ultimo teorema di Pierre De Fermat
(x,y,z, n) elemento della (N +)^ 4
n> 2
(a) elemento della Z
F è la funzione (a).
F (a) = [a(a +1) / 2] ^2
F (0) = 0 e F (-1) = 0
Si considerino due equazioni.
F (z) = F (x) + F (y)
F (z-1) = F (x-1) + F (y-1)
Abbiamo una catena di inferenza
F (z) = F (x) + F (y) equivalente F (z-1) = F (x-1) + F (y-1)
F (z) = F (x) + F (y) conclusione F (z-1) = F (x-1) + F (y-1)
F (z-x-1) = F (x-x-1) + F (y-x-1) conclusione F (z-x-2) = F (x-x-2) + F (y-x-2)
vediamo
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)
conclusione
z = y
e
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)
conclusione
z = / = y.
conclusione
F (z-x-1) = F (x-x-1) + F (y-x-1) alcuna conclusione (z-x-2) = F (x-x 2) + F (y-x-2)
conclusione
F (z) = F (x) + F (y) alcuna conclusione F (z-1) = F (x-1) + F (y-1)
conclusione
F (z) = F (x) + F (y) non sono equivalenti di F (z-1) = F (x-1) + F (y-1)
Pertanto, i due casi.
[F (x) + F (y)] = F (z) e F (x-1) + F (y-1)] = / = F (Z-1)
o viceversa
conclusione
[F (x) + F (y)] - [F (x-1) + F (y-1)] = / = F (z)- F (z-1).
Or.
F (x)- F (x-1) + F (y) -F (y-1) = / = F (z)- F (z-1).
vediamo
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
conclusione
x 3 + y ^ 3 =/= z^ 3
n> 2. risolvere simili
Abbiamo una catena di inferenza
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) equivalenti di 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) conclusione 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) conclusione G (z) * F (z-x-2) = G ( x) * F (x-x 2) + G (y) * F (y-x 2)
vediamo
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)
conclusione
z = y.
e
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 conclusioni G (x)> 0
conclusione
z = / = y.
conclusione
G (z) * F (z-x-1) = G (x) * F (x-x-1) + G (y-x-1) * F (y) alcuna conclusione G (z) * F (z-x-2) = G (x) * F (x-x-2) + G (y) * F (y-x-2)
conclusione
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) alcuna conclusione G (z) * F (z-1) = G (x) * F ( x-1) + G (y) * F (y-1)
conclusione
G (z) * F (z) = G (x) * F (x) + G (y) * F (y) non sono equivalenti di G (z) * F (z-1) = G (x) * F ( x-1) + G (y) * F (y-1)
Pertanto, i due casi.
[G (x) * F (x) + G (y) * F (y)] = G (z) * F (z) e [G (x) * F (x-1) + G (y) * F (y-1)] = / = G (z-1) * F (z-1)
o viceversa
conclusione
[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)].
o
G (x) * [F (x) - F (x-1)] + G (y) * [F (y)- F (y-1)] = / = G (z) * [F (z)- F(z-1).]
vediamo
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)]
conclusione
x ^ n + y ^ n = / = z ^ n
Felicità e la pace
Cuong Tran
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
It was 1647 not 1847 and by Fermat himself.
Fermat's Room was created on 2007-10-07.
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 is famous for Fermat's Last Theorem, which states that an+bn=cn will never be true as long as n>2
Pierre de Fermat was born on August 17, 1601.
Pierre de Fermat was born on August 17, 1601.
Sophie Germain made great advances in Fermat's theorem.-So one of the ways is that she helped us better understand it.
They were Mrs and Mrs Fermat. But seriously, his father was Dominique Fermat and his mother was Claire de LongHis father was a leather merchant and also second consul of Beaumont- de- Lomagne.
No, there is no remembrance day for Pierre de Fermat, who is pretty unknown in France.