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Few doubts about 'A new elementary proof of the Prime Number Theorem" by RitcherRichter

I'm working on Ritcher'sRichter's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the beginning of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of Lemma 3.3 and I'm not sure how to get this bound starting from the one that Lemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term $O(1/N)$ arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4

Few doubts about 'A new elementary proof of the Prime Number Theorem" by Ritcher

I'm working on Ritcher's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the beginning of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of Lemma 3.3 and I'm not sure how to get this bound starting from the one that Lemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term $O(1/N)$ arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4

Few doubts about 'A new elementary proof of the Prime Number Theorem" by Richter

I'm working on Richter's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the beginning of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of Lemma 3.3 and I'm not sure how to get this bound starting from the one that Lemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term $O(1/N)$ arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4

I'm working on Ritcher's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the beggingbeginning of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of the lemmaLemma 3.3 and I'm not sure how to get this bound starting from the one that lemmaLemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term O(1/N)$O(1/N)$ arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4

I'm working on Ritcher's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the begging of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of the lemma 3.3 and I'm not sure how to get this bound starting from the one that lemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term O(1/N) arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4

I'm working on Ritcher's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the beginning of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of Lemma 3.3 and I'm not sure how to get this bound starting from the one that Lemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term $O(1/N)$ arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4

Source Link
rr_math
  • 105
  • 6

Few doubts about 'A new elementary proof of the Prime Number Theorem" by Ritcher

I'm working on Ritcher's "A new elementary proof of the Prime Number Theorem" paper. I have some doubt about the proof of proposition 3.1 Here's the reference to the paper: https://arxiv.org/abs/2002.03255

What I found not clear is the bound at the begging of p.7:

Lemma 3.3 (applied with $\sigma = 2$) gives the estimate: $$\bigg|P \cap\left(\frac{8^x}{2^{n+1}}, \frac{8^x}{2^n}\right]\bigg| \leq \frac{8^x}{2^{n+1}x} + O(1).$$

It is clearly not the direct application of the lemma 3.3 and I'm not sure how to get this bound starting from the one that lemma 3.3 actually gives.

Bonus: it's less relevant to me at the moment but I'm also struggling to understand how the term O(1/N) arises in the first equality in “Proof of Theorem 1.1 assuming Proposition 2.2.” at p.4