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Mike Tate Mathematics

Modular Harmonic Framework

Modular Harmonic Framework

Recursive Structures • Resonance Fields • Modular Lattices

1. Introduction

The Erdős–Straus decomposition reveals a harmonic substructure when interpreted through modular resonance. The reciprocal terms behave like interacting frequencies constrained by arithmetic curvature.

\[ \frac{4}{n}=\frac{1}{a}+\frac{1}{b}+\frac{1}{c} \]

Each admissible triple corresponds to a stable resonance configuration within a modular field.

2. Bernoulli Phases

Bernoulli numbers act as phase regulators governing curvature decay across modular lifts.

\[ \frac{t}{e^t-1}=\sum_{k=0}^\infty B_k\frac{t^k}{k!} \]

Their structure encodes frequency attenuation and harmonic signature.

3. Harmonic Modularity

Modular residue classes interact as resonance bands, producing interference patterns across congruence strata.

\[ \Psi(n)=\{(a,b,c)\in\mathbb{Z}^3 \mid 4abc=n(ab+ac+bc)\} \]

Result: a harmonic lattice whose density varies predictably with prime factorization.

4. Faulhaber Braiding

Faulhaber sums introduce braid-like constraints across p-adic modular space, ensuring global coverage without redundancy.

\[ S_{p^k}=\{n\bmod p^k\mid\Psi_n\neq\varnothing\} \]

Modular Harmonic Interference Field