ArticleScientific reports2026
Transformer-assisted hierarchical deep reinforcement learning for energy and spectrum efficient MIMO-MC-CDMA in 6G networks.
Article in Scientific reports, 2026. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Not yet cited in PubMed.
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Abstract
TH-DRL is proposed for optimizing spectral and energy efficiency in 6G MIMO-MC-CDMA systems. Unlike existing flat DRL or optimization-based approaches, the proposed TH-DRL framework uniquely integrates a lightweight Transformer encoder with a hierarchical decision-making architecture to jointly optimize subcarrier allocation, power control, and SIC ordering. Architecturally, the structure integrates a Transformer encoder with a two-tier hierarchical DRL model to enhance adaptability in dynamic wireless conditions. The Transformer learns spatiotemporal dependencies from channel state information, interference patterns, and user dynamics to generate context-aware features that is used for making effective decisions. A high-level policy-gradient agent handles subcarrier allocation and user clustering, while a low-level DQN agent manages power control and successive interference cancellation order, jointly improving throughput and energy efficiency. Convergence, scalability, and detection performance are evaluated based on Rayleigh channels at 28/100 GHz with bandwidths of 400 MHz-1 GHz serving a varying number of users (10-100) served by a base station equipped with 64-256 antennas. Training consists of a replay buffer of samples within a range of 10
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