1^100 + 0^100 = 1^100 !!
note that this is the famous Fermat's Last Theorem... unsolved for centuries... recently proved by Wiles
2006-09-28 12:29:41
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answer #1
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answered by m s 3
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Divide through n^a on each and each area a million + n^(b - a) = n^(c - a) n^(b - a) + a million = n^(c - a) we are able to component this. (n + a million)(n^(b - a - a million) - n^(b - a - 2) ... ) = n^(c - a) enable n^(b - a - a million) - n^(b - a - 2) ... = S S(n + a million) = n^(c - a) S = n^(c - a) / (n + a million) S must be an integer if a, b, c, n are integers. for the reason that n^(c - a) only has n as an element, n + a million can not be an element. If n + a million isn't an element, S isn't an integer, for this reason a, b, c, n can not be integers. ----- EDIT: as a results of Lobosito's edit, i will edit my answer. n^(b -a) = n^(c - a) - a million we are able to component the RHS and then from branch through n - a million, we instruct that a, b, c, n are not to any extent further integers.
2016-11-24 23:55:58
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answer #2
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answered by mccullun 4
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According to Calculus, any number over 11 can be considered infinity. As long as any 2 of the variables (a, b, and c) are greater than 1 this would be true, would it not?
2006-09-27 18:27:28
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answer #3
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answered by Anonymous
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Fermat's last theorem. Proof is too complicated. But it states that if a,b,c are integers then a^n + b^n = c^n is not possible for n>2.
This is what you want, don't you?
2006-09-27 18:30:25
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answer #4
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answered by astrokid 4
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Prove it yourself. Then tell me what infinity + 1 equals.
2006-09-27 18:21:15
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answer #5
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answered by MaqAtak 4
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The answer is 42
2006-09-27 18:15:46
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answer #6
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answered by Jimmy 4
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lol =))
2006-09-27 18:21:45
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answer #7
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answered by thereturnofveveritzaproasta 3
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