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arXiv · 2609.08426

Toward Fully Autonomous 6G Networks: AI-driven Operational Efficiency and Optimization

Abstract

Mobile networks evolution is characterized by a substantial increase in system complexity, driven by the need to accommodate a growing number of heterogeneous services on top of the digital infrastructure. This growth in service accommodation is expected to accelerate with the adoption of the Network as a Service (NaaS) paradigm, which has emerged as a promising approach to accelerate network innovation while enabling new revenue streams for operators. Although it is fundamental to abstract network capabilities for third-party developers, it poses significant challenges in terms of efficient network operation. To address this increased complexity, future mobile networks are envisioned to be inherently Artificial Intelligence (AI)-native. In particular, the integration of AI within the Radio Access Network (RAN) becomes a key enabler for optimizing operation, energy consumption, and autonomous network control. In this context, this research explores the convergence of AI-native RAN and NaaS ecosystems to enable autonomous 6G RAN management. We propose an Agentic-based orchestration framework capable of interpreting intent-based policies. The proposed framework becomes key to integrate external NaaS requests with internal network management policies.

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David Reiss, Oriol Sallent, Miguel Catalan-Cid, Daniel Camps-Mur. 2026-09-08. Toward Fully Autonomous 6G Networks: AI-driven Operational Efficiency and Optimization. https://doi.org/10.1109/noms69089.2026.11668224

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