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Sep 14 at 14:04 vote accept pie
Aug 18 at 21:04 comment added Achim Krause (sorry, I meant $\tfrac{\pi}{2}-(\tfrac{\pi}{2})^{-n}$ and its negative)
Aug 17 at 13:01 answer added Achim Krause timeline score: 10
Aug 17 at 12:36 comment added Achim Krause You're missing some zeros, I believe: one located near $\pi/2-(\pi/2)^n$, and another one located near $-\pi/2+(\pi/2)^n$ for odd $n$. They must exist because of the intermediate value theorem, since $\tan(z)-z^n$ becomes positive again near $z=\pi/2$. My guess is you're not seeing these numerically since the numbers become huge there. (And I guess your code also doesn't go into that region)
Aug 17 at 9:35 history edited Max Lonysa Muller CC BY-SA 4.0
fixed the title
Aug 17 at 7:16 history edited pie CC BY-SA 4.0
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Jul 31 at 12:05 history edited pie CC BY-SA 4.0
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Jul 29 at 19:20 history edited pie CC BY-SA 4.0
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Jul 29 at 19:20 comment added Steven Stadnicki It very much feels to me like the small-$n$ values are 'accidental' and that the behavior should be exactly $n$ roots for all $n$ greater than some single-digit value. I'm not sure there's really a 'deeper meaning' here other than that the values of $\tan z$ and $z^n$ are just comparable enough for small $n$ to lead to this sort of accident.
Jul 29 at 19:13 history edited pie CC BY-SA 4.0
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Jul 29 at 19:00 history edited pie CC BY-SA 4.0
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Jul 29 at 9:54 history edited pie CC BY-SA 4.0
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Jul 29 at 9:49 history edited pie CC BY-SA 4.0
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Jul 29 at 9:39 history edited pie CC BY-SA 4.0
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Jul 29 at 6:03 history asked pie CC BY-SA 4.0