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For 18 years, I had been believing that the maximum value of x^{1/x} for any value of x is 1.444667861 approximately, that is when x=e.
This afternoon, I realised this is true only for integal values of x.
When x belongs to Real Numbers, there is no upper limit for the value of
This can be seen from the following illustration:-
When
In general,
when x=-1x10^n, x^{1/x} would be equal to n x 10^n.
Hence, as the negative real number n gets closer to zero, the value of x^{1/x} tends to increase indefinitely!
It appears to me that if one wants to make progress in mathematics, one should study the masters and not the pupils. - Niels Henrik Abel.
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This afternoon, I realised this is true only for integal values of x.
Wrong. It is true for all positive real values of x.
In general,
when x=-1x10^n, x^{1/x} would be equal to n x 10^n.
Wrong.
which is complex (not a real number) for .Youre probably thinking of
. It that case it would be equal to [Dickinson]\left(10^n\right)^{10^n}\ (n\in\mathbb{Z}^+)[/Dickinson].In fact
, so itt better not to define the function for negative x.Last edited by JaneFairfax (2008-05-27 04:17:46)
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