The game theoretic p-Laplacian and semi-supervised learning with few labels
Jeff Calder

TL;DR
This paper investigates the game theoretic p-Laplacian for semi-supervised learning on graphs, establishing its well-posedness and continuum limit, and analyzing the regularity of solutions using viscosity solutions and maximum principles.
Contribution
It introduces a rigorous analysis of the game theoretic p-Laplacian in semi-supervised learning, connecting discrete graph models to continuous p-Laplace equations.
Findings
The continuum limit of the graph-based semi-supervised learning with the p-Laplacian is a weighted p-Laplace equation.
Solutions to the graph p-Laplace equation are approximately Holder continuous with high probability.
The analysis employs viscosity solutions and maximum principles on graphs.
Abstract
We study the game theoretic p-Laplacian for semi-supervised learning on graphs, and show that it is well-posed in the limit of finite labeled data and infinite unlabeled data. In particular, we show that the continuum limit of graph-based semi-supervised learning with the game theoretic p-Laplacian is a weighted version of the continuous p-Laplace equation. We also prove that solutions to the graph p-Laplace equation are approximately Holder continuous with high probability. Our proof uses the viscosity solution machinery and the maximum principle on a graph.
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Taxonomy
TopicsStatistical Methods and Inference · Advanced Graph Neural Networks · Machine Learning and Algorithms
