-Navier-Stokes-2D: 2D Spectral Simulation with Chronoviscosity Hypothesis
Year: 2026
Type: article
Abstract: The "Immersive Armor" Effect: Why Time Might Stop for Jupiter’s Great Red Spot Why do some chaotic structures endure for centuries? Jupiter’s Great Red Spot (swipe for NASA Juno images) has raged for at least 350+ years amid violent atmospheric turbulence. Standard fluid dynamics models often require complex fine-tuning to explain such longevity. We propose a radical yet simple mechanism: Chronoviscosity — time itself acts as an adaptive medium. We tested this in a comparative 2D spectral Navier-Stokes simulation (Re ≈ 10⁴) under the Kovalevich-Logos hypothesis: Dτ/Dt = exp(-K₀ |ω|²) (Local proper-time dilation in high-vorticity zones) Comparing Standard NS vs. Chrono-NS (see the Dashboard below), we confirmed three critical effects: 1. Immersive Armor (Stabilization)Vortex cores in Chrono-NS remain coherent and shielded longer. The "temporal barrier" protects against chaotic erosion. Notice the smoother, more concentrated structures on the right map in the dashboard. Physical meaning: The vortex creates a bubble of slowed time, blocking external noise. 2. Statistical Safety Cut-offThe Probability Density Function (PDF) reveals a crucial difference:- Standard NS: Heavy tails — high probability of extreme events and potential blow-ups.- Chrono-NS: Sharp exponential suppression. No "monster vortices" survive. Conclusion: The system self-limits. Mathematical singularities are physically prohibited by chrono-adaptation. 3. Adaptive Energy FilteringThe energy spectrum confirms that Chrono-NS acts as an intelligent low-pass filter. It damps small-scale noise (high k) while reinforcing the inverse cascade to large scales. Verdict:The code confirms the theory. Time is not a passive background — it is an active, adaptive medium that acts as the ultimate shock absorber for reality. GitHub: https://github.com/maksymkovalevych/Chrono-Navier-Stokes-2D
Author: Kovalevych, Maksym
Language: English
Subfield: Computational Mechanics
Field: Engineering
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7124736071
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