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Inductive Graph Unlearning
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As a way to implement the "right to be forgotten" in machine learning, \textit{machine unlearning} aims to completely remove the contributions and information of the samples to be deleted from a trained model without affecting the contributions of other samples. Recently, many frameworks for machine unlearning have been proposed, and most of them focus on image and text data. To extend machine unlearning to graph data, \textit{GraphEraser} has been proposed. However, a critical issue is that \textit{GraphEraser} is specifically designed for the transductive graph setting, where the graph is static and attributes and edges of test nodes are visible during training. It is unsuitable for the inductive setting, where the graph could be dynamic and the test graph information is invisible in advance. Such inductive capability is essential for production machine learning systems with evolving graphs like social media and transaction networks. To fill this gap, we propose the \underline{{\bf G}}\underline{{\bf U}}ided \underline{{\bf I}}n\underline{{\bf D}}uctiv\underline{{\bf E}} Graph Unlearning framework (GUIDE). GUIDE consists of three components: guided graph partitioning with fairness and balance, efficient subgraph repair, and similarity-based aggregation. Empirically, we evaluate our method on several inductive benchmarks and evolving transaction graphs. Generally speaking, GUIDE can be efficiently implemented on the inductive graph learning tasks for its low graph partition cost, no matter on computation or structure information. The code will be available here: https://github.com/Happy2Git/GUIDE.
Forward citations
Cited by 2 Pith papers
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OpenGU: A Comprehensive Benchmark for Graph Unlearning
OpenGU is claimed as the first comprehensive benchmark for graph unlearning, integrating 16 methods, 37 datasets, and a 3x3 grid of tasks and unlearning requests, with empirical findings on effectiveness, efficiency, ...
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Toward Scalable Graph Unlearning: A Node Influence Maximization based Approach
The paper's NIM+SGU pipeline improves forgetting and preserves accuracy in graph unlearning by selecting high-influence nodes via propagation-based influence scores and fine-tuning on entity-specific losses.
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