Question
Asked 13th Sep, 2019

Is there is any instant iterative formula to calculate non-trivial zeros of Riemann zeta function ?

Compute nontrivial zeros of Riemann zeta function is an algebraically complex task. However, if someone able to prove such an iterative formula can be used to get all approximate nontrivial using an iterative formula, then its value is limitless.How ever to prove such an iterative formula is kind of a huge challenge. If somebody can proved such a formula what kind of impact will produce to Riemann hypothesis? . Also accuracy of approximately calculated non trivial accept as close calculation to non trivial zeros ?
Here I have been calculated and attached first 50 of approximate nontrivial using an iterative such formula that I have been proved. Also it is also can be produce millions of none trivial zeros. But I am very much voirie about its appearance of its accuracy !!. Are these calculations Is ok?

All Answers (2)

Michael Milgram
Geometrics Unlimited, Ltd.
In a paper that can be found on arXiv or at , LeClair gives a reasonably accurate algorithm to estimate the non-trivial zeros up to 10^200=Googol^2. My paper that can be found at Cogent Mathematics, on arxiv or RG
gives an estimate that bounds the n'th zero and checks LeClairs result for the number Googol. Although both these are not iterative, and work only for non-trivial zeros that sit on the critical line, they are predictive and easily calculated. Once a zero is estimated, or bounded, it's accurate value can then be found from formula given.
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Seeking Expert Feedback on Whether My Novel Chaotic Operator Resolves the Riemann Hypothesis ?
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  • Rafik ZeraouliaRafik Zeraoulia
Dear esteemed mathematicians,
I am excited to share with you our recent research exploring novel chaotic dynamics derived from the Riemann and von Mangoldt function formula, specifically focusing on the distribution of nontrivial zeros of the Riemann zeta function. Our findings are detailed in the paper accessible through the following link:
Here is the abstract of my paper:
In our study, we investigate the behavior of these dynamics by computing Lyapunov exponents, revealing chaotic behavior within a certain threshold of gaps between zeros, up to 2.4. Additionally, we introduce a new chaotic operator for the Riemann zeta function within the critical strip, incorporating the correction term from the Riemann-von Mangoldt formula. We establish the chaotic nature and Hermiticity of this operator, alongside discussing its diagonalization properties.
Furthermore, our research uncovers intriguing parallels between our derived chaotic operator and the quantum hydrogen model, as indicated by the similarity of its eigenvalues to the energy levels of hydrogen. Various numerical analyses, including Lyapunov exponents, bifurcation analysis, and entropy computation, highlight the unpredictable nature of the system.
Moreover, we establish a connection between our chaotic operator and the prime number theorem concerning the density of primes. Importantly, our investigation suggests strong support for the validity of the Riemann hypothesis through this chaotic operator, aligning with propositions made by Hilbert and Polya.
These findings illuminate the intricate interplay between chaotic dynamics, number theory, and quantum mechanics, providing fresh insights into the behavior of the Riemann zeta function and its zeros. We further demonstrate the Hermiticity and diagonalization properties of our operator using the spectral theorem, offering deeper understanding into its mathematical characteristics and unboundedness.
We invite your valuable insights and expertise on our research findings and hypotheses. Your comments and critiques would be greatly appreciated in refining and validating our work.
Thank you for considering our research

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