AutoHMA-LLM: Efficient Task Coordination and Execution in Heterogeneous Multi-Agent Systems Using Hybrid Large Language Models
AutoHMA-LLM: Эффективная координация и выполнение задач в гетерогенных мультиагентных системах с использованием гибридных больших языковых моделей
2025-01-13
SCID: 54.1/w6wgkbwt
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heterogeneous multi-agent systemslarge language modelsmulti-tier architecturereal-time feedbacktask coordination and scheduling
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Abstract (AI)
Heterogeneous multi-agent systems (HMAS) comprise various intelligent agents with specialized functions, such as drones, ground robots, and automated devices, working in coordinated settings. This paper presents AutoHMA-LLM, a novel framework that combines Large Language Models (LLMs) with classical control algorithms to address the challenges of task coordination and scheduling in complex, dynamic environments. The framework is designed with a multi-tier architecture, utilizing a cloud-based LLM as the central planner alongside device-specific LLMs and Generative Agents to improve task execution efficiency and accuracy. Specifically targeting dynamic scenarios, the system enhances resource utilization and stabilizes task execution through refined task scheduling and real-time feedback mechanisms. In experiments conducted across logistics, inspection, and search & rescue scenarios, AutoHMA-LLM demonstrated a 5.7% improvement in task completion accuracy, a 46% reduction in communication steps, and a 31% decrease in token usage and API calls compared to baseline methods. These results highlight our framework’s scalability and efficiency, offering substantial support for effective multi-agent collaboration in complex, resource-constrained environments.
Key Findings
1
Across logistics, inspection, and search-and-rescue scenarios, AutoHMA-LLM improved task completion accuracy by 5.7% versus baseline methods.
2
AutoHMA-LLM combines cloud-based and device-specific LLMs, Generative Agents, and classical control algorithms in a multi-tier HMAS architecture.
3
Compared with baselines, the framework reduced communication steps by 46% and token usage and API calls by 31%.
4
The framework uses refined task scheduling and real-time feedback to improve resource utilization and stabilize execution in dynamic environments.
5
The results indicate improved scalability and efficient collaboration among heterogeneous agents in complex, resource-constrained settings.
Research Object
heterogeneous multi-agent systems comprising drones, ground robots, and automated devices in dynamic, resource-constrained environments
Research Subject
task coordination, scheduling, and execution efficiency, including resource utilization, communication, task completion accuracy, and real-time stabilization
Publication Details
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2025-01-13
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