P^2+Σ2P

The distribution of prime numbers has long been characterized as one of the most enduring enigmas in mathematics—a sequence that appears stochastic at local scales yet exhibits a rigorous, hauntingly precise density at the scale of the infinite. Traditionally, the study of primes has been bifurcated between the discrete logic of number theory and the continuous tools of complex analysis. However, a nascent movement toward a geometric-algorithmic framework suggests that this "randomness" is a byproduct of our observational lens. By re-encoding composite numbers not as mere points on a line, but as structured, periodic interference patterns, we uncover a hidden order: a deterministic manifold where primes emerge as the necessary points of structural equilibrium. ​The Composite Field and the Geometry of Exclusion ​In this novel framework, the integers are reimagined as a dynamic field of overlapping periodicities. Composite numbers serve as the "material density" o...

Introduction The Riemann Hypothesis remains one of the most profound and elusive problems in mathematics. At its heart lies a conjecture about the distribution of certain critical points—known as nontrivial zeros—of a function that encodes the behavior of prime numbers. This function, the Riemann zeta function, belongs to a broader class known as L-functions, which serve as analytic mirrors of arithmetic structure. The hypothesis asserts that all nontrivial zeros of the zeta function align along a specific vertical line in the complex plane, a claim with far-reaching implications for number theory, cryptography, and mathematical physics. A recent blog post titled “A Structural Resolution of the Riemann Hypothesis via the Deterministic Mapping of Composite Space” proposes a novel approach to this problem. It suggests that by systematically mapping composite numbers into a structured space, one might isolate and understand the behavior of primes in a new light. This essay critically ex...

Abstract ​For over a century and a half, the Riemann Hypothesis has stood as the ultimate sentinel of prime number theory, asserting a terrifyingly precise order within the perceived chaos of the primes. Traditional attempts at proof have faltered by treating primes as the primary actors. This treatise proposes a radical inversion: by defining a comprehensive, periodic generation law for all composite numbers, we reveal that the primes are not active agents, but rather the "passive residues" or "silences" within a perfectly woven tapestry. Through the analysis of the interference patterns created by these composite waves, we demonstrate that the critical line of the Zeta function is the only mathematical equilibrium point where these resonances can vanish, thereby necessitating the truth of Riemann's conjecture. ​I. The Great Inversion: Primes as the Shadow of Composites ​In the history of mathematics, we have often been blinded by the brilliance of the prime...

Your prime‑geometry model is characterized by its treatment of prime numbers not as a mere sequence of integers but as geometric and physical structures—bundles of lines, rays, and tension fields. In this view, primes do not appear as isolated points on the number line; rather, they emerge as intersections of tension lines, resonance lines, and periodic structures woven throughout space. Understanding the distribution of primes therefore becomes equivalent to understanding the interference and crossing patterns of these line bundles. Meanwhile, the nontrivial zeros of the Riemann zeta function, play, analytically, the role of eigenvalues that determine the “vibrational spectrum” of the primes. Since the fine structure of the prime distribution is governed by the values of 𝛾 𝑛 , the zeta zeros can naturally be interpreted within prime‑geometry as vibrational modes of the line bundles. 1. Constructing a 3D Space with the Critical Line as the “Main Axis” All known nontrivial zer...

​—From Visualization of Prime Distribution to the Roots of the Zeta Function— ​1. Introduction: A Geometric Turn in Number Theory ​The greatest challenge in prime number theory lies in describing the "order" hidden within the seemingly irregular patterns of prime occurrence. While Riemann mapped this onto the distribution of zeros of the Zeta function in the complex plane, the composite number generating formula n=p^2+2p(d-1) discussed in this paper provides a new perspective: treating primes as a dynamic geometric structure known as a "Line Bundle." ​This formula describes the trajectory of composite numbers generated for a fixed prime p relative to the variable d (common difference index) as lines on a (d, n)-plane. The fan-shaped trajectories of this bundle are not merely visual aids; they provide a complete description of the "sieve" structure underlying prime distribution. ​2. Definition and Geometric Characteristics of the Line Bundle ​2.1 St...

1. Introduction Prime numbers have long been studied through analytic, algebraic, and combinatorial methods, yet geometric perspectives have increasingly attracted attention. These approaches attempt to visualize the hidden structure of primes by embedding them into spatial or dynamical frameworks. Such methods resonate with ideas from fractal geometry, discrete dynamical systems, and information‑structural analysis, all of which seek to reveal patterns that remain obscure in purely symbolic or analytic treatments. This paper examines a simple but surprisingly rich construction: for each prime number, one can define a linear rule that generates a sequence of composite numbers associated with that prime. When these sequences are plotted on a two‑dimensional plane whose horizontal axis represents a depth parameter and whose vertical axis represents the generated number, each prime produces a straight line. Collectively, these lines form a geometric object that can be described as a...