🤖 AI Summary
Traditional standardized interfaces in 6G networks suffer from vendor lock-in, rigid design, and poor adaptability. To address these fundamental limitations, this paper proposes an AI-native dynamic control interface generation method. Our approach employs a large language model (LLM)-based multi-agent framework comprising a functional matching agent and a code generation agent, enabling semantic alignment and automatic API construction across heterogeneous network functions (e.g., gNB and WLAN AP) from different vendors. Crucially, we pioneer the integration of LLM-based reasoning into a closed-loop interface generation pipeline, breaking away from static, pre-defined protocol paradigms. Evaluated in a multi-vendor simulation environment, the framework demonstrates on-demand, low-latency generation of interoperable control interfaces for heterogeneous devices. It achieves an effective trade-off among interface correctness, generation efficiency, and model inference cost—significantly enhancing 6G network interoperability, dynamic adaptability, and deployment flexibility.
📝 Abstract
Traditional standardized network interfaces face significant limitations, including vendor-specific incompatibilities, rigid design assumptions, and lack of adaptability for new functionalities. We propose a multi-agent framework leveraging large language models (LLMs) to generate control interfaces on demand between network functions (NFs). This includes a matching agent, which aligns required control functionalities with NF capabilities, and a code-generation agent, which generates the necessary API server for interface realization. We validate our approach using simulated multi-vendor gNB and WLAN AP environments. The performance evaluations highlight the trade-offs between cost and latency across LLMs for interface generation tasks. Our work sets the foundation for AI-native dynamic control interface generation, paving the way for enhanced interoperability and adaptability in future mobile networks.