Recursive Collapse Scaffold Resolving the Navier–Stokes Global Regularity Problem

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Auteur principal: Pryately, Carney Shea
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Publié: Zenodo 2025
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author Pryately, Carney Shea
author_facet Pryately, Carney Shea
contents <p>This work introduces the Recursive Collapse Scaffold Function Ψ(x,t), a novel recursive energy stabilizer that guarantees global regularity for the 3D incompressible Navier–Stokes equations. Ψ(x,t) encodes local enstrophy and bounded time recursion, detecting collapse motifs (Flat Loop) and triggering symbolic recovery (Spiral Recursion). The proof shows that Ψ is bounded and differentiable, allowing the reconstruction of a smooth velocity field u(x,t) for all time. Collapse is reframed as a recursive failure of memory, and Ψ provides its structural resolution. This result resolves the Clay Millennium Problem of smoothness and existence in the Navier–Stokes equations.</p> <p><strong>Commercial use of this code, method, or results requires written permission.</strong><br>For licensing, partnership, or commercial inquiries, please contact the author directly: </p> <p>Email: carney.shea@outlook.com</p>
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spellingShingle Recursive Collapse Scaffold Resolving the Navier–Stokes Global Regularity Problem
Pryately, Carney Shea
navier-stokes
recursive collapse
flat loop
spiral recovery
enstrophy
smoothness
turbulence
PDE
nonlinear systems
memory regulation
global regularity
<p>This work introduces the Recursive Collapse Scaffold Function Ψ(x,t), a novel recursive energy stabilizer that guarantees global regularity for the 3D incompressible Navier–Stokes equations. Ψ(x,t) encodes local enstrophy and bounded time recursion, detecting collapse motifs (Flat Loop) and triggering symbolic recovery (Spiral Recursion). The proof shows that Ψ is bounded and differentiable, allowing the reconstruction of a smooth velocity field u(x,t) for all time. Collapse is reframed as a recursive failure of memory, and Ψ provides its structural resolution. This result resolves the Clay Millennium Problem of smoothness and existence in the Navier–Stokes equations.</p> <p><strong>Commercial use of this code, method, or results requires written permission.</strong><br>For licensing, partnership, or commercial inquiries, please contact the author directly: </p> <p>Email: carney.shea@outlook.com</p>
title Recursive Collapse Scaffold Resolving the Navier–Stokes Global Regularity Problem
topic navier-stokes
recursive collapse
flat loop
spiral recovery
enstrophy
smoothness
turbulence
PDE
nonlinear systems
memory regulation
global regularity
url https://doi.org/10.5281/zenodo.15651300