paper

Self-Directed Spectrum Allocation Framework for Integrated TN-NTN 6G Networks

arXiv:2607.17561 · doi:10.1109/ICUFN69619.2026.11628659

Abstract

This paper proposes a self-adaptive channel assignment framework based on Q-learning, where agents learn optimal policies by observing network load, interference conditions, and temporal traffic dynamics within a Markov decision process (MDP). A multi-objective reward function is designed to jointly optimize system throughput, user fairness, and interference mitigation, while an ε-greedy strategy is employed to facilitate effective exploration. Simulation results demonstrate stable convergence, achieving an average reward of 37.5 and an average throughput of 28.5 Mbps. Moreover, the proposed approach achieves a Jain's fairness index of 0.75 and reduces interference by 26.3% compared to random allocation by adaptively responding to dynamic traffic patterns.

We no longer stand by the results as presented and prefer to withdraw the work publicly. We apologize for any inconvenience to the community. A corrected or substantially revised version may be submitted later under a new identifier

Self-Directed Spectrum Allocation Framework for Integrated TN-NTN 6G Networks · wovepaper