What is the reworded formula for Fermat's last theorem?

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Discussion Overview

The discussion revolves around a reworded formulation of Fermat's Last Theorem, a significant concept in number theory. Participants explore the theorem's expression and its implications, with a focus on the conditions under which it holds.

Discussion Character

  • Exploratory, Conceptual clarification

Main Points Raised

  • One participant presents a reworded version of Fermat's Last Theorem, suggesting that for positive integers a, b, c, and n, the equation a^{n}=\int_{b}^{c}n{x^{n-1}}dx has no solutions for any n > 2.
  • Another participant hints at the abbreviation for Fermat's Last Theorem, referring to it as "FL...FL something."
  • Additional mentions of Andrew Wiles, the mathematician known for proving Fermat's Last Theorem, are made without further elaboration.
  • Several participants confirm the identification of the theorem, with one explicitly stating "yes, Fermat's last theorem!"

Areas of Agreement / Disagreement

Participants generally agree on the identification of the theorem as Fermat's Last Theorem, though the reworded formulation and its originality remain uncertain.

Contextual Notes

The discussion does not clarify the validity or originality of the reworded formula presented, nor does it address any potential mathematical implications or interpretations of the integral form.

SteveRives
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I am thinking of a famous formula related to number theory, but I have reworded it (this may not be original to me -- I don't know). Can you name the theorem:

If a, b, c and n are positive integers, then

a^{n}=\int_{b}^{c}n{x^{n-1}}dx

has no solutions for any n > 2. Maybe we can submit our answers in white font letters!

Enjoy,

Steve Rives
 
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Do I have to tell you? It is sometimes written FL...FL something.
 
Andrew Wiles and Fermat...
 
FLT! :smile:
 
Last edited:
yes , Fermat's last theorem !
 

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