Frey curve construction

E921624

The Frey curve construction is a method in number theory that associates an elliptic curve to a putative solution of Fermat’s Last Theorem, playing a key role in the proof by linking the theorem to modularity.

All labels observed (1)

Label Occurrences
Frey curve construction canonical 1

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Statements (47)

Predicate Object
instanceOf concept in number theory ⓘ
mathematical construction ⓘ
aim show incompatibility between a Fermat counterexample and modularity theorem ⓘ
argumentStyle contradiction via modularity ⓘ
assumes existence of a nontrivial solution to Fermat's equation ⓘ
coreIdea associate an elliptic curve to a putative solution of Fermat's equation ⓘ
countryOfOrigin Germany ⓘ
field Diophantine equations ⓘ
arithmetic geometry ⓘ
number theory ⓘ
historicalRole linked Fermat's Last Theorem to modularity of elliptic curves ⓘ
motivated Ribet's proof of the epsilon conjecture ⓘ
provided strategy to derive contradiction from a hypothetical Fermat counterexample ⓘ
input putative nontrivial integer solution of Fermat's equation ⓘ
inspiredConjecture Serre's modularity conjecture ⓘ
epsilon conjecture of Serre ⓘ
involves conductor of an elliptic curve ⓘ
discriminant of an elliptic curve ⓘ
modular forms of weight 2 ⓘ
keyProperty expected non-modularity under existence of a Fermat counterexample ⓘ
special behavior of Galois representations attached to the curve ⓘ
unusual conductor of the associated elliptic curve ⓘ
logicalRole reduces Fermat's Last Theorem to a modularity statement for elliptic curves ⓘ
mainApplication Fermat's Last Theorem ⓘ
methodType reductio ad absurdum technique ⓘ
namedAfter Gerhard Frey ⓘ
notableFeature simple definition but deep arithmetic consequences ⓘ
output elliptic curve over the rational numbers ⓘ
semistable elliptic curve ⓘ
propertyTested modularity of the associated elliptic curve ⓘ
relatedTo Galois representations of elliptic curves ⓘ
Ribet's theorem ⓘ
Taniyama–Shimura–Weil conjecture ⓘ
level-lowering theorems ⓘ
modularity theorem ⓘ
studiedIn research on Diophantine equations ⓘ
research on elliptic curves ⓘ
research on modular forms ⓘ
timePeriod late 20th century ⓘ
typicalExponent integer n > 2 ⓘ
usedBy Andrew Wiles ⓘ
Gerhard Frey ⓘ
Jean-Pierre Serre ⓘ
Ken Ribet ⓘ
usedInProofOf Fermat's Last Theorem ⓘ
usesObject Fermat equation x^n + y^n = z^n ⓘ
elliptic curve ⓘ

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Referenced by (1)

Full triples — surface form annotated when it differs from this entity's canonical label.

Gerhard Frey → knownFor → Frey curve construction ⓘ