First public release: April 2026
Author: Matti S. Kärki
A dynamical resonance framework for modeling the nontrivial zeros of the Riemann zeta function.
Vortex Operator Theory (VOT) is a research program exploring whether the zeros of the Riemann zeta function can be understood as outcomes of a prime-driven dynamical system.
Instead of treating zeros as static spectral points, VOT models them as:
emergent structures of a constrained resonance field
The framework integrates:
- arithmetic input (primes)
- dynamical signal ( A_0(t) )
- local spectral geometry
- vortex-based structure (shell / 0-point / flow)
- event system (anchor / bridge / transition)
- hybrid modeling (global + local mechanisms)
- and now: a rigorous spectral operator core
VOT is explicitly divided into two layers:
-
Prime input: [ K(t) = \sum_{p,k} \log p , \delta(t - k \log p) ]
-
Dynamic field: [ \frac{dA_0}{dt} = -\alpha A_0 + \beta \sin(\omega t) K(t) ]
-
Operator: [ H = -i \frac{d}{dt} + \frac12 + A_0(t) ]
Goal:
- derive zeta zeros from spectral properties of ( H )
- connect to ( \xi(1/2 + iE) )
- Gaussian-windowed local spectrum (STFT)
- purity functional ( \mathcal P(T,\omega) )
- dynamic programming → drifting paths
- multi-layer, multi-arc model
- zero-zone detection (interval-based)
Each local structure is interpreted via:
- Shell → local resonance layer
- 0-point → attractor center
- Flow → directional alignment
Event roles:
shell_contact(anchor)shell_approach(bridge)shell_transitionshell_failure
The current best-performing structure:
final model = V1 backbone + local corrections
Components:
- V1 → global scaffold (scales better)
- precision → sharp local corrections
- rescue → flexible adjustment
- local_rescue → targeted fixes
Each zero is assigned:
- mode: V1 / precision / rescue / local_rescue
- role: shell_contact / shell_approach / etc.
- shell: S1–S5
Zeros are not homogeneous.
- majority → shell_contact
- minority → shell_approach
- rare → rescue-required
| zeros | @1.0 | @1.5 |
|---|---|---|
| 20 | 17 | 18 |
| 100 | 62 | 70 |
| 300 | 151 | 178 |
| 1000 | 248 | 308 |
Interpretation:
- purely local models degrade with scale
- hybrid structure improves robustness
- global scaffold (V1) is essential
We now have a formal operator-theoretic core:
From purity functional: [ \mathcal P(T,\omega) ]
\frac{1}{\beta}\log\int e^{\beta \mathcal P(T,\omega)},d\omega ]
then: [ V_\beta(T) = -F_\beta(T) ]
and operator: [ H_\beta = -\frac{d^2}{dT^2} + V_\beta(T) ]
If ( \mathcal P \in C^2 ) on a compact domain:
- ( V_\beta \in C^2 \subset L^\infty )
- ( H_\beta ) is self-adjoint
- spectrum is discrete
👉 This is the first rigorous mathematical core of VOT.
- 0-points → maxima of (F_\beta)
- maxima → minima of (V_\beta)
- minima → spectral localization
- construction of self-adjoint operator ( H_\beta )
- discrete spectrum
- well-defined potential from ( \mathcal P )
- vortex structure
- hybrid scaling behavior
- zero classification patterns
[ \mathrm{spec}(H_\beta) \stackrel{?}{=} {\gamma_n} ]
This is the exact RH-critical step.
preprint/
vot_preprint_arxiv_style.html
vot_formal_core_spectral.html
data/
zero_classification.json
scaling_results.json
notes/
state_summary.txt
- a structured research program
- a hybrid of empirical + theoretical work
- a candidate framework for RH-related structure
- not a proof of RH
- not a finished theory
- not parameter-free
-
spectral approximation: [ \lambda_n(H_\beta) \approx \gamma_n ]
-
shell invariants
-
large-scale classification (1000+ zeros)
-
operator reconstruction from ( A_0 )
VOT suggests:
- zeros arise from structured arithmetic dynamics
- multiple mechanisms coexist
- global + local structure is necessary
Recommended:
- CC BY 4.0 or
- MIT (if code-focused)