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This work introduces a lightweight autoregressive framework that achieves near log-linear complexity for graph generation, overcoming the scalability and novelty limitations of existing diffusion-based or quadratic-complexity models. By leveraging structure-guided topological ordering and a two-phase training strategy, the approach effectively reduces overfitting while maintaining high validity across molecular and non-molecular benchmarks. The architecture's flexibility in supporting both LSTM and Mamba backbones, combined with large-memory accelerator support, offers a practical path forward for generating diverse graphs in resource-constrained environments.
Scaling Novel Graph Generation via Lightweight Structure-Guided Autoregressive Models
arXiv:2606.04287v1 Announce Type: new Abstract: Generating realistic and diverse graphs is a key problem in machine learning, with applications in molecular discovery, circuit design, cybersecurity, and beyond. However, current graph generative models remain limited by scalability and novelty. Diffusion-based methods often require costly full-adjacency operations and long denoising chains, while many autoregressive and hybrid models have at least quadratic complexity. In addition, these models often imitate training graphs rather than generalize beyond them. We propose a lightweight autoregressive framework to address these issues. It uses a structure-guided topological ordering to serialize graphs into regular edge sequences, enabling near log-linear generation, and a two-phase training strategy that combines exploration-oriented augmentation with iterative refinement to reduce overfitting and promote controlled novelty. Experiments on molecular and non-molecular benchmarks show that our approach improves novelty while preserving high validity and uniqueness. The framework also supports both LSTM and Mamba-style causal sequence backbones, with large-memory accelerators enabling longer graph-sequence experiments beyond typical GPU limits.
Abstract:Generating realistic and diverse graphs is a key problem in machine learning, with applications in molecular discovery, circuit design, cybersecurity, and beyond. However, current graph generative models remain limited by scalability and novelty. Diffusion-based methods often require costly full-adjacency operations and long denoising chains, while many autoregressive and hybrid models have at least quadratic complexity. In addition, these models often imitate training graphs rather than generalize beyond them. We propose a lightweight autoregressive framework to address these issues. It uses a structure-guided topological ordering to serialize graphs into regular edge sequences, enabling near log-linear generation, and a two-phase training strategy that combines exploration-oriented augmentation with iterative refinement to reduce overfitting and promote controlled novelty. Experiments on molecular and non-molecular benchmarks show that our approach improves novelty while preserving high validity and uniqueness. The framework also supports both LSTM and Mamba-style causal sequence backbones, with large-memory accelerators enabling longer graph-sequence experiments beyond typical GPU limits.
Machine Learning (cs.LG); Artificial Intelligence (cs.AI)
arXiv:2606.04287 [cs.LG]
(or arXiv:2606.04287v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2606.04287 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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