Target Assignment for UAV Swarms: A Novel Genetic Algorithm with Hybrid Constraint-Handling Techniques

Target assignment for UAV swarms represents a pivotal and formidable endeavor, characterized by intricate combinatorial optimization and complex constraints. This study introduces an innovative and sophisticated constraint-handling method that adeptly tackles the inherent challenges of this problem. By meticulously partitioning the intricate constraints into distinct soft constraints and hard constraints, we then employ an adaptive penalty function to gracefully manage the former, while leveraging a dedicated repair heuristic to effectively address the latter. This strategy effectively surmounts the daunting hurdle of managing a substantial number of infeasible individuals that resist conventional repair techniques. Through a comprehensive series of comparative experiments, we meticulously evaluate the validity and efficacy of our proposed method, juxtaposing it against conventional penalty-based and repair-based approaches. The results unequivocally underscore the superior performance of our approach, yielding extraordinary allocation outcomes by deftly managing both soft and hard constraints. Furthermore, the versatility and applicability of our methodology transcend the confines of the target assignment problem, offering promising avenues for resolving allocation problems in diverse domains such as transportation systems, distributed computing, and construction management.

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Publication Details

Journal
Drones
Published
2025-10-17
DOI
https://doi.org/10.3390/drones9100722
Primary Topic
UAV Applications and Optimization
Type
article
Field-Weighted Citation Impact
0.00
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article

Target Assignment for UAV Swarms: A Novel Genetic Algorithm with Hybrid Constraint-Handling Techniques

Zhixiao Sun, Jianliang Ai, Biao Wang, Tingting Li
Drones
UAV Applications and Optimization
article

Target Assignment for UAV Swarms: A Novel Genetic Algorithm with Hybrid Constraint-Handling Techniques

Zhixiao Sun, Jianliang Ai, Biao Wang, Tingting Li
article en

Abstract

Target assignment for UAV swarms represents a pivotal and formidable endeavor, characterized by intricate combinatorial optimization and complex constraints. This study introduces an innovative and sophisticated constraint-handling method that adeptly tackles the inherent challenges of this problem. By meticulously partitioning the intricate constraints into distinct soft constraints and hard constraints, we then employ an adaptive penalty function to gracefully manage the former, while leveraging a dedicated repair heuristic to effectively address the latter. This strategy effectively surmounts the daunting hurdle of managing a substantial number of infeasible individuals that resist conventional repair techniques. Through a comprehensive series of comparative experiments, we meticulously evaluate the validity and efficacy of our proposed method, juxtaposing it against conventional penalty-based and repair-based approaches. The results unequivocally underscore the superior performance of our approach, yielding extraordinary allocation outcomes by deftly managing both soft and hard constraints. Furthermore, the versatility and applicability of our methodology transcend the confines of the target assignment problem, offering promising avenues for resolving allocation problems in diverse domains such as transportation systems, distributed computing, and construction management.

DronesVol. 9(10)
Shenyang Aerospace University (CN), Fudan University (CN)
Openalex Percentile: Top 61%
UAV Applications and Optimization
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