Research programme

The Tesfa Grid research programme.

A unified investigation of prime distribution through a single geometric construction of the Tesfa Grid. The programme is carried out by an independent researcher in Addis Ababa and has produced, to date, eleven proved theorems across three volumes.

What is the Tesfa Grid?

The Tesfa Grid is a structured matrix construction parameterized by an offset, a common difference, and a column count. The construction itself is purely geometric independent of any property of the sequence used to populate it. Structural theorems are proved at the geometric level first, and once proved they hold regardless of what sequence is used as input.

The full construction rule, including the placement procedure and the proofs that depend on it, is set out in Volume I (preprint available; full peer-reviewed version forthcoming) and in the applied work documented in Volume III (in preparation).

The programme's central question is: when the prime sequence is used as input to this geometric construction, what interactions visible, measurable, provable arise between the structure of the grid and the structure of the primes?

The three volumes

Each volume is a standalone monograph with its own scope, theorems, and numerical experiments. Together they form a unified research programme now in its twelfth year.

Volume I - The Tesfa Grid: A Deterministic Harmonic Sieve

Establishes the grid's algebraic and spectral foundations. Nine theorems, including the Column Closure Law, the Row-6 Structural Prime Exclusion, the Block Divergence Theorem, the Mod-6 Gap Constraint, and the Harmonic Sieve Theorem. Introduces the Tesfa Wave and the formal statement of the Tesfa-Zeta Conjecture.

→ Read Volume I

Volume II - Empirical Evidence for the Tesfa-Zeta Conjecture

First direct experimental test of the Tesfa-Zeta Conjecture. Three independent spectral methods applied across five grid widths. Lomb-Scargle peaks align with Riemann zeta zeros at sub-0.1 accuracy. Matched-filter statistics find 10 of 30 zeros significant at p < 0.001.

→ Read Volume II

Volume III - The Multi-Level Gap Hierarchy In preparation

Extends the framework to the fine structure of prime gaps. Scale Invariance (Theorem X), Perfect Number Classification (Theorem XI), the Mean Convergence Law, and the Prime Oscillation Law. Applied prediction material will be released separately under appropriate intellectual-property protection.

→ Volume III page

Methodology

Algebraic proof

Every structural theorem of the grid (Theorems I–V, VII, VIII, IX) has an algebraic proof. These are short, checkable, and require no probabilistic reasoning.

Statistical verification

Every empirical claim is stated as a hypothesis test with explicit null, test statistic, and p-value. 300 randomized controls per reported result is a typical baseline.

Adversarial controls

All significance claims include specificity controls: shuffled inputs, random-gap surrogates, Gaussian noise. Where controls eliminate the signal, the signal is reported as structurally dependent on the prime sequence.

Conjecture discipline

Conjectures are labeled. The Tesfa-Zeta Conjecture and the Prime Oscillation Law are stated explicitly as open conjectures supported by empirical evidence, not as theorems.

Engage with the research

If you work in number theory, spectral analysis, or discrete geometry or are a student looking for a research direction; we would be glad to hear from you.

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