Abstract
We develop a unified analytic–geometric and spectral–dynamical framework linking algebraic geometry, dynamical systems, and analytic number theory. Smooth projective varieties are embedded into a canonical host space, producing coordinates naturally aligned with Hodge structures. Prime irregularities appear as entropy-weighted perturbations driving collapse flows, which evolve under Ricci-type dynamics into fixed points corresponding to algebraic cycles. The induced transfer operators admit compact resolvent and polynomial growth bounds, ensuring spectral discreteness and analytic continuation. Their zeta-regularized determinants reproduce the classical invariants of the Riemann ζ-function, including the Euler product, analytic continuation, functional equation, and vertical growth estimates.
In this light, geometry, entropy, and number cease to be separate phenomena; they are but one analytic continuum whose resonance the ζ-function merely remembers.
This framework establishes a direct spectral correspondence between collapse dynamics and the distribution of ζ’s nontrivial zeros, while situating algebraic cycle geometry and Hodge structures within a single analytic–dynamical architecture.



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