aiqbench analysis
TopoFormer advances graph representation learning by merging topological data analysis directly into Transformer attention mechanisms, offering a parallelizable alternative to costly persistent homology pipelines. This approach enables efficient processing of multi-scale structural patterns in graphs while maintaining theoretical stability guarantees and competitive performance on molecular prediction benchmarks. The work represents a significant methodological shift for researchers seeking scalable architectures that unify geometric priors with standard deep learning frameworks.
TopoFormer: Topology Meets Attention for Graph Learning
arXiv:2607.28259v1 Announce Type: new Abstract: We introduce Topoformer, a lightweight and scalable framework for graph representation learning that encodes topological structure into attention-friendly sequences. At the core of our method is Topo-Scan, a novel module that decomposes a graph into a short, ordered sequence of topological tokens by slicing over node or edge filtrations. These sequences capture multi-scale structural patterns, from local motifs to global organization, and are processed by a Transformer to produce expressive graph-level embeddings. Unlike traditional persistent homology pipelines, Topo-Scan is parallelizable, avoids costly diagram computations, and integrates seamlessly with standard deep learning architectures. We provide theoretical guarantees on the stability of our topological encodings and demonstrate state-of-the-art performance across graph classification and molecular property prediction benchmarks. Our results show that Topoformer matches or exceeds strong GNN and topology-based baselines while offering predictable and efficient compute. This work opens a new path for parallelizable and unifying approaches to graph representation learning that integrate topological inductive biases into attention frameworks.
Abstract:We introduce Topoformer, a lightweight and scalable framework for graph representation learning that encodes topological structure into attention-friendly sequences. At the core of our method is Topo-Scan, a novel module that decomposes a graph into a short, ordered sequence of topological tokens by slicing over node or edge filtrations. These sequences capture multi-scale structural patterns, from local motifs to global organization, and are processed by a Transformer to produce expressive graph-level embeddings. Unlike traditional persistent homology pipelines, Topo-Scan is parallelizable, avoids costly diagram computations, and integrates seamlessly with standard deep learning architectures. We provide theoretical guarantees on the stability of our topological encodings and demonstrate state-of-the-art performance across graph classification and molecular property prediction benchmarks. Our results show that Topoformer matches or exceeds strong GNN and topology-based baselines while offering predictable and efficient compute. This work opens a new path for parallelizable and unifying approaches to graph representation learning that integrate topological inductive biases into attention frameworks.
Machine Learning (cs.LG); Algebraic Topology (math.AT)
arXiv:2607.28259 [cs.LG]
(or arXiv:2607.28259v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2607.28259 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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