LLM-Powered Swarms: A New Frontier or a Conceptual Stretch?
This work addresses the feasibility of applying LLM-driven swarms to real-time systems, highlighting current limitations for researchers and practitioners in AI and swarm intelligence.
The paper evaluates whether LLM-powered swarm systems, like OpenAI's Swarm, adhere to classical swarm intelligence principles such as decentralization and scalability, finding that while they can emulate swarm dynamics, they suffer from significant computational overhead, with LLM-based Boids simulations requiring about 300x more time than classical versions.
Swarm intelligence describes how simple, decentralized agents can collectively produce complex behaviors. Recently, the concept of swarming has been extended to large language model (LLM)-powered systems, such as OpenAI's Swarm (OAS) framework, where agents coordinate through natural language prompts. This paper evaluates whether such systems capture the fundamental principles of classical swarm intelligence: decentralization, simplicity, emergence, and scalability. Using OAS, we implement and compare classical and LLM-based versions of two well-established swarm algorithms: Boids and Ant Colony Optimization. Results indicate that while LLM-powered swarms can emulate swarm-like dynamics, they are constrained by substantial computational overhead. For instance, our LLM-based Boids simulation required roughly 300x more computation time than its classical counterpart, highlighting current limitations in applying LLM-driven swarms to real-time systems.