Advancements in Graph Learning and Optimization

The field of graph learning and optimization is moving towards more flexible and adaptive methods. Recent developments have focused on improving the efficiency and effectiveness of graph neural networks, with a particular emphasis on incorporating structural information and higher-order relationships. Notable advancements include the development of novel Quality-Diversity algorithms, such as Vector Quantized-Elites, which enable autonomous construction of behavioral space grids without prior task-specific knowledge. Additionally, universal graph structural encoders, like GFSE, have shown great promise in capturing transferable structural patterns across diverse domains. Noteworthy papers include Vector Quantized-Elites, which introduces a novel Quality-Diversity algorithm for unsupervised optimization, and GFSE, a universal graph structural encoder that captures transferable structural patterns across diverse domains.

Sources

Utility Inspired Generalizations of TOPSIS

Vector Quantized-Elites: Unsupervised and Problem-Agnostic Quality-Diversity Optimization

Analyzing the Landscape of the Indicator-based Subset Selection Problem

LGRPool: Hierarchical Graph Pooling Via Local-Global Regularisation

Hypergraph Vision Transformers: Images are More than Nodes, More than Edges

GPT Meets Graphs and KAN Splines: Testing Novel Frameworks on Multitask Fine-Tuned GPT-2 with LoRA

AdapCsiNet: Environment-Adaptive CSI Feedback via Scene Graph-Aided Deep Learning

Towards A Universal Graph Structural Encoder

Visual Re-Ranking with Non-Visual Side Information

Simplifying Graph Transformers

Hierarchical Vector Quantized Graph Autoencoder with Annealing-Based Code Selection

Riemannian Patch Assignment Gradient Flows

Hadamard product in deep learning: Introduction, Advances and Challenges

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