Elastic Universe Theory (TUE): from a single nonlinear field to SM observables, electroweak precision, and high-scale quasi-unification

We present a closed pipeline that maps the Elastic Universe Theory (TUE)—a single nonlinear scalar-elastic field with SU(4) symmetry—into Standard Model (SM) observables at the electroweak scale and up to high energies. The workflow: (i) define the TUE Lagrangian, symmetry breaking via Landau synchronization, and the effective operator basis; (ii) run a renormalization-group (RG) block with thresholds; (iii) calibrate the gauge sector at using ; (iv) extract from and incorporate electroweak radiative corrections to through the Sirlin relation and ; (v) fit Yukawa-like effective couplings and hadronic proxies ; (vi) perform 2-loop running with heavy thresholds and a Monte-Carlo scan to estimate the unification scale and uncertainty; (vii) provide an identifiability argument that the calibrated parameter set is unique under TUE’s physical constraints. The result is numerical consistency with ten benchmark observables at and robust quasi-unification around .