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DRESS: Diffusion Reasoning-based Reward Shaping Scheme For Intelligent Networks

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arxiv 2503.07433 v2 pith:M7D4AZHJ submitted 2025-03-10 cs.NI

classification cs.NI
keywords dressenvironmentsnetworkdiffusionoptimizationrewardcomplexdeep
verification ladder T0 review T1 audit T2 compute T3 formal
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Network optimization remains fundamental in wireless communications, with Artificial Intelligence (AI)-based solutions gaining widespread adoption. As Sixth-Generation (6G) communication networks pursue full-scenario coverage, optimization in complex extreme environments presents unprecedented challenges. The dynamic nature of these environments, combined with physical constraints, makes it difficult for AI solutions such as Deep Reinforcement Learning (DRL) to obtain effective reward feedback for the training process. However, many existing DRL-based network optimization studies overlook this challenge through idealized environment settings. Inspired by the powerful capabilities of Generative AI (GenAI), especially diffusion models, in capturing complex latent distributions, we introduce a novel Diffusion Reasoning-based Reward Shaping Scheme (DRESS) to achieve robust network optimization. By conditioning on observed environmental states and executed actions, DRESS leverages diffusion models' multi-step denoising process as a form of deep reasoning, progressively refining latent representations to generate meaningful auxiliary reward signals that capture patterns of network systems. Moreover, DRESS is designed for seamless integration with any DRL framework, allowing DRESS-aided DRL (DRESSed-DRL) to enable stable and efficient DRL training even under extreme network environments. Experimental results demonstrate that DRESSed-DRL achieves about 1.5x times faster convergence than its original version in sparse-reward wireless environments and significant performance improvements in multiple general DRL benchmark environments compared to baseline methods. The code of DRESS is available at https://github.com/NICE-HKU/DRESS.

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  1. Energy-Efficient RSMA-enabled Low-altitude MEC Optimization Via Generative AI-enhanced Deep Reinforcement Learning

    cs.NI 2025-07 conditional novelty 3.0 of 10

    A diffusion-enhanced SAC agent jointly optimizes UAV trajectory, offloading, and RSMA power allocation, reporting higher energy efficiency than NOMA/FDMA and DRL baselines in a simulated low-altitude MEC system.

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