Swarm robotics involves coordinating multiple robots to accomplish complex tasks without a central controller. Programming such swarms for high-level missions is challenging, often requiring case-specific, expert-written logic that is time-consuming and limited in scope. Large Language Models (LLMs) have shown strong reasoning capabilities, and their application to multi-agent coordination remains a promising but underexplored direction. In scenarios such as disaster response or search and rescue, planning is critical, requiring integration of diverse assets and constraints. This work leverages LLMs to enable a single operator to coordinate swarms through natural language. Given a scenario description and asset attributes, the LLM generates a high-level, time-stepped mission plan. Falcon3-10B-Instruct was chosen as the smallest candidate and in-house solution of the Technology Innovation Institute, though it initially exhibited the weakest performance. To address this, a synthetic dataset was created by augmenting hand crafted samples and used for fine-tuning. The resulting model achieved significant improvements, consistently outperforming not only its base version but also the other candidates in inference.
Swarm robotics involves coordinating multiple robots to accomplish complex tasks without a central controller. Programming such swarms for high-level missions is challenging, often requiring case-specific, expert-written logic that is time-consuming and limited in scope. Large Language Models (LLMs) have shown strong reasoning capabilities, and their application to multi-agent coordination remains a promising but underexplored direction. In scenarios such as disaster response or search and rescue, planning is critical, requiring integration of diverse assets and constraints. This work leverages LLMs to enable a single operator to coordinate swarms through natural language. Given a scenario description and asset attributes, the LLM generates a high-level, time-stepped mission plan. Falcon3-10B-Instruct was chosen as the smallest candidate and in-house solution of the Technology Innovation Institute, though it initially exhibited the weakest performance. To address this, a synthetic dataset was created by augmenting hand crafted samples and used for fine-tuning. The resulting model achieved significant improvements, consistently outperforming not only its base version but also the other candidates in inference.
From Queries to Plans: Strategic Swarm Coordination using LLMs
MANZELLI, MARIANNA
2025/2026
Abstract
Swarm robotics involves coordinating multiple robots to accomplish complex tasks without a central controller. Programming such swarms for high-level missions is challenging, often requiring case-specific, expert-written logic that is time-consuming and limited in scope. Large Language Models (LLMs) have shown strong reasoning capabilities, and their application to multi-agent coordination remains a promising but underexplored direction. In scenarios such as disaster response or search and rescue, planning is critical, requiring integration of diverse assets and constraints. This work leverages LLMs to enable a single operator to coordinate swarms through natural language. Given a scenario description and asset attributes, the LLM generates a high-level, time-stepped mission plan. Falcon3-10B-Instruct was chosen as the smallest candidate and in-house solution of the Technology Innovation Institute, though it initially exhibited the weakest performance. To address this, a synthetic dataset was created by augmenting hand crafted samples and used for fine-tuning. The resulting model achieved significant improvements, consistently outperforming not only its base version but also the other candidates in inference.| File | Dimensione | Formato | |
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Manzelli.Marianna.pdf
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https://hdl.handle.net/20.500.14251/6848