Abstract
In the previous chapter, two different strategies have been proposed for improving the general distance quality of the approximation framework BP-GED. In the present chapter, two additional approaches are pursued for reducing the approximation error. First, in Sect. 5.1 we introduce a method that aims at estimating the exact edit distance \(d_{\lambda _{\min }}(g_1,g_2)\) based on both distance bounds \(d_{\psi }(g_1,g_2)\) and \(d'_{\psi }(g_1,g_2)\) derived from BP-GED. This method is based on regression analysis. Second, in Sect. 5.2 a novel methodology, which is able to predict the incorrect node operations, is introduced. More precisely, a comprehensive set of features—which numerically characterizes individual node edit operations—is defined and extracted from the underlying graphs. These features are in turn used for the development of a classification model for node edit operations.
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Notes
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The assignment of positive and negative is arbitrary and may depend on the application being evaluated, but in general the label positive is assigned to the class one wants to detect, which is not necessarily the correct class. For instance, in a medical setting, a test for a disease giving a positive answer usually means that the disease is present.
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Riesen, K. (2015). Learning Exact Graph Edit Distance. In: Structural Pattern Recognition with Graph Edit Distance. Advances in Computer Vision and Pattern Recognition. Springer, Cham. https://doi.org/10.1007/978-3-319-27252-8_5
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DOI: https://doi.org/10.1007/978-3-319-27252-8_5
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