhances system efficiency in managing growing and complex fire tasks.

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Publication Details

Journal
Unmanned Systems
Published
2025-12-08
DOI
https://doi.org/10.1142/s2301385027500531
Primary Topic
UAV Applications and Optimization
Type
article
Field-Weighted Citation Impact
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article

Metaheuristic-Based Team Coordination of Heterogeneous UAVs for Wildfire Suppression

Josy John, Suresh Sundaram
Unmanned Systems
UAV Applications and Optimization
article

Metaheuristic-Based Team Coordination of Heterogeneous UAVs for Wildfire Suppression

Josy John, Suresh Sundaram
article en

Abstract

This paper presents an efficient metaheuristic approach, Hybrid PSO-based Routing and Scheduling with Time constraints (HPSO-RST), to address the coordination of heterogeneous UAV teams for wildfire suppression. Unlike static task scheduling, wildfires are dynamic and critical tasks that demand timely intervention with limited resources. The primary goal of this research is to suppress fires before they surpass the capacity of a single UAV, taking into account heterogeneous time constraints while minimizing total quench time. The HPSO-RST incorporates operators such as velocity and position updates, local search and mutation within a swarm intelligence framework to effectively explore and exploit the solution space, balancing diversity and convergence. HPSO-RST is successful in generating better particles over iterations. The Monte-Carlo analysis demonstrates that HPSO-RST achieves a [Formula: see text] higher success rate in managing multiple fires compared to existing approaches, along with reduced mean completion times and minimized destruction of wildlands. The robustness of the HPSO-RST in addressing the NP-complete problem of dynamic wildfire management ultimately enhances system efficiency in managing growing and complex fire tasks.

Unmanned Systems
University of Maryland Eastern Shore (US), Indian Institute of Science Bangalore (IN)
Openalex Percentile: Top 50%
UAV Applications and Optimization
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Metaheuristic-Based Team Coordination of Heterogeneous UAVs for Wildfire Suppression — Josy John, Suresh Sundaram · Unmanned Systems (2025) | TGRS Research Map | TGRS