Publications
Research contributions in Graph Neural Networks, focusing on expressivity, efficiency, and practical applications
This paper addresses the computational efficiency challenges in Graph Neural Networks by proposing a novel graph coarsening technique. Our approach significantly reduces inference time and memory while maintaining model performance, making GNNs more practical for real-world applications with large-scale graphs.
We propose a novel approach to enhance the expressivity of Graph Neural Networks beyond the traditional Weisfeiler-Leman hierarchy limitations. Our localization-based method improves the ability of GNNs to distinguish between different graph structures while maintaining computational efficiency.
Research Interests
My research focuses on advancing the theoretical understanding and practical applications of Graph Neural Networks. I am particularly interested in:
- Expressivity Enhancement: Developing methods to improve GNN expressivity beyond current theoretical limitations
- Inference Optimization: Creating efficient algorithms for faster GNN inference in large-scale applications
- Streaming Graph Learning: Addressing challenges in dynamic graph scenarios and catastrophic forgetting
- Applications: Weather prediction, social network analysis, and knowledge graph construction