Certifying Galois/monodromy Actions via Homotopy Graphs
Timothy Duff, Kisun Lee

TL;DR
This paper introduces a certified numerical algorithm that uses homotopy graphs and path tracking to accurately compute and verify Galois/monodromy groups of parametrized polynomial systems, with extensive experimental validation.
Contribution
It presents a novel certified algorithm combining homotopy path tracking and graph frameworks to compute and verify Galois/monodromy groups of polynomial systems.
Findings
Successfully certified properties of Galois/monodromy groups in various mathematical examples
Demonstrated the algorithm's effectiveness through extensive experiments
Validated the correctness of monodromy actions in complex polynomial systems
Abstract
We develop a certified numerical algorithm for computing Galois/monodromy groups of parametrized polynomial systems. Our approach employs certified homotopy path tracking to guarantee the correctness of the monodromy action produced by the algorithm, and builds on previous ``homotopy graph" frameworks. We conduct extensive experiments with an implementation of this algorithm, which we have used to certify properties of several notable Galois/monodromy groups which arise in several examples drawn from pure and applied mathematics.
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Taxonomy
TopicsPolynomial and algebraic computation · Homotopy and Cohomology in Algebraic Topology · Algebraic Geometry and Number Theory
