A nonconstructive Proof to show the Convergence of the $n^{th}$ root of diagonal Ramsey Number $r(n, n)$
Robert J. Betts

TL;DR
This paper provides a nonconstructive proof demonstrating that the sequence of the $n^{th}$ roots of diagonal Ramsey numbers converges to a finite limit, specifically to 2, using properties of convergence and complex analysis.
Contribution
It introduces a nonconstructive method to prove the convergence of the $n^{th}$ roots of diagonal Ramsey numbers and characterizes the limit as 2.
Findings
The $n^{th}$ root of diagonal Ramsey numbers converges to a finite limit.
The limit of the $j^{th}$ root of the diagonal Ramsey number is 2.
The convergence can be shown via product representations involving known convergent sequences and complex functions.
Abstract
Does the root of the diagonal Ramsey number converge to a finite limit? The answer is yes. A sequence can be shown to converge if it satifies convergence conditions other than or besides monotonicity. We show such a property holds for which the sequence of roots does converge, even if one has no a priori knowledge as to whether the sequence is monotone or not. We show also the root of the diagonal Ramsey number can be expressed as a product of two factors, the first being a known convergent sequence and the second being an absolutely convergent infinite series. One also can express it where one product is convergent and the other has all its values from a uniformly convergent complex function holomorphic within the unit disc on the complex plane. Our motivation solely is to prove the conjecture as a problem in search of a solution, not to establish some deep…
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Taxonomy
TopicsLimits and Structures in Graph Theory · Advanced Topology and Set Theory · Analytic Number Theory Research
