The Riemann Hypothesis as Topological Necessity: The Critical Line Is the Equator of a Standing Wave
Abstract
A proof of the Riemann Hypothesis from two ingredients: the chiral topology of the completed zeta function ξ(s) and the mutual incommensurability of the prime numbers. The functional equation and conjugation symmetry of ξ are shown to constitute a chiral wave identity, making σ = 1/2 the equatorial axis of symmetry — the unique structurally stable balance locus. Each prime is identified as an irreducible angular generator occupying its own independent dimension, with distinct primes sharing no common period. This incommensurability prevents phase-locking into any off-critical cancellation configuration — the exact mechanism that Davenport–Heilbronn functions, built from commensurable frequencies, exploit to produce off-critical zeros. The proof uses the Sondow–Dumitrescu monotonicity equivalence (2010) and the Hadamard product structure of ξ to reduce the Riemann Hypothesis to the non-existence of off-critical balance events. The chiral topology and prime independence together close the argument. This paper is part of the Dimensional Oscillation Theory series. Companion papers deriving the imaginary unit from wave persistence and establishing the prime angular alphabet are referenced and their key results reproduced within.
Fields of Study & Subjects
History and Theory of Mathematics
Analytic Number Theory Research
Algebraic and Geometric Analysis
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 6 April 2026
- Document type
- Preprint