3260 papers • 126 benchmarks • 313 datasets
Graph Partitioning is generally the first step of distributed graph computing tasks. The targets are load-balance and minimizing the communication volume.
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Ego-splitting is a highly scalable and flexible framework that reduces the complex overlapping clustering problem to a simpler and more amenable non-overlapping (partitioning) problem.
This approach uses a graph-partitioning method to decompose a large highway network into smaller networks and trains them independently and demonstrates that the DCRNN model can be used to forecast the speed and flow simultaneously and that the forecasted values preserve fundamental traffic flow dynamics.
This work presents a graph neural network based CG mapping predictor called Deep Supervised Graph Partitioning Model (DSGPM) that treats mapping operators as a graph segmentation problem and finds that predicted CG mapping operators indeed result in good CG MD models when used in simulation.
This work proposes the first known approach to federated classification in hyperbolic spaces, and tests the method on a collection of diverse data sets, including hierarchical single-cell RNA-seq data from different patients distributed across different repositories that have stringent privacy constraints.
A novel distributed evolutionary algorithm, KaFFPaE, is presented, to solve the Graph Partitioning Problem, which makes use of KaFF Pa (Karlsruhe Fast Flow Partitioner), which provides new effective crossover and mutation operators.
A novel local improvement scheme for the perfectly balanced graph partitioning problem is presented that is fast on the one hand and able to improve or reproduce most of the best known perfectly balanced partitioning results ever reported in the literature.
This paper parallelizing and adapting the label propagation technique originally developed for graph clustering, and introducing size constraints, becomes applicable for both the coarsening and the refinement phase of multilevel graph partitioning.
A theoretical and algorithmic framework for multi-way graph partitioning that relies on a multiplicative cut-based objective and an effective algorithm for its optimization that achieves state-of-the-art performance on benchmark data sets is introduced.
An improved coarsening process for multilevel hypergraph partitioning that incorporates global information about the community structure is presented that significantly improves the solutions found by the initial partitioning algorithm and consistently improves overall solution quality.
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