3260 papers • 126 benchmarks • 313 datasets
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A novel metric learning method to evaluate distance between graphs that leverages the power of convolutional neural networks, while exploiting concepts from spectral graph theory to allow these operations on irregular graphs to be exploited.
This work theoretically proves that clDice guarantees topology preservation up to homotopy equivalence for binary 2D and 3D segmentation, and pro-poses a computationally efficient, differentiable loss function (soft-clDice) for training arbitrary neural segmentation networks.
This work proposes a novel neural network based approach to address this classic yet challenging graph problem, aiming to alleviate the computational burden while preserving a good performance, and suggests SimGNN provides a new direction for future research on graph similarity computation and graph similarity search.
A novel siamese graph neural network called GREED is designed, which through a carefully crafted inductive bias, learns GED and SED in a property-preserving manner and is not only more accurate than the state of the art, but also up to 3 orders of magnitude faster.
The hybrid approach to measuring semantic similarity of sentence pairs used in Semeval 2015 tasks 1 and 2 hybridize the common vector-based models with definition graphs from the 4lang concept dictionary and devise a measure of graph similarity that yields good results on training data.
This paper presents a novel scalable spectral clustering method using Random Binning features (RB) to simultaneously accelerate both similarity graph construction and the eigendecomposition and introduces a state-of-the-art SVD solver to effectively compute eigenvectors of a large sparse feature matrix generated by RB.
FINGER reduces the cubic complexity of VNGE to linear complexity in the number of nodes and edges, and thus enables online computation based on incremental graph changes, and shows asymptotic equivalence of FINGER to the exact VN GE, and proposes efficient algorithms for computing Jensen-Shannon distance between graphs.
This paper derives four instances of the proposed framework for designing graph kernels, and shows through extensive experiments that these instances are competitive with state-of-the-art methods in various tasks.
This work considers a privacy threat to a social network in which an attacker has access to a subset of random walk-based node similarities, such as effective resistances or personalized PageRank scores, and shows that with just a small subset of measurements, the attacker can learn a large fraction of edges in asocial network, even when the measurements are noisy.
The model, Graph-Sim, achieves the state-of-the-art performance on four real-world graph datasets under six out of eight settings, compared to existing popular methods for approximate Graph Edit Distance (GED) and Maximum Common Subgraph (MCS) computation.
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