Proves algebraic independence of the η^(n) sequence and that γ^(n) and δ^(n) are transcendental infinitely often, using Shidlovskii's theorem on Gumbel-derived generalized Euler constants.
Extensions by Antiderivatives, Exponentials of Integrals and by Iterated Logarithms
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
Let F be a characteristic zero differential field with an algebraically closed field of constants, E be a no-new-constant extension of F by antiderivatives of F and let y1, ..., yn be antiderivatives of E. The antiderivatives y1, ..., yn of E are called J-I-E antiderivatives if the derivatives of yi in E satisfies certain conditions. We will discuss a new proof for the Kolchin-Ostrowski theorem and generalize this theorem for a tower of extensions by J-I-E antiderivatives and use this generalized version of the theorem to classify the finitely differentially generated subfields of this tower. In the process, we will show that the J-I-E antiderivatives are algebraically independent over the ground differential field. An example of a J-I-E tower is extensions by iterated logarithms. We will discuss the normality of extensions by iterated logarithms and produce an algorithm to compute its finitely differentially generated subfields.
fields
math.NT 1years
2025 1verdicts
UNVERDICTED 1representative citing papers
citing papers explorer
-
Transcendence Results for $\Gamma^{(n)}(1)$ and Related Sequences of Generalized Constants
Proves algebraic independence of the η^(n) sequence and that γ^(n) and δ^(n) are transcendental infinitely often, using Shidlovskii's theorem on Gumbel-derived generalized Euler constants.