2016
DOI: 10.1090/proc/13058
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Small height in fields generated by singular moduli

Abstract: We prove that some fields generated by j j -invariants of CM elliptic curves (of infinite dimension over Q \mathbb {Q} ) satisfy the Property (B). The singular moduli are chosen so as to have supersingular reduction simultaneously above a fixed prime q q , which provides strong q q -adic estimates leading to an explicit lower bound for the height.

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Cited by 9 publications
(20 citation statements)
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“…We take the opportunity to use the last remark to remove a technical condition in a theorem of A. Galateau [7]. For any set S of primes, let L S be the compositum of the Hilbert class fields of Q( √ −p) for all p ∈ S. In [7], the set S has density 1 4 , since the proof requires the additional assumption that all primes in S are congruent 1 modulo 4.…”
Section: An Algebraic Integer and Not A Unit 2 Elsementioning
confidence: 99%
See 3 more Smart Citations
“…We take the opportunity to use the last remark to remove a technical condition in a theorem of A. Galateau [7]. For any set S of primes, let L S be the compositum of the Hilbert class fields of Q( √ −p) for all p ∈ S. In [7], the set S has density 1 4 , since the proof requires the additional assumption that all primes in S are congruent 1 modulo 4.…”
Section: An Algebraic Integer and Not A Unit 2 Elsementioning
confidence: 99%
“…Lemma 5.1. Let n ∈ N, then it is 7). In order to prove the first congruence, we consider f (2p − 1) modulo p 3 .…”
Section: An Upper Bound For N Pmentioning
confidence: 99%
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“…It is easy to see that some of our results can be extended to any field with the Bogomolov property, that is, fields L ⊆ Q for which there exists a constant c L > 0, such that for any non-zero α ∈ L \ U we have h(α) ≥ c L . In particular, from [2, Theorem 1.2] it follows that K ab has the Bogomolov property, see [1,11,13,14] for non-abelian examples of such fields and further references.…”
mentioning
confidence: 99%