Question.
I am investigating the behavior of non-linear iterated maps acting on a 496-dimensional real symmetric matrix space, specifically focusing on how Clifford-Lie algebra components stabilize under trace regularization.
Intriguingly, when constraining the initialization via the adjoint representation of the exceptional Lie group E8 and factoring in discrete icosahedral topological invariance, the resulting steady-state eigenvalues automatically yield numerical fractions that precisely mirror the empirical cosmological density parameters (Baryon, Dark Matter, and Dark Energy ratios) as well as the inverse fine-structure constant. This convergence occurs deterministically without invoking standard Friedmann differential equations or any fine-tuning.
I am seeking academic insight on the following points:
1. Are there documented mathematical precedents in non-perturbative string theory or matrix mechanics where the trace-regularization of an SO(496) matrix naturally establishes a stable fixed-point attractor that aligns with cosmological parameters?
2. Does this purely algebraic convergence suggest an implicit index theorem or a hidden anomaly cancellation mechanism within the high-dimensional transcendental geometry?
The fully operational computational scripts and step-by-step tensor derivations are archived for verification and can be provided immediately upon request. Thank you for your constructive guidance.