Graham's number is famous for being the upper bound of a real mathematical problem and for beingone of the largest numbers ever discovered; its existence and concept defy human comprehension. Little work iscurrently being done to deepen the understanding of this number, as its value for applications—even withinmathematics—is considered limited. The purpose of this work is to take the opposite path: to confront arithmeticchaos and pseudo-randomness by analyzing the compositional structures of this number to better understand itscore and, consequently, its summit. This study employs a combination of p-adic analysis, Fourier analysis,Arnold orbits, and other symmetry parameters to scale the top of the power tower. Numerical examples of thisapproach will be presented, along with the observed conclusions.
Rodolfo Moroz (Mon,) studied this question.