Timeline for Difficulty with "A new elementary proof of the Prime Number Theorem" by Richter
Current License: CC BY-SA 4.0
11 events
when toggle format | what | by | license | comment | |
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7 hours ago | comment | added | rr_math | If you are interested in the answer to the question In the comments you can check it up there: mathoverflow.net/questions/484247/…. Thanks again to @conrad for the help | |
7 hours ago | comment | added | Conrad | put the answer for that | |
8 hours ago | comment | added | rr_math | thank you in advance | |
8 hours ago | comment | added | rr_math | Since you are already familiar with the paper, if you don't mind giving me an hand with another part of it, I have some doubt about the proof of proposition 3.1. In particular, when he estimates the number of primes in $$(\frac{8^x}{2^{n+1}},\frac{8^x}{2^n})$$. I'm not sure if the estimations is right to begin with, cause the application of the lemma itself would give a different bound | |
Dec 12 at 21:26 | vote | accept | rr_math | ||
Dec 12 at 15:54 | history | edited | Conrad | CC BY-SA 4.0 |
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Dec 12 at 15:41 | history | edited | Conrad | CC BY-SA 4.0 |
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Dec 12 at 15:36 | history | edited | Conrad | CC BY-SA 4.0 |
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Dec 12 at 11:12 | comment | added | rr_math | i understand your answer but still I'm not 100% sure about this identity $$O(\epsilon^2 8^n/n)+\epsilon^{-3}o(\epsilon^4 8^n/n)=o(\epsilon 8^n/(2n)).$$ If it doesn't bother you could explain to me how did you get the RHS from the LHS?. @conrad | |
Dec 11 at 6:13 | vote | accept | rr_math | ||
Dec 12 at 11:12 | |||||
Dec 10 at 17:42 | history | answered | Conrad | CC BY-SA 4.0 |