Task Allocation and Improvement of Collective Work Efficiency in Swarm Robotics Using Autonomous Decentralized Algorithms

This study proposes a decentralized, dynamic task allocation algorithm for swarm robotics to enhance efficiency in multi-foraging tasks. Inspired by the adaptive foraging behavior of social insects, the proposed method introduces a utility-based metric called "Umami," which evaluates food sources based on their quantity and distance from the nest. Each robot dynamically transitions between three roles—Searcher, Picker, and Carrier—based on local information and threshold-based switching. Simulation experiments conducted under various environment sizes and robot densities demonstrated that the proposed integrated model achieved notably higher foraging efficiency, especially in large-scale environments. These findings suggest that the proposed approach offers a scalable and adaptable solution for efficient task execution in swarm robotic systems.

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Publication Details

Journal
Transactions of the Institute of Systems Control and Information Engineers
Published
2026-10-14
DOI
https://doi.org/10.5687/iscie.39.261
Primary Topic
Modular Robots and Swarm Intelligence
Type
article
Field-Weighted Citation Impact
0.00
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article

Task Allocation and Improvement of Collective Work Efficiency in Swarm Robotics Using Autonomous Decentralized Algorithms

Tomohiro Hayakawa, Fumitoshi Matsuno, Yuki Tanigaki, Ryusuke Fujisawa et al.
Transactions of the Institute of Systems Control and Information Engineers
Modular Robots and Swarm Intelligence
article

Task Allocation and Improvement of Collective Work Efficiency in Swarm Robotics Using Autonomous Decentralized Algorithms

Tomohiro Hayakawa, Fumitoshi Matsuno, Yuki Tanigaki, Ryusuke Fujisawa, Taiki Watanabe
article en

Abstract

This study proposes a decentralized, dynamic task allocation algorithm for swarm robotics to enhance efficiency in multi-foraging tasks. Inspired by the adaptive foraging behavior of social insects, the proposed method introduces a utility-based metric called "Umami," which evaluates food sources based on their quantity and distance from the nest. Each robot dynamically transitions between three roles—Searcher, Picker, and Carrier—based on local information and threshold-based switching. Simulation experiments conducted under various environment sizes and robot densities demonstrated that the proposed integrated model achieved notably higher foraging efficiency, especially in large-scale environments. These findings suggest that the proposed approach offers a scalable and adaptable solution for efficient task execution in swarm robotic systems.

Transactions of the Institute of Systems Control and Information EngineersVol. 39(10)
Shizuoka University (JP), The University of Kitakyushu (JP), Kyushu Institute of Technology (JP), Osaka Institute of Technology (JP)
Openalex Percentile: Top 23%
Modular Robots and Swarm Intelligence
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