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Empowering Wireless Networks with Artificial Intelligence Generated Graph
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In wireless communications, transforming network into graphs and processing them using deep learning models, such as Graph Neural Networks (GNNs), is one of the mainstream network optimization approaches. While effective, the generative AI (GAI) shows stronger capabilities in graph analysis, processing, and generation, than conventional methods such as GNN, offering a broader exploration space for graph-based network optimization. Therefore, this article proposes to use GAI-based graph generation to support wireless networks. Specifically, we first explore applications of graphs in wireless networks. Then, we introduce and analyze common GAI models from the perspective of graph generation. On this basis, we propose a framework that incorporates the conditional diffusion model and an evaluation network, which can be trained with reward functions and conditions customized by network designers and users. Once trained, the proposed framework can create graphs based on new conditions, helping to tackle problems specified by the user in wireless networks. Finally, using the link selection in integrated sensing and communication (ISAC) as an example, the effectiveness of the proposed framework is validated.
Forward citations
Cited by 3 Pith papers
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Scalable Interference Graph Learning for Low-Latency Wi-Fi Networks using Hashing-based Evolution Strategy
A neural graph model trained with evolution strategies and deep hashing assigns Wi-Fi 7 scheduled transmission slots, using about 25% fewer slots and losing up to 30% fewer packets in 1,000-device simulations.
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Generative AI Enabled Robust Sensor Placement in Cyber-Physical Power Systems: A Graph Diffusion Approach
A graph-diffusion reinforcement-learning algorithm (EFGD) is proposed to place sensors in a cyber-physical power system while jointly optimizing anomaly-detection coverage and communication-network robustness.
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Censored Sampling for Topology Design: Guiding Diffusion with Human Preferences
Guiding a pretrained topology-diffusion generator with human-preference reward classifiers is claimed to suppress floating-material and boundary-violation failure modes without retraining the generator.
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