Pierre de Fermat's laatste stelling
(x, y, z, n) element van de (N +) ^ 4
n> 2
(a) element van de Z
F is de functie (s).
F (a) = [a (a +1) / 2] ^ 2
F (0) = 0 en F (-1) = 0
Beschouw twee vergelijkingen.
F (z) = F (x) + F (y)
F (z-1) = F (x-1) + F (y-1)
We hebben een keten van gevolgtrekking
F (z) = F (x) + F (y) gelijkwaardig F (z-1) = F (x-1) + F (y-1)
F (z) = F (x) + F (y) conclusie F (z-1) = F (x-1) + F (y-1)
F (z-x-1) = F (x-x-1) + F (y-x-1) conclusie F (z-x-2) = F (x-x-2) + F (y-x-2)
zien we
F (z-x-1) = F (x-x-1) + F (y-x-1)
F (z-x-1) = F (-1) + F (y-x-1)
F (z-x-1) = 0 + F (y-x-1)
conclusie
z = y
en
F (z-x-2) = F (x-x-2) + F (y-x-2)
F (z-x-2) = F (-2) + F (y-x-2)
F (z-x-2) = 1 + F (y-x-2)
conclusie
z = / = y.
conclusie
F (z-x-1) = F (x-x-1) + F (y-x-1) geen conclusie (z-x-2) = F (x-x 2) + F (y-x-2)
conclusie
F (z) = F (x) + F (y) geen conclusie F (z-1) = F (x-1) + F (y-1)
conclusie
F (z) = F (x) + F (y) zijn niet equivalent van F (z-1) = F (x-1) + F (y-1)
Daarom is de twee gevallen.
[F (x) + F (y)] = F (z) en F (x-1) + F (y-1)] = / = F (Z-1)
of vice versa
conclusie
[F (x) + F (y)] - [F (x-1) + F (y-1)] = / = F (z) - F (z-1).
of
F (x) - F (x-1) + F (y)-F (y-1) = / = F (z) - F (z-1).
zien we
F (x) - F (x-1) = [x (x 1) / 2] ^ 2 - [(x-1) x / 2] ^ 2
= (X ^ 4 +2 x ^ 3 + x ^ 2/4) - (x ^ 4-2x 3 + x ^ ^ 2/4).
= X ^ 3
F (y)-F (y-1) = y ^ 3
F (z)-F (z-1) = z ^ 3
conclusie
x 3 + y ^ 3 = / = z ^ 3
n> 2. lossen soortgelijke
We hebben een keten van gevolgtrekking
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) gelijkwaardig G (z) * F (z-1) = G (x) * F ( x -1) + G (y) * F (y-1)
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) conclusie G (z) * F (z-1) = G (x) * F (x -1) + G (y) * F (y-1)
G (z) * F (z-x-1) = G (x) * F (x-x-1) + G (y-x-1) * F (y) conclusie G (z) * F (z-x-2) = G ( x) * F (x-x 2) + G (y) * F (y-x 2)
zien we
G (z) * F (z-x-1) = G (x) * F (x-x-1) + G (y) * F (y-x-1)
G (z) * F (z-x-1) = G (x) * F (-1) + G (y) * F (y-x-1)
G (z) * F (z-x-1) = 0 + G (y) * F (y-x-1)
conclusie
z = y.
en
G (z) * F (z-x-2) = G (x) * F (x-x-2) + G (y) * F (y-x-2)
G (z) * F (z-x-2) = G (x) * F (-2) + G (y) * F (y-x-2)
G (z) * F (z-x-2) = G (x) + G (y) * F (x-y-2)
x> 0 conclusie G (x)> 0
conclusie
z = / = y.
conclusie
G (z) * F (z-x-1) = G (x) * F (x-x-1) + G (y-x-1) * F (y) geen conclusie G (z) * F (z-x-2) = G (x) * F (x-x-2) + G (y) * F (y-x-2)
conclusie
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) geen conclusie G (z) * F (z-1) = G (x) * F ( x-1) + G (y) * F (y-1)
conclusie
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) zijn niet equivalent van G (z) * F (z-1) = G (x) * F (x-1) + G (y) * F (y-1)
Daarom is de twee gevallen.
[G (x) * F (x) + G (y) * F (y)] = G (z) * F (z) en [G (x) * F (x-1) + G (y) * F (y-1)] = / = G (z-1) * F (z-1)
of vice versa
conclusie
[G (x) * F (x) + G (y) * F (y)] - [G (x) * F (x-1) + G (y) * F (y-1)] = / = G (z) * [F (z) -F(Z-1)].
of
G (x) * [F (x) - F (x-1)] + G (y) * [F (y) - F (y-1)] = / = G (z) * [F (z) - F(z-1)]
zien we
x ^ n = G (x) * [F (x) - F (x-1)]
y ^ n = G (y) * [F (y) - F (y-1)]
z ^ n = G (z) * [F (z) - F (z-1)]
conclusie
x ^ n + y ^ n = / = z ^ n
gelukkig en vrede
Tran tan Cuong .
Andrew Wiles
Fermat's Last Theorem
long time.
Pierre de Fermat. The problem was called Fermat's Last Theorem
Fermat Prize was created in 1989.
Yes, the famous Fermat's Last Theorem, a conjecture by Fermat, that an equation of the form an + bn = cn has no integer solution, for n > 2. This was conjectured by Fermat in 1637, but it was only proved in 1995.Yes, the famous Fermat's Last Theorem, a conjecture by Fermat, that an equation of the form an + bn = cn has no integer solution, for n > 2. This was conjectured by Fermat in 1637, but it was only proved in 1995.Yes, the famous Fermat's Last Theorem, a conjecture by Fermat, that an equation of the form an + bn = cn has no integer solution, for n > 2. This was conjectured by Fermat in 1637, but it was only proved in 1995.Yes, the famous Fermat's Last Theorem, a conjecture by Fermat, that an equation of the form an + bn = cn has no integer solution, for n > 2. This was conjectured by Fermat in 1637, but it was only proved in 1995.
who meny juseph have fermat
Fermat's Room was created on 2007-10-07.
It was 1647 not 1847 and by Fermat himself.
Pierre De Fermat is famous for Fermat's Last Theorem, which states that an+bn=cn will never be true as long as n>2
A Fermat Prime refers to a proof that the mathematician Fermat discovered. It refers to a integer that is subject to an equation and the predictable result. Below is a webpage that explains it with examples.
Pierre de Fermat was born on August 17, 1601.