Graph matching can be formalized as a combinatorial optimization problem, where there are corresponding relationships between pairs of nodes that can be represented as edges. This problem becomes challenging when there are potential ambiguities present due to nodes and edges with high similarity, and there is a need to find accurate results for similar content matching. In this paper, we introduce a novel end-to-end neural network that can map the linear assignment problem into a high-dimensional space augmented with node-level relative position information, which is crucial for improving the method's performance for similar content matching. Our model constructs the anchor set for the relative position of nodes and then aggregates the feature information of the target node and each anchor node based on a measure of relative position. It then learns the node feature representation by integrating the topological structure and the relative position information, thus realizing the linear assignment between the two graphs. To verify the effectiveness and generalizability of our method, we conduct graph matching experiments, including cross-category matching, on different real-world datasets. Comparisons with different baselines demonstrate the superiority of our method. Our source code is available under https://github.com/anonymous.
翻译:图形匹配可以正式化为组合优化问题, 即对结点之间有对应关系, 可以作为边缘代表。 当结点和高度相似的边缘存在潜在的模糊性时, 这一问题会变得具有挑战性。 需要找到类似内容匹配的准确结果。 在本文中, 我们引入一个新的端到端神经网络, 可以将线性分配问题映射成一个高维空间, 并配有节点相对位置的信息, 这对于改进类似内容匹配的方法性能至关重要。 我们的模型为节点相对位置构建锚集, 然后根据相对位置的测量将目标节点和每个锚点的特征信息汇总起来。 然后通过整合表层结构和相对位置信息来学习节点的特征代表, 从而实现两个图形之间的线性分配。 为了验证我们方法的有效性和可比较性, 我们在不同的现实世界数据集上进行图表匹配实验, 包括跨类匹配。 将目标节点和每个锚点的特性与不同基线进行比较, 以显示我们的方法的优越性。 我们的源代码可以在 http://giant/ ambs.