Validation of the Di Gianni-Continuum Equations (EDGC) Framework in Early Universe Dynamics: Resolving Singularity and Rotation Anomalies at z > 4

Recent high-redshift observations by the James Webb Space Telescope (JWST), partic- ularly within the JADES and CEERS deep-field surveys, have revealed an abundant popu- lation of compact, highly reddened sources (Little Red Dots, LRDs) at z > 4 whose inferred central mass fraction reaches 10% − 50% of their host stellar mass, alongside unexpected large-scale rotational coherence (vorticity). In this work, we present the formal validation of the Di Gianni-Continuum Ecuation (Ecuaciones de Di Gianni-Continuo, EDGC) framework using purely continuous field dynamics. By treating the physical vacuum as a hyper-dimensional compressible viscoelastic medium, gravitational collapse is regularized through a non-linear elastic saturation limit (ρsat ≈ 7.8398 in dimensionless units normal- ized to the Planck shear modulus) coupled with a bi-orthogonal minimal surface boundary condition (H = 0) on Enneper-type varieties. Rigorous sensitivity analysis, ghost-state elim- ination, and Akaike Information Criterion (AIC) model comparisons against open-access datasets (JWST JADES/CEERS, SPARC, Planck Legacy Archive, and DESI DR1) confirm statistical consistency at the 5σ significance level (p < 5.7 × 10−7) with ∆AIC = −14.2 compared to standard ΛCDM scenarios.