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The spatial distribution of algebraic integers on constant-norm hypersurfaces
Published online by Cambridge University Press: 26 February 2010
Abstract
Let K be an algebraic number field, [ K: 
] = KΣ
. Most of what we shall discuss is trivial when K = , so that we assume that K ≥ 2 from now onwards. To describe our results, we consider the classical device [2] of Minkowski, whereby K is embedded (diagonally-) into the direct product MK of its completions at its (inequivalent) infinite places. Thus MK is -algebra isomorphic to 
, and is to be regarded as a topological 
-algebra, dimRMK = K, in which K is everywhere dense, while the ring Zx of integers of K embeds as a discrete 
-submodule of rank K. Following the ideas implicit in Hecke's fundamental papers [6] we may measure the “spatial distribution” of points of MK (modulo units of κ) by means of a canonical projection onto a certain torus . The principal application of our main results (Theorems I–III described below) is to the study of the spatial distribution of the 
which have a fixed norm n = NK/Q(α). In §2 we shall show that, with suitable interpretations, for “typical” n (for which NK/Q(α) = n is soluble), these α have “almost uniform” spatial distribution under the canonical projection onto TK. Analogous questions have been considered by several authors (see, e.g., [5, 9, 14]), but in all cases, they have considered weighted averages over such n of a type which make it impossible to make useful statements for “typical” n.
MSC classification
Secondary:11R45: Density theorems
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- Research Article
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- Copyright
- Copyright © University College London 1992
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