Machine learning Sasakian and topology on contact Calabi-Yau -manifolds
arXiv:2310.03064 · doi:10.1016/j.physletb.2024.138517
Abstract
We propose a machine learning approach to study topological quantities related to the Sasakian and -geometries of contact Calabi-Yau -manifolds. Specifically, we compute datasets for certain Sasakian Hodge numbers and for the Crowley-Nördstrom invariant of the natural -structure of the -dimensional link of a weighted projective Calabi-Yau -fold hypersurface singularity, for 7549 of the 7555 possible projective spaces. These topological quantities are then machine learnt with high performance scores, where learning the Sasakian Hodge numbers from the weights alone, using both neural networks and a symbolic regressor which achieve scores of 0.969 and 0.993 respectively. Additionally, properties of the respective Gröbner bases are well-learnt, leading to a vast improvement in computation speeds which may be of independent interest. The data generation and analysis further induced novel conjectures to be raised.
10 pages; 5 figures; 1 table
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