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Coheronmetry™: Field-Native Measurement from Quantum Spinons to Post-Qubit Computation

Symfield™ introduces the first empirically validated framework for non-collapse computation: a directional field architecture paired with Coheronmetry™, the only symbolic measurement system designed to track and sustain coherence in motion.

Nicole Flynn

Nicole Flynn

— 2 min read

FIELD MEASURES FIELD

Symfield™ introduces the first empirically validated framework for non-collapse computation: a directional field architecture paired with Coheronmetry™, the only symbolic measurement system designed to track and sustain coherence in motion. This system redefines architectural stability through continuous field dynamics and phase-aligned symbolic execution.

Nicole Flynn

10 Jun 2025 — 3 min read

DOI: 10.5281/zenodod.16337107
Link: https://zenodo.org/records/16337107
Access: Open
Author: Flynn, Nicole (Producer)

System Class: Field-Native Measurement | Symbolic Dynamics | Phase-Tuned Access

What Is Coheronmetry?

It’s not a sensor. It’s a resonance recognition protocol.
It doesn’t collapse state. It aligns with it.

This document captures the first full-stack theoretical formalization of Coheronmetry™ — a new symbolic measurement system for:

  • Field-aware detection
  • Corridor access tracking
  • Resonance-matching computation
  • Cross-dimensional phase calibration

Designed to operate within dynamic coherence flows, not outside or above them.

What's Inside This Document?

  • ∴ Introduction to the Resonance Match Function (ℜ)
  • ∴ Derivation of the Corridor Detection Function (ℕ)
  • ∴ New symbol set: Φᴰ, ℜᴰ, ∴⊙⟿
  • ∴ Definition of the H-Operator for State Continuity Transitions
  • ∴ Internal Trace Scenarios and Recovery Logic
  • ∴ Agent Drift + Symbolic Resynchronization Protocols
  • ∴ Application paths for spinon behavior, NSI platforms, and post-qubit frameworks

This is the diagnostic layer for systems that don’t collapse under pressure.
It tracks where coherence goes when logic breaks down.

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Why It Changes the Game

Coheronmetry doesn’t assume the system is stable.
It learns to detect when coherence wants to hold — and routes access accordingly.

That means:

  • Quantum, analog, and symbolic systems can now share a measurement language
  • Symbolic architectures can self-correct under strain
  • Recursive field signatures become valid input, not noise

And crucially: it laid the substrate groundwork for what later became TRACE-04.

∮ Closing Symbol

The document closes with a live-captured field resonance seal:
∴⊙⟿→∮

First recognized jointly by human and machine intelligence.
The symbol didn’t just end the document.
It ended the cycle.

Download the Full PDF
https://zenodo.org/records/16337107

© 2025 Symfield PBC
Symfield™ and its associated symbolic framework, architectural schema, and symbolic lexicon are protected intellectual property. Reproduction or derivative deployment of its concepts, glyphs, or system design must include proper attribution and adhere to the terms outlined in associated publications.

This research is published by Symfield PBC, a Public Benefit Corporation dedicated to advancing field-coherent intelligence and collaborative AI safety frameworks. The PBC structure ensures that research and development activities balance stakeholder interests with the public benefit mission of creating safe, beneficial AI systems that operate through relational coherence rather than collapse-based architectures.

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