Re: JSH: One of the great relations?
- From: amy666 <tommy1729@xxxxxxxxxxx>
- Date: Sat, 27 Sep 2008 20:28:37 EDT
JSH wrote :
On Sep 27, 4:43 pm, "Achava Nakhash, the Loving
Snake"
<ach...@xxxxxxxxxxx> wrote:
On Sep 27, 10:02 am, JSH <jst...@xxxxxxxxx> wrote:the ring of
I found it quite profound that now I know that in
the solutions of oneintegers, given
x^2 + Dy^2 = F
I also know that
z^2 + D(x+y)^2 = F*(D+1)
This is interesting (to me at least). It relates
Diophantine equation to the solutions of anotherDiophantine
equation. I would find it easier to understandwhat you are doing if
you explained what z was instead of leaving it tothe reader to figure
out. As for its significance, see below.chain, where if the
which is the start of what I call a Diophantine
solutions for x and y,original equation has an infinite number of
you have a finitethen you have an infinite chain, but otherwise
chain.
Have you proved the above claim?
Conjectured.
z explicitly in termsOne poster has already replied derisively giving
looks like such aof x, y and D which kind of puzzled me as it just
with one solution atbeautiful result to me.
Like with D=-2, you have:
x^2 - 2y^2 = 1, followed by z^2 - 2(x+y)^2 = -1
and the next in the series is
w^2 - 2(x+y+z)^2 = 1
so you just get this flipping back and forth, and
so with x=3, and y=2,the start you can get the solutions that follow,
you haveyou have next that
z^2 - 2(5)^2 = -1, so z^2 = 49, so z=7, and then
= 289 and w=17.
w^2 - 2(3+2+7)^2 = 1, so w^2 - 2(144) = 1, so w^2
solutions to a related
And you can do that forever.
So in this particular case, you can generate
Pell equation and maybe more solutions to theoriginal Pell equation.
You still have to show that you get differentsolutions, although this
is probably not difficult. If you played aroundwith the solutions of
x^2 - Dy^2 = 1 a great deal (here D is a positivesquare-free
integer), you would find that the x's are thevalues of a particular 2-
term linear recursion and the y's are values ofexactly the same
linear recursion. This would give you another wayof generating new
solutions from old. At some point the mathematicalworld realized
that representing a solution (x, y) as (x +y*sqrt(D)) gave you the
really fascinating discovery that the solutions inthis form were
closed under multiplication, and that you couldgenerate all solutions
as powers of the solution with the smallest valuethat is still larger
than 1. At some point along the way, it wasdemonstrated that every D
(remember positive and square-free) had solutions.The mathematical
world was then poised to make siginificantgeneralizations. By the
way, the solutions to x^2 - Dy^2 = F, representedin the same way as
above, can be given more solutions by multiplyingthem by the
solutions to the equation with F = 1. I am leavingout the role
played by letting F = 4, -1, and -4 for some valuesof D, but the
ideas are pretty much the same.divides off so I have
I play with equations now like
7^2 - 5(3)^2 = 4
so I know that
z^2 - 5(10)^2 = 4*(-4)
and can get z then is 22, and notice that 4
off 16, and get
11^2 - 5(5)^2 = -4, so
w^2 - 5(16)^2 = 16, so w=36, and you can divide
9^2 - 5(4)^2 = 1.
So is it one of the great relations?
Sorry. Not even close.
Really? What if I told you that it's fairly easy to
give a general
method now for SOLVING
x^2 - Dy^2 = F
using it?
One that just requires the Chinese Remainder Theorem?
discoveries. More of myx^2 + Dy^2 = F
requires that
z^2 + D(x+y)^2 = F*(D+1).
Or am I just in love with one more of my
It is a nicemath?
Precisely. It is the scratching of the surface.
relationship of the sort that can be the startingpoint of some
research but no more. An experienced mathematicianis familiar with
work of incredibly greater depth and with what hasbeen learned about
this problem and similar problems. Thus he is notgoing to be wowed
by a technically simple and quite unoriginalll,meaning that this kind
Yeah I suggest to you that math people HATE simple,
which is where I
think you finally got something right.
More complexity allows pedantic behavior like you
displayed in your
reply though I wonder if the solution question
knocked any of that
proud arrogance off of you?
My analysis is that mathematicians crave complexity
because difficult
explanations can fuel more research and keep more
jobs, for
mathematicians.
I call it white collar welfare.
i partially agree , but must not that complexity must grow by time to avoid repetition of old math.
i.e. sometimes complexity is necc for progress.
of manipulation has been used gazillions of timesbefore and so the
method itself is not anything new. Not to say thatthere is anything
wrong with using old methods to solve new problems.You just get more
credit when you use original methods.
Like using a technique that I call tautological
spaces where I use
expressions like
x+y+vz = 0(mod x+y+vz)?
i have used 0 mod ' something ' quite often myself.
i like it , though i dont know if you use it in the same manner as i do.
it sure seems underestimated doing 0 mod ' something ' , ill grant you that.
So that I can have an additional degree of freedom so
that v is a free
variable?
And subtract equations to be analyzed from identities
in that way so
that I can probe them by adjusting my free variable?
Yet you dismiss my research as trivial and
pontificate about all this
research I'm supposed to read done by old geezers
long dead who don't
have work that interests me.
I think people like you are more like antique
collectors than
discoverers.
It's not the knowledge you crave but the SOCIAL stuff
around the
knowledge, like trying to look smart before an
audience by babbling
about the obsolete work of dead people who used to do
math.
thats trolling ...
James Harris
regards
tommy1729
.
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