Hybrid Responsible AI-Stochastic Approach for SLA Compliance in Multivendor 6G Networks
Emanuel Figetakis, Ahmed Refaey Hussein

TL;DR
This paper introduces a hybrid responsible AI framework for 6G networks that combines stochastic optimization with accountability mechanisms to improve SLA compliance, fairness, and traceability across multiple vendors.
Contribution
It presents a novel hybrid responsible AI-stochastic learning model that embeds fairness, robustness, and accountability directly into multivendor 6G network control systems.
Findings
Improves worst group accuracy by up to 10.5%.
Achieves 99% traceability of SLA violations to responsible AI entities.
Outperforms traditional models in fairness and robustness metrics.
Abstract
The convergence of AI and 6G network automation introduces new challenges in maintaining transparency, fairness, and accountability across multivendor management systems. Although closed-loop AI orchestration improves adaptability and self-optimization, it also creates a responsibility gap, where violations of SLAs cannot be causally attributed to specific agents or vendors. This paper presents a hybrid responsible AI-stochastic learning framework that embeds fairness, robustness, and auditability directly into the network control loop. The framework integrates RAI games with stochastic optimization, enabling dynamic adversarial reweighting and probabilistic exploration across heterogeneous vendor domains. An RAAP continuously records AI-driven decision trajectories and produces dual accountability reports: user-level SLA summaries and operator-level responsibility analytics.…
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Taxonomy
TopicsSoftware-Defined Networks and 5G · IoT and Edge/Fog Computing · Blockchain Technology Applications and Security
