https://youtu.be/wGCjGiDbgZM?si=XqIfVbhKwnlfaBNo https://youtu.be/71tHX8I-VK0?si=M7r6gDOhzt1h1ph4 Prime numbers are traditionally defined as integers divisible only by one and themselves.While this arithmetic definition is precise, it does not explain why prime numbers appear at specific locations along the number line. In this work, prime numbers are reformulated as structural events rather than arithmetic objects. The central idea is to reinterpret the natural number axis in a logarithmic phase framework.Within this framework, the numerical signal is decomposed into two components: a monotone reference trend representing global growth an oscillatory phase component representing local fluctuations Prime numbers are identified as phase reference intersection events,that is, points where the oscillatory phase aligns with the underlying reference structure. This approach leads to the following conclusions: Prime numbers are not random occurrences Their distribution reflects geometric constraints in log phase space Classical results such as the prime number theorem emerge as structural consequencesrather than probabilistic assumptions The reformulation does not rely on divisibility tests or number theoretic axioms.Instead, it provides a geometric and dynamical interpretation of prime occurrencebased on phase alignment and structural crossings. This work offers a new perspective on prime numbers,framing them as inevitable events arising from the geometry of logarithmic phase oscillations.
Seunghyun Hong (Thu,) studied this question.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: