Feynman graphs in perturbative quantum field theory
Christian Bogner, Stefan Weinzierl

TL;DR
This paper explores the mathematical structures underlying Feynman graphs in perturbative quantum field theory, focusing on their relations to periods, shuffle algebras, and multiple polylogarithms, and how these structures facilitate computational algorithms.
Contribution
It introduces new insights into the mathematical frameworks of Feynman graphs, connecting them to advanced algebraic and analytical concepts for improved calculations.
Findings
Feynman integrals relate to periods and polylogarithms
Algorithms derived from algebraic structures improve computation
Mathematical structures offer new perspectives in quantum field theory
Abstract
In this talk we discuss mathematical structures associated to Feynman graphs. Feynman graphs are the backbone of calculations in perturbative quantum field theory. The mathematical structures -- apart from being of interest in their own right -- allow to derive algorithms for the computation of these graphs. Topics covered are the relations of Feynman integrals to periods, shuffle algebras and multiple polylogarithms.
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Taxonomy
TopicsQuantum Mechanics and Applications · Advanced Mathematical Theories and Applications · Noncommutative and Quantum Gravity Theories
