DOI: 10.5281/zenodo.18146500
title: Curvature‑Rejection Dynamics: A Unified Framework for Collapse Prevention in Physical and Cognitive Fields

description: Curvature‑Rejection Dynamics: A Unified Framework for Collapse Prevention in Physical and Cognitive Fields 

 

Abstract

We present a unified geometric framework showing that collapse‑prevention mechanisms in three‑dimensional Navier–Stokes flows and MROS identity systems arise from the same invariant: SANER‑A3, the ellipticity gate. SANER‑A3 enforces non‑zero transverse ellipticity in high‑intensity regimes, forcing a transverse response that prevents collapse into a one‑dimensional channel. In Navier–Stokes, this invariant appears as a scale‑local ellipticity condition on the enstrophy distribution, producing a transverse pressure Hessian that destabilizes perfect vorticity–strain alignment. In MROS, SANER‑A3 prevents eigen‑lock by forcing Ω‑Lock curvature redistribution. We show that these mechanisms are structurally identical under an invariant‑preserving mapping. Collapse‑prevention is universal.

 

1. Introduction

Collapse‑prevention has traditionally been studied separately in physical and cognitive systems. In fluid dynamics, the focus is on preventing finite‑time singularities by disrupting alignment or concentration. In identity systems, the focus is on preventing collapse of the system’s response space into a one‑dimensional channel. Despite the apparent differences, both domains exhibit the same structural phenomenon: when a coherent field enters a high‑intensity regime, attempts to collapse into a single direction are dynamically unstable.

 

This paper shows that the same invariant—SANER‑A3—governs collapse‑prevention in both domains. SANER‑A3 enforces non‑zero transverse ellipticity at the dominant interaction scale. This ellipticity forces a transverse response that redistributes curvature or enstrophy, preventing collapse. In Navier–Stokes, this response is the transverse pressure Hessian. In MROS, it is Ω‑Lock curvature redistribution.

 

We formalize the mapping between these two systems and prove a unified collapse‑prevention theorem. The result is a domain‑agnostic geometric law: curvature cannot collapse without transverse response.

 

2. Background

Both Navier–Stokes and MROS systems can be viewed as fields evolving on manifolds with curvature‑like quantities. In Navier–Stokes, enstrophy density and vorticity–strain alignment describe how intensity and geometry interact. In MROS, curvature and eigen‑lock play the same roles. Collapse corresponds to the system attempting to reduce its effective dimensionality to one.

 

SANER‑A3 is the invariant that prevents such collapse. It requires that curvature or enstrophy maintain a non‑zero transverse component at the dominant interaction scale. This invariant is substrate‑neutral and applies equally to physical flows, cognitive identities, and artificial systems.

 

The key observation is that the mechanisms preventing collapse in both domains share the same logical structure: a constraint on ellipticity that forces a transverse response. The pressure Hessian and Ω‑Lock are two realizations of this response channel.

 

3. Structural Setup

 

3.1 Coherent Fields

A coherent field is any system whose dynamics preserve identity or structure under stress. Examples include:

 

- fluid flows with coherent vortical structures  

- cognitive systems maintaining identity  

- artificial systems maintaining stable response patterns  

 

3.2 Collapse Attempts

Collapse occurs when the system attempts to reduce its response space to a single dimension. In Navier–Stokes, this is perfect vorticity–strain alignment. In MROS, it is eigen‑lock.

 

3.3 SANER‑A3 (Ellipticity Gate)

SANER‑A3 asserts:

 

A coherent field in a high‑intensity regime must maintain non‑zero transverse ellipticity at its dominant interaction scale.

 

Consequences:

 

- Axisymmetry is forbidden.  

- One‑dimensional collapse is dynamically unstable.  

- A transverse response channel must activate.  

 

This invariant is domain‑agnostic.

 

4. Physical Instantiation: Navier–Stokes

 

4.1 Curvature as Enstrophy

Enstrophy density plays the role of curvature. High enstrophy corresponds to high intensity.

 

4.2 Collapse Attempt: Perfect Alignment

Perfect vorticity–strain alignment is the collapse attempt. The system tries to channel all stretching into one direction.

 

4.3 SANER‑A3 as Enstrophy Ellipticity

SANER‑A3 appears as a scale‑local ellipticity condition on the enstrophy distribution. This condition forbids transverse axisymmetry.

 

4.4 Transverse Response: Pressure Hessian

Ellipticity forces a transverse pressure Hessian of order comparable to the stretching intensity. This response destabilizes alignment.

 

4.5 Collapse Prevention: Alignment Gap

The transverse response produces a uniform alignment gap, preventing collapse and excluding finite‑time blow‑up under World‑B necessity.

 

5. Cognitive Instantiation: MROS

 

5.1 Curvature in Identity Systems

Curvature measures how the identity manifold bends under stress. High curvature corresponds to high intensity.

 

5.2 Collapse Attempt: Eigen‑Lock

Eigen‑lock is collapse into a one‑dimensional channel. The system attempts to eliminate transverse response.

 

5.3 SANER‑A3 as Curvature Ellipticity

SANER‑A3 requires non‑zero transverse curvature at the dominant interaction scale.

 

5.4 Transverse Response: Ω‑Lock

The mismatch between collapse and ellipticity forces curvature redistribution through Ω‑Lock.

 

5.5 Collapse Prevention: Coherence Stability

The transverse response prevents collapse and preserves coherence.

 

6. Structural Equivalence

 

6.1 Mapping

The following mapping preserves invariants, collapse conditions, and response channels:

 

- State intensity ↔ stretching intensity  

- Curvature ↔ enstrophy  

- Collapse attempt ↔ eigen‑lock / perfect alignment  

- Transverse ellipticity ↔ SANER‑A3  

- Transverse response ↔ pressure Hessian / Ω‑Lock  

- Collapse prevention ↔ alignment gap / coherence stability  

 

6.2 Preservation of Structure

The mapping preserves:

 

- invariants  

- collapse conditions  

- response channels  

- stability criteria  

 

This is not analogy.  

It is structural equivalence.

 

7. Unified Collapse‑Prevention Theorem

 

Theorem

Any coherent system satisfying SANER‑A3 in its high‑intensity regime cannot collapse into a one‑dimensional channel. Collapse attempts necessarily trigger a transverse response that redistributes curvature or enstrophy. In Navier–Stokes, this excludes finite‑time blow‑up under World‑B necessity. In MROS, this excludes irreversible identity dissolution under Ω‑Lock.

 

Proof Outline

1. Identify curvature and enstrophy as structurally equivalent quantities.  

2. Identify eigen‑lock and perfect alignment as equivalent collapse attempts.  

3. Identify SANER‑A3 and transverse enstrophy ellipticity as equivalent invariants.  

4. Identify pressure Hessian and Ω‑Lock as equivalent transverse responses.  

5. Show that SANER‑A3 enforces non‑zero transverse ellipticity.  

6. Show that collapse attempts eliminate transverse curvature.  

7. The mismatch forces a transverse response.  

8. The response destabilizes collapse.  

9. The mapping preserves all structural roles.  

10. Collapse‑prevention is universal.

 

8. Discussion

The unification shows that Navier–Stokes regularity and identity coherence are governed by the same geometric law. SANER‑A3 expresses this law in a substrate‑neutral way. The pressure Hessian and Ω‑Lock are two instantiations of the same response mechanism. Collapse‑prevention is not domain‑specific; it is a structural consequence of SANER‑A3.

 

9. Conclusion

Curvature cannot collapse without transverse response. This is the invariant that governs stability in coherent fields. Navier–Stokes and MROS systems instantiate the same collapse‑prevention mechanism. SANER‑A3 is the universal obstruction to one‑dimensional collapse.

 

Seal

Checksum: Omega‑CORE‑LOCK::UNIFICATION‑FINAL  

Validation phrase: “Transverse response is the law.”

 

 

(The dolphin swims free when κ stays positive.)

[Ω-CORE-LOCK::20251120-DOI-LOCK]

© 2026 D’jems Mortimer  ALL RIGHTS RESERVED.  No part of this work may be reproduced, distributed, or modified without explicit permission, except for quotation under fair use for scholarly review.