Re: Deciphering JSH
- From: "mensanator@xxxxxxxxxxx" <mensanator@xxxxxxx>
- Date: 19 Sep 2006 16:19:28 -0700
Gene Ward Smith wrote:
David C. Ullrich wrote:
It _can't_ mean that. Because there are plenty of people with
PhD's who say the results are wrong (to the extent that they
can figure out what the results _are_, anyway).
To the extent it can be figured out at all, I think you should start
here:
Consider the binary form in x and y (v^3+1)*x^3-3*v*x*y^2+y^3. By
setting x=1, we get an affine version of this, which is a polynomial in
Q(v); that is, a polynomial with coefficients in
an indeterminate v: y^3-3*v*y^2+v^3+1. Now ignore all the useless
bells and whistles introducing m, f, and u. The above polynomial has
discriminant 27*(v^3+1)*(3*v^3-1), and
at v = -1, we can expand the roots in Puiseux series. One of these
expansions will be unramified, involving powers of (v+1), and the other
two are ramified, involving powers of sqrt(v+1). The unramified branch
mutates into the distinguished root on specializing v
Well, duh!
.
- References:
- JSH: The "Published" paper he dosen't what you to know about.
- From: Sue
- Re: JSH: The "Published" paper he dosen't what you to know about.
- From: jstevh
- Re: JSH: The "Published" paper he dosen't what you to know about.
- From: David C . Ullrich
- Deciphering JSH
- From: Gene Ward Smith
- JSH: The "Published" paper he dosen't what you to know about.
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