Searcharxiv⌕ Search

arXiv · 2610.24688

Multi-Agentic AI for Intent-Driven and Conflict-Aware rApp Policy Orchestration in Open RAN

Abstract

Open radio access network (O-RAN) enables a multi-vendor ecosystem that accelerates xApp development for near-real-time (RT) network management. However, this openness shifts a combinatorial coordination burden to the Non-RT layer, where rApp policies compose xApps from a growing catalog to realize operator intents. Coexisting intents further compound this challenge, as conflicts may arise among xApp actions, rApp policies, and their cross-layer interactions. To maximize intent admission while maintaining key performance indicator (KPI) compliance across incoming and incumbent intents, we propose a large language model-based Multi-Agentic AI framework. A Reasoning Agent screens candidate xApps against KPI contracts and produces a joint intent admission and xApp assignment decision. On post-deployment KPI violations, a Diagnosis Agent identifies the root causes of failure, labels the conflict mechanism, and guides the Reasoning Agent in subsequent attempts. Experimental results show that the framework based on GPT-OSS 120B achieves 28.6% more KPI-compliant cases and admits over 15* as many incoming intents as state-of-the-art baselines. Under the Qwen 72B variant, Diagnosis increases compliant cases by 50.0%, quadruples admitted intents, and reduces deployment attempts by 32.6%. A live deployment conforming to O-RAN specifications further validates the feasibility of the proposed solution for conflict-aware rApp policy orchestration in real networks.

Explore related subjects

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

Haiyuan Li, Yulei Wu, Luyu Qi, Dimitra Simeonidou. 2026-10-17. Multi-Agentic AI for Intent-Driven and Conflict-Aware rApp Policy Orchestration in Open RAN. https://arxiv.org/abs/2610.24688

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related papers

From Inference to Control: Structure-Guided Control of Hypergraph Dynamics

Controllability determines whether a system's state can be guided toward any desired configuration, making it a fundamental prerequisite for designing effective control strategies. In the context of networked systems, controllability is a well-established concept. However, many real-world systems, from biological collectives to engineered infrastructures, exhibit higher-order interactions that cannot be captured by simple graphs. Moreover, the interaction structures might be unknown and difficult to measure directly. Here, we close this gap by combining hypergraph inference with the identification of controllable nodes. Building on the inferred structure, we design a controller that, given a set of controllable nodes, steers the system toward a desired configuration. We formulate analytical controllability guarantees for polynomial systems. For non-polynomial dynamics on hypergraphs, we propose a heuristic method for identifying controllable nodes and validate the proposed approach using Kuramoto oscillators.

eess.SY↗

Physical AI: A Survey of Models, Learning, Systems, and Open Challenges

Physical AI aims to enable intelligent systems to perceive, reason, act, and learn through interaction with the physical world. Unlike purely digital intelligence, physical agents must operate under partial observability, uncertain dynamics, embodiment constraints, and real-time requirements, while their actions continuously reshape the environment and subsequent observations. Recent advances in foundation models and robot learning have expanded the capabilities of physical agents, yet achieving reliable autonomy requires more than improvements in individual models. This survey presents a comprehensive, system-level review of Physical AI, organized around the closed-loop process of physical interaction. We examine the foundations and recent developments in task representations and memory, predictive and action-generating models, data and learning methods, embodiment and control, computing systems, evaluation, and safety. Beyond reviewing individual advances, we investigate how these components interact and collectively shape the capabilities and limitations of Physical AI systems. Building on this integrated perspective, we identify fundamental challenges in generalization, resource-efficient learning and execution, reliable state tracking, safety, recovery, and continual adaptation. We argue that advancing Physical AI requires moving beyond isolated model performance toward integrated systems capable of robust, efficient, safe, and autonomous physical interaction under changing real-world conditions.

eess.SY↗

New Results for Networked Control of Nonlinear Plants Subject to Transmission Delays

This paper studies networked control for nonlinear plants subject to several network-induced constraints, with a particular focus on transmission delays. In the context of general nonlinear networked control systems, a standard approach for guaranteeing stability is to construct a storage function, coupled with a single timer variable, to analyze the maximum allowable transmission interval (MATI) and maximum allowable transmission delay (MAD). In this paper, we propose a new approach that assigns each signal that is either \textit{in transit or most recently updated}, to an individual timer variable. This enables the individual characterization and compensation for the dynamics of each potential updating error. Subsequently, based on a novel construction of timer-coupled storage functions, the dynamics of these timer variables is designed and investigated, leading to less conservative conditions on the MATI and MAD than those by the standard approach while still ensuring closed-loop input-to-state stability with respect to external disturbances. Finally, simulation results are given to illustrate the advantages of these new results.

eess.SY↗