Scaling Up Graph Intelligence

Functional models manifest as generalized functional models operating across diverse topological and feature distributions, with node coloration indicating distinct token-specific transformations within the minimal graph structure-a design intended to accommodate any number of token types and generalized graph configurations.

New research details a framework for building and pre-training graph foundation models at an unprecedented scale, unlocking advanced capabilities for heterogeneous graph data.

Decoding Plasma Chaos: A Neural Network Approach

The FI-Conv workflow establishes a cyclical process where experimental and numerical data → drive forward prediction, which in turn informs the training process, ultimately enabling inverse parameter estimation-a system designed for iterative refinement through predictive modeling and data assimilation.

Researchers have developed a convolutional operator network capable of modeling and predicting the complex dynamics of plasma turbulence, opening new avenues for understanding and controlling this pervasive phenomenon.