Graph Neural Networks in Practice
Model complex relational graph data using PyTorch Geometric and GNN architectures.
Model complex relational graph data using PyTorch Geometric and GNN architectures.
Understand node embeddings, graph convolutions, link prediction, and sub-graph classification for fraud detection, recommendation engines, and biological networks.
2 Modules · 4 Lessons · 250 Minutes Total
Formulate graph objects and master node message-passing mechanics.
Map graphs into PyTorch Geometric Data structures with edge indices and feature matrices.
Implement custom message-passing layers to aggregate node neighbor features.
Use attention mechanisms and scale GNNs to multi-million edge networks.
Apply self-attention over node neighborhoods to weigh relational importance.
Train GNNs on graphs that exceed GPU memory using PyG NeighborLoader.
Construct a Graph Neural Network on a heterogeneous user-transaction graph to predict fraudulent accounts with high precision.
Course Author & Industry Expert
Prof. Julian Kross is a Graph AI Researcher who has published extensive work on scalable graph neural network architectures.
No. Standard PyTorch knowledge is required, but PyTorch Geometric is introduced from the ground up.