Asymptotics for graphically divergent series: dense digraphs and 2-SAT formulae
Sergey Dovgal, Khaydar Nurligareev

TL;DR
This paper introduces a new systematic method using bivariate generating functions for deriving complete asymptotic expansions of dense graph families and 2-SAT formulae, with broad applicability and combinatorial insights.
Contribution
The authors develop a novel approach employing coefficient generating functions to obtain closed-form asymptotics for various dense graph structures and logical formulae, enhancing analytical flexibility.
Findings
Derived asymptotics for connected graphs and digraphs
Applied method to 2-SAT formulae and implication digraphs
Flexible framework accommodating structural variations
Abstract
We propose a new method for obtaining complete asymptotic expansions in a systematic manner, which is suitable for counting sequences of various graph families in dense regime. The core idea is to encode the two-dimensional array of expansion coefficients into a special bivariate generating function, which we call a coefficient generating function. We show that coefficient generating functions possess certain general properties that make it possible to express asymptotics in a short closed form. Also, in most scenarios, we indicate a combinatorial meaning of the involved coefficients. Applications of our method include asymptotics of connected graphs, irreducible tournaments, strongly connected digraphs, 2-SAT formulae and contradictory strongly connected implication digraphs. Moreover, due to its flexibility, the method allows to treat a wide range of structural variations, including…
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Taxonomy
TopicsHistory and advancements in chemistry · Topological and Geometric Data Analysis · Data Management and Algorithms
