An Algebraic Study of Multivariable Integration and Linear Substitution
Markus Rosenkranz, Xing Gao, Li Guo

TL;DR
This paper develops an algebraic framework for multivariable integration using Rota-Baxter operators and matrix monoid actions, proposing a conjecture about the structure of operator relations.
Contribution
It introduces a novel algebraic approach to multivariable integration, combining Rota-Baxter hierarchies with linear substitutions via matrix monoids.
Findings
Constructs an operator ring acting on Rota-Baxter hierarchies
Proposes a conjecture on noncommutative Groebner basis for operator relations
Provides a theoretical foundation for algebraic multivariable integration
Abstract
We set up an algebraic theory of multivariable integration, based on a hierarchy of Rota-Baxter operators and an action of the matrix monoid as linear substitutions. Given a suitable coefficient domain with a bialgebra structure, this allows us to build an operator ring that acts naturally on the given Rota-Baxter hierarchy. We conjecture that the operator relations are a noncommutative Groebner basis for the ideal they generate.
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Taxonomy
TopicsAdvanced Topics in Algebra · Algebraic structures and combinatorial models · Polynomial and algebraic computation
