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Feb 4, 2011 at 7:01 vote accept Asterios Gkantzounis
Feb 5, 2011 at 21:50
Feb 2, 2011 at 22:38 comment added David Roberts Corrected spelling in title. It was irking me...
Feb 2, 2011 at 22:38 history edited David Roberts CC BY-SA 2.5
Corrected spelling in title
Jan 29, 2011 at 9:19 vote accept Asterios Gkantzounis
Jan 30, 2011 at 8:12
S Jan 29, 2011 at 9:19 vote accept Asterios Gkantzounis
Jan 29, 2011 at 9:19
Jan 26, 2011 at 23:04 vote accept Asterios Gkantzounis
S Jan 29, 2011 at 9:19
Jan 25, 2011 at 7:57 vote accept Asterios Gkantzounis
Jan 25, 2011 at 11:49
Jan 24, 2011 at 6:42 vote accept Asterios Gkantzounis
Jan 24, 2011 at 16:38
Jan 24, 2011 at 6:39 vote accept Asterios Gkantzounis
Jan 24, 2011 at 6:40
Jan 24, 2011 at 6:28 vote accept Asterios Gkantzounis
Jan 24, 2011 at 6:28
Jan 23, 2011 at 10:39 history edited Asterios Gkantzounis CC BY-SA 2.5
deleted 10 characters in body
Jan 23, 2011 at 8:20 history edited Asterios Gkantzounis CC BY-SA 2.5
added 11 characters in body
Jan 22, 2011 at 22:22 answer added Aaron Meyerowitz timeline score: 5
Jan 22, 2011 at 21:01 answer added JSE timeline score: 5
Jan 22, 2011 at 19:27 comment added Mark Bennet @carl - correct, continued fractions.
Jan 22, 2011 at 19:17 comment added Carl Feynman I think what the previous commenter meant was the best rational approximation to $ln(a)/ln(b)$. (See en.wikipedia.org/wiki/…)
Jan 22, 2011 at 17:26 history edited Asterios Gkantzounis
edited tags
Jan 22, 2011 at 17:09 comment added Mark Bennet So we have $a^{m} = c + b^{n}$ or approximately $m\ln(a) = n\ln(b)$ (with c small) and convert $ln(b)/ln(a)$ to partial fractions to get some potentially good values of m and n.
Jan 22, 2011 at 15:39 history edited Asterios Gkantzounis CC BY-SA 2.5
added 13 characters in body
Jan 22, 2011 at 15:28 history asked Asterios Gkantzounis CC BY-SA 2.5