Timeline for More on Vojta's exceptional set for a more general abc conjecture
Current License: CC BY-SA 3.0
8 events
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Dec 27, 2014 at 18:23 | comment | added | joro | @FelipeVoloch Indeed the question is answered. If you disagree with limsup, check the argument about t^4 vs t^(3+o(1)) which I believe still stands. | |
Dec 27, 2014 at 18:00 | comment | added | Felipe Voloch | $q < 1 + \epsilon$ outside of $Z_{\epsilon}$ so $q \le 1$ outside of the union of all $Z_{\epsilon}$. The original ABC which I guess is $n=3$ in your notation doesn't have an excepcional set, you only need it for $n>3$. Meanwhile Michael answered your question. | |
Dec 27, 2014 at 12:25 | vote | accept | joro | ||
Dec 27, 2014 at 12:09 | answer | added | Michael Stoll | timeline score: 4 | |
Dec 27, 2014 at 12:03 | comment | added | joro | @FelipeVoloch from the abc records database: math.leidenuniv.nl/~desmit/abc "The ABC conjecture says that the limsup of the quality when we range over all ABC triples, is 1" | |
Dec 27, 2014 at 12:01 | comment | added | joro | @FelipeVoloch Are you sure? I am taking logs(), which kills all epsilons. If in abc you get limsup bigger than one, this will certainly disprove abc. | |
Dec 27, 2014 at 11:45 | comment | added | Felipe Voloch | Your interpretation that $\limsup q = 1$ outside a Zariski closed subset is incorrect. For every $\epsilon > 0$ there is a Zariski closed subset but it depends on $\epsilon$. As $\epsilon \to 0$ the union of these Zariski closed subsets may well be Zariski dense. I haven't looked at your example to see if in fact that's what you are getting. | |
Dec 27, 2014 at 11:34 | history | asked | joro | CC BY-SA 3.0 |