UOR Foundation / PrimeOS working group
Resonance Logic (RL) internalises the CCM maxim "truth ≙ conservation." A statement is as true as the resonance it conserves. Consequently, Boolean values
Two meta‑goals
UOR Foundation / PrimeOS working group
Resonance Logic (RL) internalises the CCM maxim "truth ≙ conservation." A statement is as true as the resonance it conserves. Consequently, Boolean values
Two meta‑goals
| Keystone | Why it matters | Impact |
|---|---|---|
| Unity constraint α₄×α₅=1 | Creates Klein V₄ orbit, 96-value resonance spectrum, 3/8 compression | Foundation of all CCM structure |
| 24→48→96 cascade | Defines generator→mediator→manifestation roles; proves μ²=γε | Universal structural pattern |
| Coherence axioms A1-A3 | Ground RSF waves in grade-orthogonal norm & symmetry preservation | Mathematical completeness |
| SP primes p≡±1(mod 12) | Characterize safe moduli for cascades & DLog algorithms | Modular arithmetic foundation |
| Numbers↔Waves (RSF) | Resonance R(b)=∏αᵢ^{bᵢ}; primes appear as unit-norm pure tones | Computational paradigm shift |
We present the Resonance Synthesis Framework (RSF), a novel mathematical architecture that reconceptualizes arithmetic and algebraic operations as wave synthesis and interference phenomena. By treating mathematical objects as waveforms in a high-dimensional space and operations as signal processing, RSF discovers rather than imposes arithmetic structures. The framework naturally exhibits quantum mechanical properties through its analog synthesis approach, enabling superposition, interference, and entanglement-like behaviors. We demonstrate how this wave-based approach achieves logarithmic-time factorization and reveals deep connections between number theory, harmonic analysis, and quantum computation.
Traditional approaches to computational mathematics treat numbers as discrete entities and operations as mechanical procedures. The Resonance Synthesis Framework (RSF) fundamentally reimagines th
The PrimeOS Addressing system assigns every possible bit pattern a unique coordinate in mathematical space. Objects of different bit-lengths exist in different coordinate spaces within a 12,288-element mathematical universe.
Just as traditional storage systems offer block, object, and file representations of data, resonance-based storage provides multiple complementary views of the same underlying information. Each representation optimizes for different access patterns while maintaining the core resonance addressing.
This document presents a novel approach to information storage and retrieval based on the Universal Language specification's concept of mathematical resonance. Unlike traditional content-addressing or location-based storage systems, resonance-based storage computes an intrinsic "frequency" for each piece of information based on its semantic field pattern. This approach unifies content and context, enables natural semantic clustering, and reveals deep connections to spectral graph theory and fundamental physics. We detail the theoretical foundations, practical implementation, and transformative implications of this paradigm.