Author:
Lazarev, Sergiu Vasili
Category:
Research Papers
Sub-Category:
Mathematics and Applied Mathematics
Date Published:
October 2, 2025
Keywords:
Navier–Stokes Regularity; Millennium Problem; NMSI; Dynamic Zero; Oscillatory Forcing; Exponential Operator; Turbulence Modeling; Hypersonic Flows; Generalized Poincaré–Hopf Theorem; Fluid Dynamics; Subquantum Oscillations
Abstract:
This paper consolidates two augmented approaches to the Millennium Problem of Navier–Stokes Regularity under the NMSI framework. The first variant introduced the cyclic oscillatory forcing operator (π*) and the intermittent dissipation tensor (γ_diss), ensuring global smoothness by bounding energy and enstrophy. The second variant extended this framework with the exponential stabilization operator (e), providing a mathematically rigorous mechanism for exponential damping of instabilities and enabling broader applicability to atmospheric, hypersonic, and astrophysical turbulence.
Additionally, we generalize the Poincaré–Hopf theorem by introducing the novel concept of dynamic zero, which reframes singularities not as static breakdowns but as transient oscillatory nodes, dynamically redistributed in phase space. This unifies recent results on unstable singularities (e.g., PINN-discovered Navier–Stokes profiles) with the NMSI-augmented framework, offering a coherent interpretation across mathematics, physics, and cosmology.
The paper presents analytical derivations, numerical benchmarks (Taylor–Green vortices, hypersonic blunt-body flows), and comparative RMSE validation against experimental data. Results show consistent stabilization and boundedness, with RMSE reductions of 30–47% in hypersonic test cases. .../...
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