We are stuck since the use of randomness can take us only so far unless we are extremely lucky!
There could be many or all hypersurfaces in [tex]k_{below } \le k \le k_{above}[/tex] that do not have integral solutions for T(X) in that range
Guest wrote:We are stuck since the use of randomness can take us only so far unless we are extremely lucky!
There could be many or all hypersurfaces in [tex]k_{below } \le k \le k_{above}[/tex] that do not have integral solutions for T(X) in that range.
Guest wrote:We believe David Hilbert's Tenth Problem is closed!
Go Blue!
Guest wrote:Guest wrote:We believe David Hilbert's Tenth Problem is closed!
Go Blue!
Oops! The problem is open! There's much to learn...
Guest wrote:FYI: We generate our data from our equation (see polyDE100.pdf for details of T(X) where
k = 8 472 827 925 723 497 279 079 825 725 896 743 212 537 092 151 545 454 399 977 711 146 464 646 464 645 272 151 245 423 102 640 450 424 554 210 121 024 221 004 240 012 421 214)
by randomizing the integral vector, X, such that
T(X) - k < t * k where t = 0.1, .01, .001, etc.
We are now aware of the limits of this process, but we will our best to gather sufficient data for a detailed analysis via a spreadsheet.
Good luck!
Guest wrote:Have we constructed a sound halting criterion for Hilbert's Tenth Problem?
Users browsing this forum: No registered users and 4 guests