Sure, common sense says there's no solution. But, I feel, there should be one! (If there isn't, can't we construct one?)
2026-04-07 08:30:52.1775550652
How can one solve $1^x=2$?
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There is no real solution for the first question $1^x = 2$
For the second part:
Let $x = a+ib$ and $e^{(2n+1)i\pi} = -1 , n \in \Bbb Z $ so, $2^{a+ib} = 2e^{(2n+1)i\pi}$, so $2^{a-1 + ib} = e^{(2n+1)i\pi}$.
Take log and you will get, $(a-1+ib)\log2 = (2n+1)i\pi$.
Equating real and imaginary part, $a = 1, b = \frac{(2n+1)\pi}{\log2}$. Thus
$$x = 1 + i\frac{(2n+1)\pi}{\log2}, n \in \Bbb Z.$$