What is the validity of my father's proof for Fermat's Last Theorem?

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In summary, a person is trying to get recognition for their father's proof of Fermat's last theorem, and provides a link to the website containing the proof. The proof involves a model for squared numbers and higher powers, and uses equations to show the existence of a Pythagorean equation in the model. The person has confidence in their father's abilities and asks for others to visit the website and sign the guestbook.
  • #36
Why don't you start by showing why y[3x^2 +3xy + y^2] can't be a cube, and then we'll go on from there.
 
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  • #37
Originally posted by selfAdjoint
Why don't you start by showing why y[3x^2 +3xy + y^2] can't be a cube, and then we'll go on from there.

For the simple case x = x and y = 1:

[x+1]^3 - x^3 = 3x^2 + 3x + 1

equals

6*x*[x+1]/2 + 1

6*1+1 = 6+1

6*2+1 = 12+1

6*3+1 = 18+1

6*6+1 = 36+1

etc...

equals

6*N*[N+1]/2 + 1
equals

6*[1+2+3+...+ N] + 1

not a cube...
 
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  • #38
Originally posted by Russell E. Rierson
[x+y]^2 - x^2 = 2xy + y^2

3^2 = 2*4*1 + 1^2

5^2 = 2*12*1 + 1^2

7^2 = 2*24*1 + 1^2

[x+y]^3 - x^3 = 3yx^2 + 3xy^2 + y^3


y[3x^2 +3xy + y^2]

cannot be a cube.

y[2x+y] is a square.

y[3x^2 +3xy + y^2] is not a cube

y[4x^3 + 6yx^2 + 4xy^2 + y^3] is not a 4th power








y[3x^2 + 3xy + y^2]

x = x

y = n

1[3x^2 + 3x + 1]

2[3x^2 + 6x + 4]

3[3x^2 + 9x + 9]

4[3x^2 + 12x + 16]

5[3x^2 + 15x + 25]

6[3x^2 + 18x + 36]

etc...

etc...

etc...

Now let x = 1, with y = n

1[3+3+1] = 2^3 - 1^3

2[3+6+4] = 3^3 - 1^3

3[3+9+9] = 4^3 - 1^3

4[3+12+16] = 5^3 - 1^3

5[3+15+25] = 6^3 - 1^3

6[3+18+36] = 7^3 - 1^3

etc...

etc...

etc...
 
  • #39
And that is never a cube for what reason? And the other infinite set of cases for n=3 are also false because?

I don't remember a proof that 1 more than 6 times the sum of the first N numbers is a cube, so fill in the blanks for me.
 
  • #40
Originally posted by matt grime
And that is never a cube for what reason? And the other infinite set of cases for n=3 are also false because?

I don't remember a proof that 1 more than 6 times the sum of the first N numbers is a cube, so fill in the blanks for me.

It means that the "Universal Set" is finitely representable...

Another simplistic example:

x = 1, y = n

y[3 + 3y + y^2]

1*[3 + 3 + 1] = 2^3 - 1^3

=

1*[2^2 + 3]

2*[3 + 6 + 4] = 3^3 - 1^3

=

2*[3^2 + 4]

3*[3 + 9 + 9] = 4^3 - 1^3

=

3*[4^2 + 5]

etc...

etc...

etc...


Let x = 2, y = n

y[3x^2 + 3xy + y^2] = [x+y]^3 - x^3

y[12+ 6y + y^2]

1[12+6+1] = 3^3 - 2^3 = not a cube

2[12+12+4] = 4^3 - 2^3

3[12+18+9] = 5^3 - 2^3

4[12+24+16] = 6^3 - 2^3

etc...

etc...

etc...

1*[4^2+3] = 3^3 - 2^3

2*[5^2+3] = 4^3 - 2^3

3*[6^2+3] = 5^3 - 2^3

4*[7^2+3] = 6^3 - 2^3

etc...

etc...

etc...

x = 3, y = n

y[27 + 9y + y^2]

1*[27 + 9 + 1] = 4^3 - 3^3

2*[27 + 18 + 4] = 5^3 - 3^3

3*[27 + 27 + 9] = 6^3 - 3^3

4*[27 + 36 + 16] = 7^3 - 3^3

etc...

etc...

etc...

1*[5^2 + 12] = 4^3 - 3^3

2*[6^2 + 13] = 5^3 - 3^3

3*[7^2 + 14] = 6^3 - 3^3

etc...

etc...

etc...

x = 4, y = n

y*[48 + 12y + y^2]

1*[7^2 + 12] = 5^3 - 4^3

2*[8^2 + 12] = 6^3 - 4^3

3*[9^2 + 12] = 7^3 - 4^3

etc...

etc...

etc...

Interesting...
 
  • #41
The universal set? Representable? Do you practise at this or does it come naturally?
 
  • #42
Originally posted by matt grime
The universal set? Representable? Do you practise at this or does it come naturally?

The mathematical structure that is isomorphic to the universe, yes, a "natural" mathematics.
 
  • #43
Q@A

A^3 + B^3 = [A+B]*[A^2 - AB + B^2]


[x+y]^3 + x^3 = [x+y+x]*[(x+y)^2 -x*(x+y) + x^2]

= [2x+y]*[x^2 + xy + y^2]

x = x

y = 1

[2x+1]*[x^2 + x + 1]

interesting...

[derivative]*[antiderivative] = x^3 + [x+1]^3
 
  • #44
Interesting...

x^3 + y^3 = [x+y]*[x^2-xy+y^2] = [x+y]*[(x+y)^2-3xy]

Let x+y = A

Let xy = B

[x+y]*[(x+y)^2-3xy] = A*[A^2-3B] = [A^3 - 3AB]

[A^3 - 3AB] cannot be a cube

8 - 6B is not a cube

27 - 9B is not a cube

64 - 12B is not a cube

125 - 15B is not a cube

A^3 - 3AB

8 - 6*1 = 2 = 1^3 + 1

27 - 9*1 = 2^3 + 20

27 - 9*2 = 2^3 + 1

64 - 12*1 = 3^3 + 25

64 - 12*2 = 3^3 + 13

64 - 12*3 = 3^3 + 1

interesting...
 
  • #45
A possible clue, to the riddle of Fermat? :

x^p + y^p

=

[x+y]*[x^(p-1)+y^(p-1) - xy*[{x^(p-2)+y^(p-2)}/(x+y)]]


x^2+y^2 = [x+y]*[(x+y)-xy*[2/(x+y)]

=

(x+y)^2 - 2xy

x^3+y^3 = [x+y]*[(x^2+y^2)-xy*[(x+y)/(x+y)]

etc.

etc.

etc.
 
  • #46
5^1 = 1*0 + 5

5^2 = 2*10 + 5

5^3 = 3*40 + 5

5^p = p*a + 5

x^p = p*a + x



x^p = p*a + x

y^p = p*b + y

z^p = p*c + z



...x^p + y^p = z^p



p*a + x + p*b + y = p*c + z

p*[a + b - c] = z - [x + y]

p = [z - (x + y)]/[a + b - c]
 
  • #47
Tom Ballard work

Digiflux:

Thank you very much for sharing us your father work on FLT.
I make already a print of it and sent it to some of my friends.
It looks a very interesting and also professional mathematical work.
I like the Geometry attitude to this problem and I will do my best to study it.

It will be very surprising if the 350 years problem can be solve so shortly but you never know. This is what so nice in mathematics. maybe it is the prove from the book as Erdos was saying. Still I think that Wiles he is the one to say if it corrects prove or there is hole somewhere. I hope that no but if there is one it may be filled one day.

Best
Moshek
:smile:

https://www.physicsforums.com/showthread.php?t=17243
 
  • #48
Hi:

First question come to my mind after passing on your father nice and elegant work is: Maybe there are solution to x^n+y^n=z^2 that can come not from his geometrical attitude to the case n=2. I will continue to learned his work.

Best
Moshek
:smile:
 
  • #49
Digiflux:

Have you got already any respond from A.Willes who solved this problem after he fix his mistake , to your father geometric attitude to this problem?

Moshek
 
  • #50
My Father's Theorem

Moshek:

Thanks for your kind words regarding my father's theorem. If he were still alive, I have no doubt that he would clearly answer all of your questions. I am an artist, so I cannot.

My father sent Wiles a copy but he received NO REPLY, and Princeton is conveniently, no longer reviewing Fermat proof submissions . They don't want to lose the notoriety that they have received from The Wiles "Proof". I put "proof" in quotes because, the Wiles "proof" is so complex that only a handful of people on the planet claim to understand it and they could be wrong. It's as big as a phone book and Wiles had a committee of Princeton mathematicians helping him. I don't buy it. The Wiles "proof" SUCKS.

My father had this proof for decades in his head and finally decided to write it down.

Thanks also to everyone who has studied and commented on my father's work.
 
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  • #51
Posted by matt grime
***************
yes, it;s a conspiracy, damn you you've figured it out, we're all charlatans and your father an unrecognized genius that puts us all to shame... oh, please. how, if your father's work is so simple (and wiles's so hard) can you not figure out what it was and answer questions on it? any mathematician would be able with sufficient time and inclination learn and defend Wiles's proof. :zzz: :zzz:
***************
Reply:

Princeton has gotten tremendous publicity from Wiles and his bogus "proof". That means $ pour in. They ARE protecting their crybaby, Wiles.

Which independent mathematicians have confirmed Wiles proof? None that I know of. You are just taking Wiles word on faith. Faith and math don't mix. Yer not one of those "creation evidence" religious nuts are you?
 
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  • #52
digiflux said:
Princeton has gotten tremendous publicity from Wiles and his bogus "proof". That means $ pour in. They ARE protecting their crybaby, Wiles.

Sure, hardly anyone had even heard of Princeton before Wiles. :rolleyes:

This was the first time I saw this thread and I was honestly considering giving your fathers work a read until I saw your last two posts. Your attitude and conspiracy theory is counter productive to your goal of publicising your fathers work. If it's correct then it will stand on it's own without you crying foul about how Wiles proof is just a "proof" because you can't understand it. If you want to prove Wiles proof is wrong you'll have to find an error in his work, otherwise you're just spouting unfounded slander that really has nothing to do with whether your fathers work is correct or not and it's not motivating me to help you in any way.

By the way, even if a simple proof does turn up someday it will in no way diminish Wiles accomplishment, he will always be the first to have tackled the problem. So he (and the manipulating overlords at Princeton) really would have no reason to supress such a thing. They, and I'm sure many other universities, probably don't review submissions on Fermat anymore because of the sheer volume of attempts and the historic waste of time it's been to find errors in random submissions. I would bet that the announcement of a proof inaccessible to people not willing to do the work required to understand it has only furthur motivated elementary attempts.

Before you claim that I'm a "defender of the faith" let me say something about my belief of Wiles proof. It's been around for quite some time and has been read and understood by people much smarter than I am, and much more qualified to find errors. No errors have been found to date. Mathematicians are pretty ruthless when it comes to finding errors in proofs, so I'm pretty confident that it's correct. However if my life, or even just my own work, was dependant on the proofs correctness you can be sure that I would do everything possible to verify it on my own. As it is I'm satisfied to be "pretty confidant".
 
  • #53
If it matters, I deleted my post before that reply came in because i thought it overly aggressive. perhaps i was correct in that assumption given your borderline libellous reply but incorrect to remove it.

Back to the same old misunderstandings from the non-mathemticians (I do love being told what mathematics is by someone who knows nothing about it).

wiles's proof has undergone peer review, but of course by other mathematicians so in your opinion it cannot be correct for they cannot be independent (anyone capable of understanding it on first reading is too dependent on wiles one presumes from your assertion that no 'independent' verifiers exist).

incidentally, any mathematician would be happy to find an error in wiles's proof, and many will hve poured through it to see how he came up with an idea they missed, they would then be even happier to find a correction as happened with the original version.

i am not taking wiles's word, i am taking that of the mathematical community whom i respect and who have had the proof availiable to read for several years now and who have publisehd it in a perr reviewed jounral. this does not mean it cannot be incorrect and no mathematician would ever say otherwise, but maths isn't quite the cut and dried subject you appear to think it is. Please feel free to look through the proof and find an error in it. just because you don't understand it means others cannot. (of course he didn't prove FLT directly he proved that all semistable elliptic curves are modular, but I'm sure you knew that). it is a long and difficult proof but it certainly appears correct. Devlin wrote an interesting article on the soundness of mathematical proofs in his AMA articles once.
 
  • #54
Digiflux,

sorry, but according to the comments in the guest book (at
http://books.dreambook.com/pokerface/fermatproof.html [Broken] ),
your father's proof is wrong.
 
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<h2>What is Fermat's Last Theorem?</h2><p>Fermat's Last Theorem is a famous mathematical conjecture proposed by Pierre de Fermat in the 17th century. It states that no three positive integers a, b, and c can satisfy the equation an + bn = cn for any integer value of n greater than 2.</p><h2>Why is Fermat's Last Theorem important?</h2><p>Fermat's Last Theorem is important because it has been one of the most famous and elusive problems in mathematics for over 350 years. Many mathematicians have attempted to prove or disprove the theorem, and it has led to significant advancements in number theory and algebraic geometry.</p><h2>What is the validity of my father's proof for Fermat's Last Theorem?</h2><p>Without knowing the specific details of your father's proof, it is impossible to determine its validity. However, it is important to note that Fermat's Last Theorem has been rigorously proven by Andrew Wiles in 1995, using advanced mathematical techniques that were not available during Fermat's time.</p><h2>How can I verify the validity of a proof for Fermat's Last Theorem?</h2><p>If you are not an expert in mathematics, it is best to consult with a mathematician or submit the proof to a reputable mathematical journal for peer review. It is also important to note that even if a proof appears valid, it may still contain errors that can only be discovered through rigorous scrutiny.</p><h2>What are some common misconceptions about Fermat's Last Theorem?</h2><p>One common misconception is that Fermat himself had a proof for the theorem, which he famously claimed in the margin of his copy of Arithmetica. However, there is no evidence to support this claim, and it is more likely that Fermat was mistaken or simply teasing other mathematicians. Another misconception is that the theorem only applies to positive integers, when in fact it can be extended to include other types of numbers such as rational and complex numbers.</p>

What is Fermat's Last Theorem?

Fermat's Last Theorem is a famous mathematical conjecture proposed by Pierre de Fermat in the 17th century. It states that no three positive integers a, b, and c can satisfy the equation an + bn = cn for any integer value of n greater than 2.

Why is Fermat's Last Theorem important?

Fermat's Last Theorem is important because it has been one of the most famous and elusive problems in mathematics for over 350 years. Many mathematicians have attempted to prove or disprove the theorem, and it has led to significant advancements in number theory and algebraic geometry.

What is the validity of my father's proof for Fermat's Last Theorem?

Without knowing the specific details of your father's proof, it is impossible to determine its validity. However, it is important to note that Fermat's Last Theorem has been rigorously proven by Andrew Wiles in 1995, using advanced mathematical techniques that were not available during Fermat's time.

How can I verify the validity of a proof for Fermat's Last Theorem?

If you are not an expert in mathematics, it is best to consult with a mathematician or submit the proof to a reputable mathematical journal for peer review. It is also important to note that even if a proof appears valid, it may still contain errors that can only be discovered through rigorous scrutiny.

What are some common misconceptions about Fermat's Last Theorem?

One common misconception is that Fermat himself had a proof for the theorem, which he famously claimed in the margin of his copy of Arithmetica. However, there is no evidence to support this claim, and it is more likely that Fermat was mistaken or simply teasing other mathematicians. Another misconception is that the theorem only applies to positive integers, when in fact it can be extended to include other types of numbers such as rational and complex numbers.

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