fields, the problem is essentially a planar lattice point problem (cf. ZAGIER [17]). To this, the deep results of HUXLEY [3], [4] can be applied to get For cubic fields, W. MULLER [12] proved that ## 43 - (h the class number), using a deep exponential sum technique due to KOLESNIK [7]. every n
On Denominators of Algebraic Numbers and Integer Polynomials
β Scribed by Steven Arno; M.L. Robinson; Ferell S. Wheeler
- Publisher
- Elsevier Science
- Year
- 1996
- Tongue
- English
- Weight
- 543 KB
- Volume
- 57
- Category
- Article
- ISSN
- 0022-314X
No coin nor oath required. For personal study only.
β¦ Synopsis
Let A(x)=a d x d + } } } +a 0 be the minimal polynomial of : over Z. Recall that the denominator of :, denoted den(:), is defined as the least positive integer n for which n: is an algebraic integer. It is well known that den(:)|a d . In this paper we study the density of algebraic numbers : of fixed degree d such that den(:)=a d . We show that this density is given by
Note that the above density approaches 1Γ(3) as d Γ . As a result, we show, loosely speaking, that the chance that an algebraic number : satisfies den(:)=a d is 1Γ(3). In order to prove these results we introduce the concept of the denominator of an integer polynomial A. Several formulas for computing denominators of integer polynomials are derived.
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