🤖 AI Summary
This work systematically designs and evaluates large language model (LLM)-based multi-agent systems to enhance development efficiency, reliability, and scalability in real-world applications. By formalizing multi-agent design patterns, the study proposes a modular architecture, standardized communication protocols, and a controllable orchestration mechanism. Empirical evaluations are conducted across three practical domains: telecommunications security, cultural heritage management, and utility customer service automation. The project establishes the first architectural paradigm for LLM-driven multi-agent systems, enabling prototype delivery within two weeks and pilot deployment within one month—significantly reducing development costs and improving user accessibility. However, the study also identifies the inherent behavioral instability of LLMs as a critical barrier to robust production deployment.
📝 Abstract
This paper formalises the literature on emerging design patterns and paradigms for Large Language Model (LLM)-enabled multi-agent systems (MAS), evaluating their practical utility across various domains. We define key architectural components, including agent orchestration, communication mechanisms, and control-flow strategies, and demonstrate how these enable rapid development of modular, domain-adaptive solutions. Three real-world case studies are tested in controlled, containerised pilots in telecommunications security, national heritage asset management, and utilities customer service automation. Initial empirical results show that, for these case studies, prototypes were delivered within two weeks and pilot-ready solutions within one month, suggesting reduced development overhead compared to conventional approaches and improved user accessibility. However, findings also reinforce limitations documented in the literature, including variability in LLM behaviour that leads to challenges in transitioning from prototype to production maturity. We conclude by outlining critical research directions for improving reliability, scalability, and governance in MAS architectures and the further work needed to mature MAS design patterns to mitigate the inherent challenges.