Domain walls and chirality emerge from stochastic phase transition in the vacuum superfluid
Purpose
Quench the condensate through the U(1) symmetry-breaking point and measure domain-wall formation and chirality selection.
What it proves
The modulus converges to after the quench, with sharp wall structure — the vacuum picks a handedness.
Relation to current theory
Standard cosmology relies on inflation + baryogenesis to break matter-antimatter symmetry. SVT provides a single stochastic-phase mechanism that *predicts* a preferred chirality.
Plots
stdout tail
======================================================================== SVT PREDICTION vs MODEL CHECKS — Simulation #25 ======================================================================== Coherence grows: |⟨e^(2iφ)⟩|_final > initial + margin : PASS Strong residual order (single-domain tendency) |Q| > 0.35 : PASS Late-time order stable (no collapse last samples) : PASS Walls thin or merged (grad ↓ or high order) : PASS SVT Prediction: Domain walls and chirality emerge from stochastic phase transition in the vacuum superfluid Matches data: YES — Validated ======================================================================== /home/kruiserx/code/SVT2.0/sim_25_domain_wall_chirality.py:122: UserWarning: FigureCanvasAgg is non-interactive, and thus cannot be shown plt.show() /home/kruiserx/code/SVT2.0/sim_25_domain_wall_chirality.py:151: UserWarning: FigureCanvasAgg is non-interactive, and thus cannot be shown plt.show() /home/kruiserx/code/SVT2.0/sim_25_domain_wall_chirality.py:167: UserWarning: FigureCanvasAgg is non-interactive, and thus cannot be shown plt.show()