The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy
The world in a grain of sand: condensing the string vacuum degeneracy

World in a grain of sand

String theory

An AI algorithm of few-shot learning finds that the vast string landscape could be reduced by only seeing a tiny fraction to predict the rest.

The world in a grain of sand: condensing the string vacuum degeneracy

In press Physics Letters B (2022)

Y. He, S. Lal, M. Zaid Zaz

We propose a novel approach toward the vacuum degeneracy problem of the string landscape, by finding an efficient measure of similarity amongst compactification scenarios. Using a class of some one million Calabi-Yau manifolds as concrete examples, the paradigm of few-shot machine-learning and Siamese Neural Networks represents them as points in R3\mathbb{R}^3 where the similarity score between two manifolds is the Euclidean distance between their R3\mathbb{R}^3 representatives. Using these methods, we can compress the search space for exceedingly rare manifolds to within one percent of the original data by training on only a few hundred data points. We also demonstrate how these methods may be applied to characterize `typicality' for vacuum representatives.

In press Physics Letters B (2022)

Y. He, S. Lal, M. Zaid Zaz