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In [[number theory]], '''Szpiro's conjecture''' concerns a relationship between the [[ |
In [[number theory]], '''Szpiro's conjecture''' concerns a relationship between the [[Conductor (class field theory)|conductor]] and the [[discriminant of an elliptic curve|discriminant]] of an [[elliptic curve]]. In a general form, it is equivalent to the well-known [[abc conjecture]]. It is named for [[Lucien Szpiro]] who formulated it in the 1980s. |
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The conjecture states that: given ε > 0, there exists a constant ''C''(ε) such that for any elliptic curve ''E'' defined over '''Q''' with minimal discriminant Δ and conductor ''f'', we have |
The conjecture states that: given ε > 0, there exists a constant ''C''(ε) such that for any elliptic curve ''E'' defined over '''Q''' with minimal discriminant Δ and conductor ''f'', we have |
Revision as of 15:53, 17 August 2014
In number theory, Szpiro's conjecture concerns a relationship between the conductor and the discriminant of an elliptic curve. In a general form, it is equivalent to the well-known abc conjecture. It is named for Lucien Szpiro who formulated it in the 1980s.
The conjecture states that: given ε > 0, there exists a constant C(ε) such that for any elliptic curve E defined over Q with minimal discriminant Δ and conductor f, we have
The modified Szpiro conjecture states that: given ε > 0, there exists a constant C(ε) such that for any elliptic curve E defined over Q with invariants c4, c6 and conductor f (see Tate's algorithm#Notation), we have
References
- Lang, S. (1997), Survey of Diophantine geometry, Berlin: Springer-Verlag, p. 51, ISBN 3-540-61223-8, Zbl 0869.11051
- Szpiro, L. (1981), "Seminaire sur les pinceaux des courbes de genre au moins deux", Astérisque, 86 (3): 44–78, Zbl 0463.00009
- Szpiro, L. (1987), "Présentation de la théorie d'Arakelov", Contemp. Math., 67: 279–293, doi:10.1090/conm/067/902599, Zbl 0634.14012