A curated collection of graph classification papers with implementations covering embeddings, deep learning, kernels, and factorization.
Awesome Graph Classification is a curated collection of research papers and reference implementations focused on graph classification methods. It covers approaches including graph embeddings, deep learning models, graph kernels, and matrix factorization techniques for analyzing graph-structured data. The repository serves as a comprehensive resource for understanding and applying state-of-the-art graph classification algorithms.
Machine learning researchers, data scientists, and practitioners working with graph-structured data who need to implement or benchmark graph classification methods. It's particularly valuable for those entering the field of graph machine learning or looking for reproducible implementations of academic papers.
This collection provides carefully curated papers with working implementations, saving researchers time searching for reliable code. Unlike generic paper lists, it focuses specifically on graph classification with practical implementations, making it easier to reproduce results and build upon existing research.
A collection of important graph embedding, classification and representation learning papers with implementations.
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Covers matrix factorization, spectral fingerprints, deep learning, and graph kernels across four dedicated chapters, offering a broad overview of graph classification approaches.
Each listed paper includes reference code, enabling reproducibility and hands-on experimentation, as highlighted in the repository's focus on working implementations.
Provides links to benchmark graph classification datasets, facilitating consistent evaluation and comparison of methods, as mentioned in the README's dataset section.
Follows the awesome list philosophy to include only high-quality papers with code, saving time for researchers by filtering out less reliable resources.
Implementations are from disparate sources, leading to inconsistent coding styles, varying dependencies, and complex setup processes for each method.
As a curated list, it may not be updated frequently enough to include the most recent advancements in fast-evolving areas like graph deep learning.
No integrated framework or documentation exists; users must adapt each implementation separately, increasing the effort for practical deployment.