Kharakov
Quantum Hot Dog
I'm thinking that e is transcendental because it contains every prime, by definition. Of course, since I said this before I watched the video, maybe I'm wrong. I'm always at least half right.
Pi is transcendental because it de-transcendentalizes e (e's function), which means it has every prime encoded in it, which means it is transcendental (it's really completely natural, but don't say that to a mathematician).
This also means that the nested root \(\sqrt{2+\sqrt{2+\sqrt{2+\sqrt{2+}}}} \, \dots\) has every prime encoded in it... except maybe 2 is the infinitesimalestiest (thus deepest) prime in this encoding. I conclude this because of the function to generate pi from the nested root, which multiplies 2^k (k being the number of nestings) times 2-nested root (which means 2 is the deep prime that you need to multiply tons of... or the prime that the pi needs the most....
\(\pi = \, \lim_{k\to\infty} \, 2^k \, \times \, \sqrt { 2 \, - \, \sqrt{2+\sqrt{2+\sqrt{2+\sqrt{2+ \,\dots }}}}}\)
Pi is transcendental because it de-transcendentalizes e (e's function), which means it has every prime encoded in it, which means it is transcendental (it's really completely natural, but don't say that to a mathematician).
This also means that the nested root \(\sqrt{2+\sqrt{2+\sqrt{2+\sqrt{2+}}}} \, \dots\) has every prime encoded in it... except maybe 2 is the infinitesimalestiest (thus deepest) prime in this encoding. I conclude this because of the function to generate pi from the nested root, which multiplies 2^k (k being the number of nestings) times 2-nested root (which means 2 is the deep prime that you need to multiply tons of... or the prime that the pi needs the most....
\(\pi = \, \lim_{k\to\infty} \, 2^k \, \times \, \sqrt { 2 \, - \, \sqrt{2+\sqrt{2+\sqrt{2+\sqrt{2+ \,\dots }}}}}\)