Two Conjectures on Gauge Theories, Gravity, and Infinite Dimensional Kac-Moody Groups
Ori J. Ganor

TL;DR
This paper proposes a novel framework where gauge theories and string theories are encoded in a special invariant function on the infinite-dimensional group manifold of $E_{10}(R)$, linking various theories through Fourier transforms and harmonic properties.
Contribution
It introduces the idea that gauge and string theories are represented by a unique invariant function on $E_{10}(R)$, connecting partition functions and dualities in a unified infinite-dimensional group setting.
Findings
Partition function of N=4 SYM on $T^4$ derived from the Fourier transform of the proposed function.
The function encodes answers to M-theory questions on $T^8$ and heterotic string theories on $T^7$.
The conjecture that this function is harmonic with respect to the $E_{10}(R)$ metric.
Abstract
We propose that the structure of gauge theories, the and little-string theories is encoded in a unique function on the real group manifold . The function is invariant under the maximal compact subgroup acting on the right and under the discrete U-duality subgroup on the left. The manifold contains an infinite number of periodic variables. The partition function of U(n), N=4 Super-Yang-Mills theory on , with generic SO(6) R-symmetry twists, for example, is derived from the coefficient of the Fourier transform of the function with respect to appropriate periodic variables, setting other variables to the R-symmetry twists and the radii of . In particular, the partition function of nonsupersymmetric Yang-Mills theory is a special case, obtained from the twisted or little-string theories. The…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Algebraic Geometry and Number Theory · Geometric and Algebraic Topology
