Current published reading edition · 2026-06-13
The Riemann Hypothesis by Exclusion of the Prime-Trace Amplitude Separator
Amos Jay Maley · 73 pages
This archive contains The Riemann Hypothesis by Exclusion of the Prime-Trace Amplitude Separator, a full audit-grade manuscript presenting an AASC endpoint-rigidity proof route for the Riemann Hypothesis through explicit-formula scale discrimination.
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Amos Jay Maley. The Riemann Hypothesis by Exclusion of the Prime-Trace Amplitude Separator. 2026-06-13. DOI: 10.5281/zenodo.20673768.
SHA256 ddcd6143a417c26c7c30936f808f9109bf999b1ad08755e684267605b83a13cc
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This archive contains The Riemann Hypothesis by Exclusion of the Prime-Trace Amplitude Separator, a full audit-grade manuscript presenting an AASC endpoint-rigidity proof route for the Riemann Hypothesis through explicit-formula scale discrimination.
The manuscript frames the Riemann Hypothesis as the positive endpoint
∀ρ (Aζ(ρ)⇒Lcrit(ρ)),\forall \rho \, (A_\zeta(\rho) \Rightarrow L_{\mathrm{crit}}(\rho)),∀ρ(Aζ(ρ)⇒Lcrit(ρ)),
where Aζ(ρ)A_\zeta(\rho)Aζ(ρ) denotes nontrivial zeta zerohood and Lcrit(ρ)L_{\mathrm{crit}}(\rho)Lcrit(ρ) denotes critical-line readout. The proof proceeds by analyzing the ordinary off-line branch through the explicit-formula prime-trace amplitude interface.
Core Proof Route
The manuscript develops a proof strategy based on the following route:
fixes the official RH endpoint on the zeta / prime-trace carrier;
uses the standard explicit-formula zero-to-prime-trace correspondence;
identifies critical-line zeros with neutral critical-normalized amplitude order;
identifies off-line zerohood with non-neutral critical-normalized amplitude order;
distinguishes descriptive off-line amplitude content from endpoint-standing counterexample force;
classifies endpoint-standing non-neutral amplitude as amplitude separator occupation;
applies AASC endpoint-use discipline, ATS anchor–tensor–skin locking, UEAP report discipline, and no-independent-discriminator closure;
derives a local contradiction for the live off-line countercase;
discharges the exact-complement assumption and universally generalizes to the RH endpoint.
Methodological Position
The manuscript does not introduce or rely on:
a new zero-free region;
a zero-density estimate;
a positivity criterion;
a Hilbert–Polya operator;
a random-matrix theorem;
numerical verification;
a redefinition of the zeta carrier.
Instead, the proof class is presented as kernel-forced prime-trace amplitude separator exclusion. The central nonclassical dependency is the endpoint-use thesis: official endpoint-defeating counterexample force is treated as theorem-bearing endpoint use. Once this dependency is fixed, the remaining argument is developed as target instantiation, explicit-formula role projection, native-counterforce exhaustion, and local endpoint closure.
Audit and Formalization Support
The manuscript includes extensive audit infrastructure, including:
an endpoint proof spine;
theorem ladders and anti-circularity checks;
hostile-referee objection matrices;
route-locus exhaustion tables;
notation and corpus-support ledgers;
a Lean4 RH endpoint audit appendix.
The Lean4 appendix is presented as proof-spine audit support for the endpoint-role surface, not as a first-principles formalization of analytic number theory.
Intended Use
This deposit is intended for readers evaluating the AASC endpoint-rigidity proof framework, the explicit-formula amplitude route, and the manuscript’s role-theoretic treatment of counterexample force, endpoint use, and prime-trace amplitude separator exclusion
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