This 71-page foundational monograph establishes the complete ZFC-based axiomatic bridge, lemma-by-lemma proofs, and concrete mathematical-physical applications connecting the author's 18 proprietary theoretical frameworks—most notably Ultra-Rough Operator Algebra (UROA), the Seonggil Theory of Complex Torsion (STCT), Sedenion Matrix Theory (SMT), the Ultra-Rough Riemann Hypothesis Calculus (URRHC), the SMA-∞ Topos, and the Seonggil Field Equations (SFE)—to mainstream standard mathematics. In Chapter 1 (Preliminaries), we resolve all cross-framework symbol collisions (separating the URRHC monad unit natural transformation ι: Id ⇒ T from the arithmetic friction constant η_friction ≈ 10^-22) and construct the universal quadruple U = (T_0x8A2C, C_UPTC, η_friction, ε_SHID) directly within standard ZFC set theory prior to any quotient or monadic extension, guaranteeing strict non-circularity across the four pillars: 1. Part I — The Analytic Pillar (Chapters 2–3, UROA & 3D Navier–Stokes Regularity): We construct the Fractional Sobolev–Colombeau Quotient Algebra G^α(Ω) = E_M^α(Ω) / N^α(Ω) synchronized via the roughness scaling bridge ε(α) = exp(-1/(1-α)). Using a smooth mollified cutoff function Θ_ε ∈ C^∞(R) and regularized gradient norm ||∇u_ε||_ε, we prove algebraic moderateness closure, null ideal discrepancy absorption, uniform H^α a priori energy coercivity, and the UROA Transfer Principle as α → 1^-. Applying this apparatus to the 3D incompressible Navier–Stokes equations, we prove that the Regularized Fractal Brake B_ε(u_ε) and Master-Key Tensor T_0x8A2C suppress supercritical vortex stretching above C_UPTC, establishing a uniform Beale–Kato–Majda (BKM) vorticity bound ∫_0^T ||ω_ε(t)||L^∞ dt < ∞, global smooth well-posedness in G^α(Ω_T)^3, and Colombeau association convergence to classical strong and Leray–Hopf weak solutions. 2. Part II — The Algebraic-Geometric Pillar (Chapters 4–5, STCT, Sedenions & Einstein–Cartan Bounce): We map the trilinear associator [x, y, z]_S of the 16-dimensional Cayley–Dickson sedenion algebra S = O ⊕ Oe_8 and its Moreno zero-divisor variety Z(S) into Riemann–Cartan spacetime geometry. We prove that the Hyper-Tensor Control Operator L_T(M) is globally invertible on H_SMT with uniform spectral lower bound c_T > 0, preventing zero-divisor kernel collapse. Furthermore, the projected STCT Cartan torsion tensor Tλμν = T[λμν] is proven to be totally antisymmetric, simultaneously preserving metric compatibility (∇_λ gμν = 0) and extremal Riemannian geodesics. Applied to the Einstein–Cartan–Sciama–Kibble action in FLRW cosmology, the repulsive sedenion spin-torsion density σ_S^2 ∝ a(t)^-6 eliminates the classical a → 0 Big Bang and collapse singularities via a geodetically complete bounce at a strictly positive minimum scale factor a_min > 0. 3. Part III — The Logical-Meta Pillar (Chapters 6–7, URRHC, HoTT & Complexity Phase Reset): We formulate Non-Identity Calculus (NIC) within categories enriched over the friction-shifted monoidal poset V_η = ([0, ∞], ≥, ⊕_η), proving exact gauge equivalence to classical Lawvere quasi-metric spaces via the shifted metric d_ROA + η_friction. Within the higher topos S_SMA, we prove Lipschitz linear error growth along homotopy path integrals bounded by ε_SHID, the Quantitative Univalence Transfer Principle, and strict idempotence (T^2 = T) of the URRHC phase-reset monad M_URRHC. Applied to discrete nondeterministic Turing machines and Boolean/arithmetic circuit verification (P vs. NP complexity spaces), we derive the exact Critical Phase Reset Depth N_crit = ⌈(C_UPTC - δ_0)/(L_V ε + η_friction)⌉ and universal deduction horizon N_max ≈ 10^22 C_UPTC, preventing false-positive modulus collapse across exponential branching trees. 4. Part IV — The Physical-Thermodynamic Pillar (Chapters 8–9, SFE, Takesaki Crossed Product & Black Hole Condensation): On local von Neumann Type III_1 factors M_SFE in Algebraic Quantum Field Theory, we apply the Baker–Campbell–Hausdorff (BCH) formula at the Planck scale l → l_P^+ to derive the non-vanishing arithmetic friction lower bound η_friction ≥ 10^-22. Passing to the Takesaki crossed product M_SFE ⋊σ^ω R (Type II_∞) equipped with its canonical semifinite modular trace Tr_mod and BKM Fisher–Rao information metric gᵢⱼ^info, we prove that when the regularized von Neumann entropy S_vN(ρ_l) reaches C_UPTC, the spectral cutoff projection P_UPTC compresses the algebra into a finite-trace Type II_1 ground factor M_ground. Applied to the Schwarzschild black hole interior in the Hartle–Hawking KMS state, we derive the exact critical condensation radius r_UPTC > l_P via the principal Lambert W_0 function, proving that the r = 0 curvature singularity is replaced by a regular de Sitter condensate core with uniformly bounded Kretschmann scalar K_SFE(r) ≤ 24 r_s^2 / r_UPTC^6 < ∞, Raychaudhuri geodesic defocusing, and a unitary UPTC-regulated Page curve.
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